Class: Writeexcel::Worksheet
- Inherits:
-
BIFFWriter
- Object
- WriteFile
- BIFFWriter
- Writeexcel::Worksheet
- Defined in:
- lib/writeexcel/worksheet.rb
Direct Known Subclasses
Constant Summary collapse
- NonAscii =
/[^!"#\$%&'\(\)\*\+,\-\.\/\:\;<=>\?@0-9A-Za-z_\[\\\]\{\}^` ~\0\n]/
- RowMax =
:nodoc:
65536
- ColMax =
:nodoc:
256
- StrMax =
:nodoc:
0
- Buffer =
:nodoc:
4096
Constants inherited from BIFFWriter
BIFFWriter::BIFF_Version, BIFFWriter::BigEndian
Instance Attribute Summary
Attributes inherited from BIFFWriter
Instance Method Summary collapse
-
#activate ⇒ Object
Set this worksheet as the active worksheet, i.e.
-
#active=(val) ⇒ Object
:nodoc:.
-
#add_write_handler(regexp, code_ref) ⇒ Object
Allow the user to add their own matches and handlers to the write() method.
-
#autofilter(*args) ⇒ Object
:call-seq: autofilter(first_row, first_col, last_row, last_col) autofilter(“A1:G10”).
-
#center_horizontally ⇒ Object
Center the worksheet data horizontally between the margins on the printed page.
-
#center_vertically ⇒ Object
Center the worksheet data vertically between the margins on the printed page:.
- #cleanup ⇒ Object
-
#close ⇒ Object
_close().
-
#comment_params(row, col, string, options = {}) ⇒ Object
_comment_params().
-
#convert_date_time(date_time_string) ⇒ Object
The function takes a date and time in ISO8601 “yyyy-mm-ddThh:mm:ss.ss” format and converts it to a decimal number representing a valid Excel date.
-
#data_validation(*args) ⇒ Object
:call-seq: data_validation(row, col, …) data_validation(first_row, first_col, last_row, last_col, …).
-
#date_1904=(val) ⇒ Object
:nodoc:.
-
#encoding ⇒ Object
:nodoc:.
-
#extract_filter_tokens(expression = nil) ⇒ Object
_extract_filter_tokens($expression).
-
#filter_area ⇒ Object
:nodoc:.
-
#filter_column(col, expression) ⇒ Object
:call-seq: filter_column(column, expression).
-
#filter_count ⇒ Object
:nodoc:.
-
#fit_to_pages(width = 0, height = 0) ⇒ Object
Store the vertical and horizontal number of pages that will define the maximum area printed.
-
#freeze_panes(*args) ⇒ Object
:call-seq: freeze_pane(row, col, top_row, left_col).
-
#hidden ⇒ Object
:nodoc:.
-
#hidden=(val) ⇒ Object
:nodoc:.
-
#hide ⇒ Object
Hide this worksheet.
-
#hide_gridlines(option = 1) ⇒ Object
:call-seq: hide_gridlines(option = 1).
-
#hide_zero ⇒ Object
Hide cell zero values.
-
#image_mso_size ⇒ Object
:nodoc:.
-
#image_mso_size=(val) ⇒ Object
:nodoc:.
-
#images_array ⇒ Object
:nodoc:.
-
#index ⇒ Object
:nodoc:.
-
#index=(val) ⇒ Object
:nodoc:.
-
#initialize(name, index, encoding, url_format, parser, tempdir, date_1904, compatibility, palette, sinfo) ⇒ Worksheet
constructor
new().
-
#insert_chart(*args) ⇒ Object
insert_chart($row, $col, $chart, $x, $y, $scale_x, $scale_y) insert_chart($A1_notation, $chart, $x, $y, $scale_x, $scale_y).
-
#insert_image(*args) ⇒ Object
:call-seq: insert_image(row, col, filename, x, y, scale_x, scale_y) insert_image(A1_notation, filename, x, y, scale_x, scale_y).
-
#keep_leading_zeros(val = true) ⇒ Object
Causes the write() method to treat integers with a leading zero as a string.
-
#merge_cells(*args) ⇒ Object
merge_cells($first_row, $first_col, $last_row, $last_col).
-
#merge_range(*args) ⇒ Object
:call-seq: merge_range(first_row, first_col, last_row, last_col, token, format, utf_16_be).
-
#name ⇒ Object
The name() method is used to retrieve the name of a worksheet.
-
#num_images ⇒ Object
:nodoc:.
-
#num_images=(val) ⇒ Object
:nodoc:.
-
#object_ids=(val) ⇒ Object
:nodoc:.
-
#offset ⇒ Object
:nodoc:.
-
#offset=(val) ⇒ Object
:nodoc:.
-
#outline_settings(*args) ⇒ Object
:call-seq: outline_settings(visible, symbols_below, symbols_right, auto_style).
-
#pack_dv_formula(formula = nil) ⇒ Object
_pack_dv_formula().
-
#pack_dv_string(string = nil, max_length = 0) ⇒ Object
_pack_dv_string().
-
#parse_filter_expression(expression, tokens) ⇒ Object
_parse_filter_expression(expression, @token).
-
#position_object(col_start, row_start, x1, y1, width, height) ⇒ Object
_position_object().
-
#prepare_charts ⇒ Object
_prepare_charts().
-
#prepare_comments ⇒ Object
_prepare_comments().
-
#prepare_images ⇒ Object
_prepare_images().
-
#print_across ⇒ Object
Set the order in which pages are printed.
-
#print_area(*args) ⇒ Object
:call-seq: print_area(first_row, first_col, last_row, last_col) print_area(A1_notation).
-
#print_colmax ⇒ Object
:nodoc:.
-
#print_colmin ⇒ Object
:nodoc:.
-
#print_row_col_headers(option = nil) ⇒ Object
Set the option to print the row and column headers on the printed page.
-
#print_rowmax ⇒ Object
:nodoc:.
-
#print_rowmin ⇒ Object
:nodoc:.
-
#protect(password = nil) ⇒ Object
Set the worksheet protection flag to prevent accidental modification and to hide formulas if the locked and hidden format properties have been set.
-
#repeat_columns(*args) ⇒ Object
:call-seq: repeat_columns(first_col[, last_col]) repeat_columns(A1_notation).
-
#repeat_formula(*args) ⇒ Object
:call-seq: repeat_formula(row, col, formula, format, ([:pattern => replace, …]) -> Fixnum repeat_formula(A1_notation, formula, format, ([:pattern => replace, …]) -> Fixnum.
-
#repeat_rows(first_row, last_row = nil) ⇒ Object
Set the rows to repeat at the top of each printed page.
-
#right_to_left ⇒ Object
Display the worksheet right to left for some eastern versions of Excel.
-
#select ⇒ Object
Set this worksheet as a selected worksheet, i.e.
-
#selected ⇒ Object
:nodoc:.
-
#selected=(val) ⇒ Object
:nodoc:.
-
#set_column(*args) ⇒ Object
:call-seq: set_column(first_col, last_col, width, format, hidden, level, collapsed) set_column(A1_notation, width, format, hidden, level, collapsed).
-
#set_comments_author(author = '', author_enc = 0) ⇒ Object
set_comments_author().
-
#set_first_row_column(row = 0, col = 0) ⇒ Object
set_first_row_column().
-
#set_first_sheet ⇒ Object
Set this worksheet as the first visible sheet.
-
#set_footer(string = '', margin = 0.50, encoding = 0) ⇒ Object
Set the page footer caption and optional margin.
-
#set_h_pagebreaks(breaks) ⇒ Object
Store the horizontal page breaks on a worksheet.
-
#set_header(string = '', margin = 0.50, encoding = 0) ⇒ Object
Set the page header caption and optional margin.
-
#set_landscape ⇒ Object
Set the page orientation as landscape.
-
#set_margin_bottom(margin = 1.00) ⇒ Object
set_margin_bottom().
-
#set_margin_left(margin = 0.75) ⇒ Object
set_margin_left().
-
#set_margin_right(margin = 0.75) ⇒ Object
set_margin_right().
-
#set_margin_top(margin = 1.00) ⇒ Object
set_margin_top().
-
#set_margins(margin) ⇒ Object
Set all the page margins to the same value in inches.
-
#set_margins_LR(margin) ⇒ Object
set_margins_LR().
-
#set_margins_TB(margin) ⇒ Object
set_margins_TB().
-
#set_page_view ⇒ Object
This method is used to display the worksheet in “Page View” mode.
-
#set_paper(paper_size = 0) ⇒ Object
set_paper().
-
#set_portrait ⇒ Object
Set the page orientation as portrait.
-
#set_print_scale(scale = 100) ⇒ Object
Set the scale factor of the printed page.
-
#set_row(row, height = nil, format = nil, hidden = 0, level = 0, collapsed = 0) ⇒ Object
row : Row Number height : Format object format : Format object hidden : Hidden flag level : Outline level collapsed : Collapsed row.
-
#set_selection(*args) ⇒ Object
:call-seq: set_selection(first_row, first_col[, last_row, last_col]) set_selection(‘B3’) set_selection(‘B3:C8’).
-
#set_start_page(start_page = 1) ⇒ Object
Set the start page number.
-
#set_tab_color(color) ⇒ Object
Set the colour of the worksheet colour.
-
#set_v_pagebreaks(breaks) ⇒ Object
Store the vertical page breaks on a worksheet.
-
#set_zoom(scale = 100) ⇒ Object
Set the worksheet zoom factor in the range 10 <= $scale <= 400:.
-
#sheet_type ⇒ Object
:nodoc:.
-
#show_comments(val = nil) ⇒ Object
show_comments().
-
#split_panes(*args) ⇒ Object
:call-seq: split_panes(y, x, top_row, left_col).
- #store_autofilter(index, operator_1, token_1, join = nil, operator_2 = nil, token_2 = nil) ⇒ Object
-
#store_colinfo(firstcol = 0, lastcol = 0, width = 8.43, format = nil, hidden = 0, level = 0, collapsed = 0) ⇒ Object
_store_colinfo($firstcol, $lastcol, $width, $format, $hidden).
-
#store_dimensions ⇒ Object
_store_dimensions().
-
#store_dval(obj_id, dv_count) ⇒ Object
_store_dval() my $obj_id = $_; # Object ID number.
-
#store_filtermode ⇒ Object
_store_filtermode().
-
#store_formula(formula) ⇒ Object
:call-seq: store_formula(formula) # formula : text string of formula.
- #store_mso_client_anchor(flag, col_start, x1, row_start, y1, col_end, x2, row_end, y2) ⇒ Object
-
#store_mso_client_data ⇒ Object
_store_mso_client_data().
-
#store_mso_client_text_box ⇒ Object
_store_mso_client_text_box().
-
#store_mso_dg(instance, num_shapes, max_spid) ⇒ Object
_store_mso_dg().
-
#store_mso_dg_container(length) ⇒ Object
_store_mso_dg_container().
-
#store_mso_drawing_text_box ⇒ Object
_store_mso_drawing_text_box().
-
#store_mso_opt_chart ⇒ Object
_store_mso_opt_chart().
-
#store_mso_opt_comment(spid, visible = nil, colour = 0x50) ⇒ Object
_store_mso_opt_comment().
-
#store_mso_opt_filter ⇒ Object
_store_mso_opt_filter().
-
#store_mso_opt_image(spid) ⇒ Object
_store_mso_opt_image().
-
#store_mso_sp(instance, spid, options) ⇒ Object
_store_mso_sp().
-
#store_mso_sp_container(length) ⇒ Object
_store_mso_sp_container().
-
#store_mso_spgr ⇒ Object
_store_mso_spgr().
-
#store_mso_spgr_container(length) ⇒ Object
_store_mso_spgr_container().
- #store_note(row, col, obj_id, author = nil, author_enc = nil, visible = nil) ⇒ Object
-
#store_obj_chart(obj_id) ⇒ Object
_store_obj_chart() my $obj_id = $_; # Object ID number.
-
#store_obj_comment(obj_id) ⇒ Object
_store_obj_comment() my $obj_id = $_; # Object ID number.
-
#store_obj_filter(obj_id, col) ⇒ Object
_store_obj_filter() my $obj_id = $_; # Object ID number.
-
#store_obj_image(obj_id) ⇒ Object
_store_obj_image() my $obj_id = $_; # Object ID number.
-
#store_selection(first_row = 0, first_col = 0, last_row = nil, last_col = nil) ⇒ Object
_store_selection($first_row, $first_col, $last_row, $last_col).
-
#store_txo(string_len, format_len = 16, rotation = 0) ⇒ Object
_store_txo() my $string_len = $_; # Length of the note text.
-
#store_txo_continue_1(string, encoding = 0) ⇒ Object
_store_txo_continue_1() my $string = $_; # Comment string.
-
#store_txo_continue_2(formats) ⇒ Object
_store_txo_continue_2() my $formats = $_; # Formatting information.
-
#title_colmax ⇒ Object
:nodoc:.
-
#title_colmin ⇒ Object
:nodoc:.
-
#title_rowmax ⇒ Object
:nodoc:.
-
#title_rowmin ⇒ Object
:nodoc:.
-
#write(*args) ⇒ Object
:call-seq: write(row, col, token, format) write(A1_notation, token, format).
-
#write_blank(*args) ⇒ Object
:call-seq: write_blank(row, col , format) -> Fixnum write_blank(A1_notation, format) -> Fixnum.
-
#write_col(*args) ⇒ Object
:call-seq: write_column(row, col , array[, format]) write_column(A1_notation, array[, format]).
-
#write_comment(*args) ⇒ Object
:call-seq: write_comment(row, col, comment[, optionhash(es)]) -> Fixnum write_comment(A1_notation, comment[, optionhash(es)]) -> Fixnum.
-
#write_date_time(*args) ⇒ Object
:call-seq: write_date_time(row, col , date_string[, format]) write_date_time(A1_notation, date_string[, format]).
-
#write_formula(*args) ⇒ Object
:call-seq: write_formula(row, col , formula[, format, value]) -> Fixnum write_formula(A1_notation, formula[, format, value]) -> Fixnum.
-
#write_number(*args) ⇒ Object
:call-seq: write_number(row, col, token[, format]) write_number(A1_notation, token[, format]).
-
#write_row(*args) ⇒ Object
:call-seq: write_row(row, col , array[, format]) write_row(A1_notation, array[, format]).
-
#write_string(*args) ⇒ Object
:call-seq: write_string(row, col, token[, format]) write_string(A1_notation, token[, format]).
-
#write_url(*args) ⇒ Object
:call-seq: write_url(row, col , url[, label, , format]) -> int write_url(A1_notation, url[, label, , format]) -> int.
-
#write_url_range(*args) ⇒ Object
:call-seq: write_url_range(row1, col1, row2, col2, url[, string, , format]) -> Fixnum write_url_range(‘A1:D2’, url[, string, , format]) -> Fixnum.
-
#write_utf16be_string(*args) ⇒ Object
write_utf16be_string($row, $col, $string, $format).
-
#write_utf16le_string(*args) ⇒ Object
write_utf16le_string($row, $col, $string, $format).
Methods inherited from BIFFWriter
#add_continue, #add_mso_generic, #append, #clear_data_for_test, #get_data, #not_using_tmpfile, #prepend, #print_caller_info, #set_byte_order, #store_bof, #store_eof
Methods included from CallerInfo
Methods inherited from WriteFile
Constructor Details
#initialize(name, index, encoding, url_format, parser, tempdir, date_1904, compatibility, palette, sinfo) ⇒ Worksheet
new()
Constructor. Creates a new Worksheet object from a BIFFwriter object
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# File 'lib/writeexcel/worksheet.rb', line 52 def initialize(name, index, encoding, url_format, parser, tempdir, date_1904, compatibility, palette, sinfo) # :nodoc: super() @name = name @index = index @encoding = encoding @url_format = url_format @parser = parser @tempdir = tempdir @date_1904 = date_1904 @compatibility = compatibility @palette = palette @sinfo = sinfo # key: :activesheet, :firstsheet, :str_total, :str_unique, :str_table @sheet_type = 0x0000 @ext_sheets = [] @using_tmpfile = true @fileclosed = false @offset = 0 @xls_rowmax = RowMax @xls_colmax = ColMax @xls_strmax = StrMax @dim_rowmin = nil @dim_rowmax = nil @dim_colmin = nil @dim_colmax = nil @colinfo = [] @selection = [0, 0] @panes = [] @active_pane = 3 @frozen = 0 @frozen_no_split = 1 @selected = 0 @hidden = 0 @active = 0 @tab_color = 0 @first_row = 0 @first_col = 0 @display_formulas = 0 @display_headers = 1 @display_zeros = 1 @display_arabic = 0 @paper_size = 0x0 @orientation = 0x1 @header = '' @footer = '' @header_encoding = 0 @footer_encoding = 0 @hcenter = 0 @vcenter = 0 @margin_header = 0.50 @margin_footer = 0.50 @margin_left = 0.75 @margin_right = 0.75 @margin_top = 1.00 @margin_bottom = 1.00 @title_rowmin = nil @title_rowmax = nil @title_colmin = nil @title_colmax = nil @print_rowmin = nil @print_rowmax = nil @print_colmin = nil @print_colmax = nil @print_gridlines = 1 @screen_gridlines = 1 @print_headers = 0 @page_order = 0 @black_white = 0 @draft_quality = 0 @print_comments = 0 @page_start = 1 @custom_start = 0 @fit_page = 0 @fit_width = 0 @fit_height = 0 @hbreaks = [] @vbreaks = [] @protect = 0 @password = nil @col_sizes = {} @row_sizes = {} @col_formats = {} @row_formats = {} @zoom = 100 @print_scale = 100 @page_view = 0 @leading_zeros = false @outline_row_level = 0 @outline_style = 0 @outline_below = 1 @outline_right = 1 @outline_on = 1 @write_match = [] @object_ids = [] @images = {} @images_array = [] @charts = {} @charts_array = [] @comments = {} @comments_array = [] @comments_author = '' @comments_author_enc = 0 @comments_visible = 0 @num_images = 0 @image_mso_size = 0 @filter_area = [] @filter_count = 0 @filter_on = 0 @filter_cols = [] @writing_url = 0 @db_indices = [] @validations = [] @table = [] @row_data = {} end |
Instance Method Details
#activate ⇒ Object
Set this worksheet as the active worksheet, i.e. the worksheet that is displayed when the workbook is opened. Also set it as selected.
The activate() method is used to specify which worksheet is initially visible in a multi-sheet workbook:
worksheet1 = workbook.add_worksheet('To')
worksheet2 = workbook.add_worksheet('the')
worksheet3 = workbook.add_worksheet('wind')
worksheet3.activate
This is similar to the Excel VBA activate method. More than one worksheet can be selected via the select() method, see below, however only one worksheet can be active.
The default active worksheet is the first worksheet.
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# File 'lib/writeexcel/worksheet.rb', line 385 def activate @hidden = 0 # Active worksheet can't be hidden. @selected = 1 @sinfo[:activesheet] = @index end |
#active=(val) ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3555 def active=(val) # :nodoc: @active = val end |
#add_write_handler(regexp, code_ref) ⇒ Object
Allow the user to add their own matches and handlers to the write() method.
This method is used to extend the WriteExcel write() method to handle user defined data.
If you refer to the section on write() above you will see that it acts as an alias for several more specific write_* methods. However, it doesn’t always act in exactly the way that you would like it to.
One solution is to filter the input data yourself and call the appropriate write_* method. Another approach is to use the add_write_handler() method to add your own automated behaviour to write().
The add_write_handler() method take two arguments, re, a regular expression to match incoming data and code a callback function to handle the matched data:
worksheet.add_write_handler(qr/^\d\d\d\d$/, \&my_write)
(In the these examples the qr operator is used to quote the regular expression strings, see perlop for more details).
The method is used as follows. say you wished to write 7 digit ID numbers as a string so that any leading zeros were preserved*, you could do something like the following:
worksheet.add_write_handler(qr/^\d{7}$/, \&write_my_id)
sub write_my_id {
my $worksheet = shift;
return $worksheet->write_string(@_);
}
-
You could also use the keep_leading_zeros() method for this.
Then if you call write() with an appropriate string it will be handled automatically:
# Writes 0000000. It would normally be written as a number; 0.
$worksheet->write('A1', '0000000');
The callback function will receive a reference to the calling worksheet and all of the other arguments that were passed to write(). The callback will see an @_ argument list that looks like the following:
$_[0] A ref to the calling worksheet. *
$_[1] Zero based row number.
$_[2] Zero based column number.
$_[3] A number or string or token.
$_[4] A format ref if any.
$_[5] Any other arguments.
...
* It is good style to shift this off the list so the @_ is the same
as the argument list seen by write().
Your callback should return() the return value of the write_* method that was called or undef to indicate that you rejected the match and want write() to continue as normal.
So for example if you wished to apply the previous filter only to ID values that occur in the first column you could modify your callback function as follows:
sub write_my_id {
my $worksheet = shift;
my $col = $_[1];
if ($col == 0) {
return $worksheet->write_string(@_);
}
else {
# Reject the match and return control to write()
return undef;
}
}
Now, you will get different behaviour for the first column and other columns:
$worksheet->write('A1', '0000000'); # Writes 0000000
$worksheet->write('B1', '0000000'); # Writes 0
You may add more than one handler in which case they will be called in the order that they were added.
Note, the add_write_handler() method is particularly suited for handling dates.
See the write_handler 1-4 programs in the examples directory for further examples.
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# File 'lib/writeexcel/worksheet.rb', line 2424 def add_write_handler(regexp, code_ref) # return unless ref $_[1] eq 'CODE'; @write_match.push([regexp, code_ref]) end |
#autofilter(*args) ⇒ Object
:call-seq:
autofilter(first_row, first_col, last_row, last_col)
autofilter("A1:G10")
Set the autofilter area in the worksheet.
This method allows an autofilter to be added to a worksheet. An autofilter is a way of adding drop down lists to the headers of a 2D range of worksheet data. This is turn allow users to filter the data based on simple criteria so that some data is highlighted and some is hidden.
To add an autofilter to a worksheet:
worksheet.autofilter(0, 0, 10, 3)
worksheet.autofilter('A1:D11') # Same as above in A1 notation.
Filter conditions can be applied using the filter_column() method.
See the autofilter.rb program in the examples directory of the distro for a more detailed example.
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# File 'lib/writeexcel/worksheet.rb', line 1164 def autofilter(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end return if args.size != 4 # Require 4 parameters row1, col1, row2, col2 = args # Reverse max and min values if necessary. if row2 < row1 tmp = row1 row1 = row2 row2 = tmp end if col2 < col1 tmp = col1 col1 = col2 col2 = col1 end # Store the Autofilter information @filter_area = [row1, row2, col1, col2] @filter_count = 1 + col2 -col1 end |
#center_horizontally ⇒ Object
Center the worksheet data horizontally between the margins on the printed page.
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# File 'lib/writeexcel/worksheet.rb', line 1416 def center_horizontally @hcenter = 1 end |
#center_vertically ⇒ Object
Center the worksheet data vertically between the margins on the printed page:
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# File 'lib/writeexcel/worksheet.rb', line 1423 def center_vertically @vcenter = 1 end |
#cleanup ⇒ Object
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# File 'lib/writeexcel/worksheet.rb', line 311 def cleanup super end |
#close ⇒ Object
_close()
Add data to the beginning of the workbook (note the reverse order) and to the end of the workbook.
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# File 'lib/writeexcel/worksheet.rb', line 200 def close #:nodoc: ################################################ # Prepend in reverse order!! # # Prepend the sheet dimensions store_dimensions # Prepend the autofilter filters. store_autofilters # Prepend the sheet autofilter info. store_autofilterinfo # Prepend the sheet filtermode record. store_filtermode # Prepend the COLINFO records if they exist unless @colinfo.empty? colinfo = @colinfo.dup while (!colinfo.empty?) arrayref = colinfo.pop store_colinfo(*arrayref) end end # Prepend the DEFCOLWIDTH record store_defcol # Prepend the sheet password store_password # Prepend the sheet protection store_protect store_obj_protect # Prepend the page setup store_setup # Prepend the bottom margin store_margin_bottom # Prepend the top margin store_margin_top # Prepend the right margin store_margin_right # Prepend the left margin store_margin_left # Prepend the page vertical centering store_vcenter # Prepend the page horizontal centering store_hcenter # Prepend the page footer # Prepend the page header store_header # Prepend the vertical page breaks store_vbreak # Prepend the horizontal page breaks store_hbreak # Prepend WSBOOL store_wsbool # Prepend the default row height. store_defrow # Prepend GUTS store_guts # Prepend GRIDSET store_gridset # Prepend PRINTGRIDLINES store_print_gridlines # Prepend PRINTHEADERS store_print_headers # # End of prepend. Read upwards from here. ################################################ # Append store_table store_images store_charts store_filters store_comments store_window2 store_page_view store_zoom store_panes(*@panes) if !@panes.nil? && !@panes.empty? store_selection(*@selection) store_validation_count store_validations store_tab_color store_eof # Prepend the BOF and INDEX records store_index store_bof(0x0010) end |
#comment_params(row, col, string, options = {}) ⇒ Object
_comment_params()
This method handles the additional optional parameters to write_comment() as well as calculating the comment object position and vertices.
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# File 'lib/writeexcel/worksheet.rb', line 7798 def comment_params(row, col, string, = {}) #:nodoc: string = convert_to_ascii_if_ascii(string) default_width = 128 default_height = 74 params = { :author => '', :author_encoding => 0, :encoding => 0, :color => nil, :start_cell => nil, :start_col => nil, :start_row => nil, :visible => nil, :width => default_width, :height => default_height, :x_offset => nil, :x_scale => 1, :y_offset => nil, :y_scale => 1 } # Overwrite the defaults with any user supplied values. Incorrect or # misspelled parameters are silently ignored. params.update() # Ensure that a width and height have been set. params[:width] = default_width if params[:width].nil? || params[:width] == 0 params[:height] = default_height if params[:height].nil? || params[:height] == 0 # Check that utf16 strings have an even number of bytes. if params[:encoding] != 0 raise "Uneven number of bytes in comment string" if string.bytesize % 2 != 0 # Change from UTF-16BE to UTF-16LE string = string.unpack('n*').pack('v*') # Handle utf8 strings else ruby_18 do if string =~ NonAscii string = NKF.nkf('-w16L0 -m0 -W', string) params[:encoding] = 1 end end ruby_19 do if string.encoding == Encoding::UTF_8 string = NKF.nkf('-w16L0 -m0 -W', string) string.force_encoding('UTF-16LE') params[:encoding] = 1 end end end params[:author] = convert_to_ascii_if_ascii(params[:author]) if params[:author_encoding] != 0 raise "Uneven number of bytes in author string" if params[:author].bytesize % 2 != 0 # Change from UTF-16BE to UTF-16LE params[:author] = params[:author].unpack('n*').pack('v*') else ruby_18 do if params[:author] =~ NonAscii params[:author] = NKF.nkf('-w16L0 -m0 -W', params[:author]) params[:author_encoding] = 1 end end ruby_19 do if params[:author].encoding == Encoding::UTF_8 params[:author] = NKF.nkf('-w16L0 -m0 -W', params[:author]) params[:author].force_encoding('UTF-16LE') params[:author_encoding] = 1 end end end # Limit the string to the max number of chars (not bytes). max_len = 32767 max_len = max_len * 2 if params[:encoding] != 0 if string.bytesize > max_len string = string[0 .. max_len] end # Set the comment background colour. color = params[:color] color = Colors.new.get_color(color) color = 0x50 if color == 0x7FFF # Default color. params[:color] = color # Convert a cell reference to a row and column. unless params[:start_cell].nil? params[:start_row], params[:start_col] = substitute_cellref(params[:start_cell]) end # Set the default start cell and offsets for the comment. These are # generally fixed in relation to the parent cell. However there are # some edge cases for cells at the, er, edges. # if params[:start_row].nil? case row when 0 then params[:start_row] = 0 when 65533 then params[:start_row] = 65529 when 65534 then params[:start_row] = 65530 when 65535 then params[:start_row] = 65531 else params[:start_row] = row -1 end end if params[:y_offset].nil? case row when 0 then params[:y_offset] = 2 when 65533 then params[:y_offset] = 4 when 65534 then params[:y_offset] = 4 when 65535 then params[:y_offset] = 2 else params[:y_offset] = 7 end end if params[:start_col].nil? case col when 253 then params[:start_col] = 250 when 254 then params[:start_col] = 251 when 255 then params[:start_col] = 252 else params[:start_col] = col + 1 end end if params[:x_offset].nil? case col when 253 then params[:x_offset] = 49 when 254 then params[:x_offset] = 49 when 255 then params[:x_offset] = 49 else params[:x_offset] = 15 end end # Scale the size of the comment box if required. if params[:x_scale] != 0 params[:width] = params[:width] * params[:x_scale] end if params[:y_scale] != 0 params[:height] = params[:height] * params[:y_scale] end # Calculate the positions of comment object. vertices = position_object( params[:start_col], params[:start_row], params[:x_offset], params[:y_offset], params[:width], params[:height] ) [row, col, string, params[:encoding], params[:author], params[:author_encoding], params[:visible], params[:color], vertices ] end |
#convert_date_time(date_time_string) ⇒ Object
The function takes a date and time in ISO8601 “yyyy-mm-ddThh:mm:ss.ss” format and converts it to a decimal number representing a valid Excel date.
Dates and times in Excel are represented by real numbers. The integer part of the number stores the number of days since the epoch and the fractional part stores the percentage of the day in seconds. The epoch can be either 1900 or 1904.
Parameter: Date and time string in one of the following formats:
yyyy-mm-ddThh:mm:ss.ss # Standard
yyyy-mm-ddT # Date only
Thh:mm:ss.ss # Time only
Returns:
A decimal number representing a valid Excel date, or
undef if the date is invalid.
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# File 'lib/writeexcel/worksheet.rb', line 4763 def convert_date_time(date_time_string) #:nodoc: date_time = date_time_string days = 0 # Number of days since epoch seconds = 0 # Time expressed as fraction of 24h hours in seconds # Strip leading and trailing whitespace. date_time.sub!(/^\s+/, '') date_time.sub!(/\s+$/, '') # Check for invalid date char. return nil if date_time =~ /[^0-9T:\-\.Z]/ # Check for "T" after date or before time. return nil unless date_time =~ /\dT|T\d/ # Strip trailing Z in ISO8601 date. date_time.sub!(/Z$/, '') # Split into date and time. date, time = date_time.split(/T/) # We allow the time portion of the input DateTime to be optional. unless time.nil? # Match hh:mm:ss.sss+ where the seconds are optional if time =~ /^(\d\d):(\d\d)(:(\d\d(\.\d+)?))?/ hour = $1.to_i min = $2.to_i sec = $4.to_f || 0 else return nil # Not a valid time format. end # Some boundary checks return nil if hour >= 24 return nil if min >= 60 return nil if sec >= 60 # Excel expresses seconds as a fraction of the number in 24 hours. seconds = (hour * 60* 60 + min * 60 + sec) / (24.0 * 60 * 60) end # We allow the date portion of the input DateTime to be optional. return seconds if date == '' # Match date as yyyy-mm-dd. if date =~ /^(\d\d\d\d)-(\d\d)-(\d\d)$/ year = $1.to_i month = $2.to_i day = $3.to_i else return nil # Not a valid date format. end # Set the epoch as 1900 or 1904. Defaults to 1900. # Special cases for Excel. unless @date_1904 return seconds if date == '1899-12-31' # Excel 1900 epoch return seconds if date == '1900-01-00' # Excel 1900 epoch return 60 + seconds if date == '1900-02-29' # Excel false leapday end # We calculate the date by calculating the number of days since the epoch # and adjust for the number of leap days. We calculate the number of leap # days by normalising the year in relation to the epoch. Thus the year 2000 # becomes 100 for 4 and 100 year leapdays and 400 for 400 year leapdays. # epoch = @date_1904 ? 1904 : 1900 offset = @date_1904 ? 4 : 0 norm = 300 range = year -epoch # Set month days and check for leap year. mdays = [31, 28, 31, 30, 31, 30, 31, 31, 30, 31, 30, 31] leap = 0 leap = 1 if year % 4 == 0 && year % 100 != 0 || year % 400 == 0 mdays[1] = 29 if leap != 0 # Some boundary checks return nil if year < epoch or year > 9999 return nil if month < 1 or month > 12 return nil if day < 1 or day > mdays[month -1] # Accumulate the number of days since the epoch. days = day # Add days for current month (0 .. month-2).each do |m| days += mdays[m] # Add days for past months end days += range *365 # Add days for past years days += ((range) / 4) # Add leapdays days -= ((range + offset) /100) # Subtract 100 year leapdays days += ((range + offset + norm)/400) # Add 400 year leapdays days -= leap # Already counted above # Adjust for Excel erroneously treating 1900 as a leap year. days += 1 if !@date_1904 and days > 59 days + seconds end |
#data_validation(*args) ⇒ Object
:call-seq:
data_validation(row, col, {...})
data_validation(first_row, first_col, last_row, last_col, {...})
This method handles the interface to Excel data validation. Somewhat ironically the this requires a lot of validation code since the interface is flexible and covers a several types of data validation.
We allow data validation to be called on one cell or a range of cells. The hashref contains the validation parameters and must be the last param:
Returns 0 : normal termination
-1 : insufficient number of arguments
-2 : row or column out of range
-3 : incorrect parameter.
The data_validation() method is used to construct an Excel data validation or to limit the user input to a dropdown list of values.
worksheet.data_validation('B3',
{
:validate => 'integer',
:criteria => '>',
:value => 100,
})
worksheet.data_validation('B5:B9',
{
:validate => 'list',
:value => ['open', 'high', 'close'],
})
This method contains a lot of parameters and is described in detail in a separate section “DATA VALIDATION IN EXCEL”.
See also the data_validate.rb program in the examples directory of the distro
The data_validation() method is used to construct an Excel data validation.
It can be applied to a single cell or a range of cells. You can pass 3 parameters such as (row, col, …) or 5 parameters such as (first_row, first_col, last_row, last_col, …). You can also use A1 style notation. For example:
worksheet.data_validation(0, 0, {...})
worksheet.data_validation(0, 0, 4, 1, {...})
# Which are the same as:
$worksheet.data_validation('A1', {...})
$worksheet.data_validation('A1:B5', {...})
See also the note about “Cell notation” for more information.
The last parameter in data_validation() must be a hash ref containing the parameters that describe the type and style of the data validation. The allowable parameters are:
validate
criteria
value | minimum | source
maximum
ignore_blank
dropdown
input_title
show_input
error_title
error_type
show_error
These parameters are explained in the following sections. Most of the parameters are optional, however, you will generally require the three main options validate, criteria and value.
worksheet.data_validation('B3',
{
:validate => 'integer',
:criteria => '>',
:value => 100
})
The data_validation method returns:
0 for success.
-1 for insufficient number of arguments.
-2 for row or column out of bounds.
-3 for incorrect parameter or value.
validate
This parameter is passed in a hash ref to data_validation().
The validate parameter is used to set the type of data that you wish to validate. It is always required and it has no default value. Allowable values are:
any
integer
decimal
list
date
time
length
custom
* any is used to specify that the type of data is unrestricted. This
is the same as not applying a data validation. It is only provided for completeness and isn’t used very often in the context of WriteExcel.
* integer restricts the cell to integer values. Excel refers to this
as ‘whole number’.
:validate => 'integer',
:criteria => '>',
:value => 100,
* decimal restricts the cell to decimal values.
:validate => 'decimal',
:criteria => '>',
:value => 38.6,
* list restricts the cell to a set of user specified values. These
can be passed in an array ref or as a cell range (named ranges aren’t currently supported):
:validate => 'list',
:value => ['open', 'high', 'close'],
# Or like this:
:value => 'B1:B3',
Excel requires that range references are only to cells on the
same worksheet.
* date restricts the cell to date values. Dates in Excel are expressed
as integer values but you can also pass an ISO860 style string as used in write_date_time(). See also “DATES AND TIME IN EXCEL” for more information about working with Excel’s dates.
:validate => 'date',
:criteria => '>',
:value => 39653, # 24 July 2008
# Or like this:
:value => '2008-07-24T',
* time restricts the cell to time values. Times in Excel are expressed
as decimal values but you can also pass an ISO860 style string as used in write_date_time(). See also “DATES AND TIME IN EXCEL” for more information about working with Excel’s times.
:validate => 'time',
:criteria => '>',
:value => 0.5, # Noon
# Or like this:
:value => 'T12:00:00',
* length restricts the cell data based on an integer string length.
Excel refers to this as ‘Text length’.
:validate => 'length',
:criteria => '>',
:value => 10,
* custom restricts the cell based on an external Excel formula that
returns a TRUE/FALSE value.
:validate => 'custom',
:value => '=IF(A10>B10,TRUE,FALSE)',
criteria
This parameter is passed in a hash ref to data_validation().
The criteria parameter is used to set the criteria by which the data in the cell is validated. It is almost always required except for the list and custom validate options. It has no default value. Allowable values are:
'between'
'not between'
'equal to' | '==' | '='
'not equal to' | '!=' | '<>'
'greater than' | '>'
'less than' | '<'
'greater than or equal to' | '>='
'less than or equal to' | '<='
You can either use Excel’s textual description strings, in the first column above, or the more common operator alternatives. The following are equivalent:
:validate => 'integer',
:criteria => 'greater than',
:value => 100,
:validate => 'integer',
:criteria => '>',
:value => 100,
The list and custom validate options don’t require a criteria. If you specify one it will be ignored.
:validate => 'list',
:value => ['open', 'high', 'close'],
:validate => 'custom',
:value => '=IF(A10>B10,TRUE,FALSE)',
value | minimum | source
This parameter is passed in a hash ref to data_validation().
The value parameter is used to set the limiting value to which the criteria is applied. It is always required and it has no default value. You can also use the synonyms minimum or source to make the validation a little clearer and closer to Excel’s description of the parameter:
# Use 'value'
:validate => 'integer',
:criteria => '>',
:value => 100,
# Use 'minimum'
:validate => 'integer',
:criteria => 'between',
:minimum => 1,
:maximum => 100,
# Use 'source'
:validate => 'list',
:source => 'B1:B3',
maximum
This parameter is passed in a hash ref to data_validation().
The maximum parameter is used to set the upper limiting value when the criteria is either ‘between’ or ‘not between’:
:validate => 'integer',
:criteria => 'between',
:minimum => 1,
:maximum => 100,
ignore_blank
This parameter is passed in a hash ref to data_validation().
The ignore_blank parameter is used to toggle on and off the ‘Ignore blank’ option in the Excel data validation dialog. When the option is on the data validation is not applied to blank data in the cell. It is on by default.
:ignore_blank => 0, # Turn the option off
dropdown
This parameter is passed in a hash ref to data_validation().
The dropdown parameter is used to toggle on and off the ‘In-cell dropdown’ option in the Excel data validation dialog. When the option is on a dropdown list will be shown for list validations. It is on by default.
:dropdown => 0, # Turn the option off
input_title
This parameter is passed in a hash ref to data_validation().
The input_title parameter is used to set the title of the input message that is displayed when a cell is entered. It has no default value and is only displayed if the input message is displayed. See the input_message parameter below.
:input_title => 'This is the input title',
The maximum title length is 32 characters. UTF8 strings are handled automatically.
input_message
This parameter is passed in a hash ref to data_validation().
The input_message parameter is used to set the input message that is displayed when a cell is entered. It has no default value.
:validate => 'integer',
:criteria => 'between',
:minimum => 1,
:maximum => 100,
:input_title => 'Enter the applied discount:',
:input_message => 'between 1 and 100',
The message can be split over several lines using newlines, “n” in double quoted strings.
:input_message => "This is\na test.",
The maximum message length is 255 characters. UTF8 strings are handled automatically.
show_input
This parameter is passed in a hash ref to data_validation().
The show_input parameter is used to toggle on and off the ‘Show input message when cell is selected’ option in the Excel data validation dialog. When the option is off an input message is not displayed even if it has been set using input_message. It is on by default.
:show_input => 0, # Turn the option off
error_title
This parameter is passed in a hash ref to data_validation().
The error_title parameter is used to set the title of the error message that is displayed when the data validation criteria is not met. The default error title is ‘Microsoft Excel’.
:error_title => 'Input value is not valid',
The maximum title length is 32 characters. UTF8 strings are handled automatically.
error_message
This parameter is passed in a hash ref to data_validation().
The error_message parameter is used to set the error message that is displayed when a cell is entered. The default error message is “The value you entered is not valid.nA user has restricted values that can be entered into the cell.”.
:validate => 'integer',
:criteria => 'between',
:minimum => 1,
:maximum => 100,
:error_title => 'Input value is not valid',
:error_message => 'It should be an integer between 1 and 100',
The message can be split over several lines using newlines, “n” in double quoted strings.
:input_message => "This is\na test.",
The maximum message length is 255 characters. UTF8 strings are handled automatically.
error_type
This parameter is passed in a hash ref to data_validation().
The error_type parameter is used to specify the type of error dialog that is displayed. There are 3 options:
'stop'
'warning'
'information'
The default is ‘stop’.
show_error
This parameter is passed in a hash ref to data_validation().
The show_error parameter is used to toggle on and off the ‘Show error alert after invalid data is entered’ option in the Excel data validation dialog. When the option is off an error message is not displayed even if it has been set using error_message. It is on by default.
:show_error => 0, # Turn the option off
Examples
Example 1. Limiting input to an integer greater than a fixed value.
worksheet.data_validation('A1',
{
:validate => 'integer',
:criteria => '>',
:value => 0,
})
Example 2. Limiting input to an integer greater than a fixed value where the value is referenced from a cell.
worksheet.data_validation('A2',
{
:validate => 'integer',
:criteria => '>',
:value => '=E3',
})
Example 3. Limiting input to a decimal in a fixed range.
worksheet.data_validation('A3',
{
:validate => 'decimal',
:criteria => 'between',
:minimum => 0.1,
:maximum => 0.5,
})
Example 4. Limiting input to a value in a dropdown list.
worksheet.data_validation('A4',
{
:validate => 'list',
:source => ['open', 'high', 'close'],
})
Example 5. Limiting input to a value in a dropdown list where the list is specified as a cell range.
worksheet.data_validation('A5',
{
:validate => 'list',
:source => '=E4:G4',
})
Example 6. Limiting input to a date in a fixed range.
worksheet.data_validation('A6',
{
:validate => 'date',
:criteria => 'between',
:minimum => '2008-01-01T',
:maximum => '2008-12-12T',
})
Example 7. Displaying a message when the cell is selected.
worksheet.data_validation('A7',
{
:validate => 'integer',
:criteria => 'between',
:minimum => 1,
:maximum => 100,
:input_title => 'Enter an integer:',
:input_message => 'between 1 and 100',
})
See also the data_validate.rb program in the examples directory of the distro.
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# File 'lib/writeexcel/worksheet.rb', line 8417 def data_validation(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end # Check for a valid number of args. return -1 if args.size != 5 && args.size != 3 # The final hashref contains the validation parameters. param = args.pop # Make the last row/col the same as the first if not defined. row1, col1, row2, col2 = args if row2.nil? row2 = row1 col2 = col1 end # Check that row and col are valid without storing the values. return -2 if check_dimensions(row1, col1, 1, 1) != 0 return -2 if check_dimensions(row2, col2, 1, 1) != 0 # Check that the last parameter is a hash list. unless param.respond_to?(:to_hash) # carp "Last parameter '$param' in data_validation() must be a hash ref"; return -3 end # List of valid input parameters. valid_parameter = { :validate => 1, :criteria => 1, :value => 1, :source => 1, :minimum => 1, :maximum => 1, :ignore_blank => 1, :dropdown => 1, :show_input => 1, :input_title => 1, :input_message => 1, :show_error => 1, :error_title => 1, :error_message => 1, :error_type => 1, :other_cells => 1 } # Check for valid input parameters. param.each_key do |param_key| unless valid_parameter.has_key?(param_key) # carp "Unknown parameter '$param_key' in data_validation()"; return -3 end end # Map alternative parameter names 'source' or 'minimum' to 'value'. param[:value] = param[:source] unless param[:source].nil? param[:value] = param[:minimum] unless param[:minimum].nil? # 'validate' is a required parameter. unless param.has_key?(:validate) # carp "Parameter 'validate' is required in data_validation()"; return -3 end # List of valid validation types. valid_type = { 'any' => 0, 'any value' => 0, 'whole number' => 1, 'whole' => 1, 'integer' => 1, 'decimal' => 2, 'list' => 3, 'date' => 4, 'time' => 5, 'text length' => 6, 'length' => 6, 'custom' => 7 } # Check for valid validation types. unless valid_type.has_key?(param[:validate].downcase) # carp "Unknown validation type '$param->{validate}' for parameter " . # "'validate' in data_validation()"; return -3 else param[:validate] = valid_type[param[:validate].downcase] end # No action is required for validation type 'any'. # TODO: we should perhaps store 'any' for message only validations. return 0 if param[:validate] == 0 # The list and custom validations don't have a criteria so we use a default # of 'between'. if param[:validate] == 3 || param[:validate] == 7 param[:criteria] = 'between' param[:maximum] = nil end # 'criteria' is a required parameter. unless param.has_key?(:criteria) # carp "Parameter 'criteria' is required in data_validation()"; return -3 end # List of valid criteria types. criteria_type = { 'between' => 0, 'not between' => 1, 'equal to' => 2, '=' => 2, '==' => 2, 'not equal to' => 3, '!=' => 3, '<>' => 3, 'greater than' => 4, '>' => 4, 'less than' => 5, '<' => 5, 'greater than or equal to' => 6, '>=' => 6, 'less than or equal to' => 7, '<=' => 7 } # Check for valid criteria types. unless criteria_type.has_key?(param[:criteria].downcase) # carp "Unknown criteria type '$param->{criteria}' for parameter " . # "'criteria' in data_validation()"; return -3 else param[:criteria] = criteria_type[param[:criteria].downcase] end # 'Between' and 'Not between' criteria require 2 values. if param[:criteria] == 0 || param[:criteria] == 1 unless param.has_key?(:maximum) # carp "Parameter 'maximum' is required in data_validation() " . # "when using 'between' or 'not between' criteria"; return -3 end else param[:maximum] = nil end # List of valid error dialog types. error_type = { 'stop' => 0, 'warning' => 1, 'information' => 2 } # Check for valid error dialog types. if not param.has_key?(:error_type) param[:error_type] = 0 elsif not error_type.has_key?(param[:error_type].downcase) # carp "Unknown criteria type '$param->{error_type}' for parameter " . # "'error_type' in data_validation()"; return -3 else param[:error_type] = error_type[param[:error_type].downcase] end # Convert date/times value if required. if param[:validate] == 4 || param[:validate] == 5 if param[:value] =~ /T/ date_time = convert_date_time(param[:value]) if date_time.nil? # carp "Invalid date/time value '$param->{value}' " . # "in data_validation()"; return -3 else param[:value] = date_time end end if !param[:maximum].nil? && param[:maximum] =~ /T/ date_time = convert_date_time(param[:maximum]) if date_time.nil? # carp "Invalid date/time value '$param->{maximum}' " . # "in data_validation()"; return -3 else param[:maximum] = date_time end end end # Set some defaults if they haven't been defined by the user. param[:ignore_blank] = 1 if param[:ignore_blank].nil? param[:dropdown] = 1 if param[:dropdown].nil? param[:show_input] = 1 if param[:show_input].nil? param[:show_error] = 1 if param[:show_error].nil? # These are the cells to which the validation is applied. param[:cells] = [[row1, col1, row2, col2]] # A (for now) undocumented parameter to pass additional cell ranges. if param.has_key?(:other_cells) param[:cells].push(param[:other_cells]) end # Store the validation information until we close the worksheet. @validations.push(param) end |
#date_1904=(val) ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3579 def date_1904=(val) # :nodoc: @date_1904 = val end |
#encoding ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3559 def encoding # :nodoc: @encoding end |
#extract_filter_tokens(expression = nil) ⇒ Object
_extract_filter_tokens($expression)
Extract the tokens from the filter expression. The tokens are mainly non- whitespace groups. The only tricky part is to extract string tokens that contain whitespace and/or quoted double quotes (Excel’s escaped quotes).
Examples: ‘x < 2000’
'x > 2000 and x < 5000'
'x = "foo"'
'x = "foo bar"'
'x = "foo "" bar"'
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# File 'lib/writeexcel/worksheet.rb', line 2039 def extract_filter_tokens(expression = nil) #:nodoc: return [] unless expression # @tokens = ($expression =~ /"(?:[^"]|"")*"|\S+/g); #" tokens = [] str = expression while str =~ /"(?:[^"]|"")*"|\S+/ tokens << $& str = $~.post_match end # Remove leading and trailing quotes and unescape other quotes tokens.map! do |token| token.sub!(/^"/, '') token.sub!(/"$/, '') token.gsub!(/""/, '"') # if token is number, convert to numeric. if token =~ /^([+-]?)(?=\d|\.\d)\d*(\.\d*)?([Ee]([+-]?\d+))?$/ token.to_f == token.to_i ? token.to_i : token.to_f else token end end tokens end |
#filter_area ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3583 def filter_area # :nodoc: @filter_area end |
#filter_column(col, expression) ⇒ Object
:call-seq:
filter_column(column, expression)
Set the column filter criteria.
The filter_column method can be used to filter columns in a autofilter range based on simple conditions.
NOTE: It isn’t sufficient to just specify the filter condition. You must also hide any rows that don’t match the filter condition. Rows are hidden using the set_row() visible parameter. WriteExcel cannot do this automatically since it isn’t part of the file format. See the autofilter.rb program in the examples directory of the distro for an example.
The conditions for the filter are specified using simple expressions:
worksheet.filter_column('A', 'x > 2000')
worksheet.filter_column('B', 'x > 2000 and x < 5000')
The column parameter can either be a zero indexed column number or a string column name.
The following operators are available:
Operator Synonyms
== = eq =~
!= <> ne !=
>
<
>=
<=
and &&
or ||
The operator synonyms are just syntactic sugar to make you more comfortable using the expressions. It is important to remember that the expressions will be interpreted by Excel and not by ruby.
An expression can comprise a single statement or two statements separated by the and and or operators. For example:
'x < 2000'
'x > 2000'
'x == 2000'
'x > 2000 and x < 5000'
'x == 2000 or x == 5000'
Filtering of blank or non-blank data can be achieved by using a value of Blanks or NonBlanks in the expression:
'x == Blanks'
'x == NonBlanks'
Top 10 style filters can be specified using a expression like the following:
Top|Bottom 1-500 Items|%
For example:
'Top 10 Items'
'Bottom 5 Items'
'Top 25 %'
'Bottom 50 %'
Excel also allows some simple string matching operations:
'x =~ b*' # begins with b
'x !~ b*' # doesn't begin with b
'x =~ *b' # ends with b
'x !~ *b' # doesn't end with b
'x =~ *b*' # contains b
'x !~ *b*' # doesn't contains b
You can also use * to match any character or number and ? to match any single character or number. No other regular expression quantifier is supported by Excel’s filters. Excel’s regular expression characters can be escaped using ~.
The placeholder variable x in the above examples can be replaced by any simple string. The actual placeholder name is ignored internally so the following are all equivalent:
'x < 2000'
'col < 2000'
'Price < 2000'
Also, note that a filter condition can only be applied to a column in a range specified by the autofilter() Worksheet method.
See the autofilter.rb program in the examples directory of the distro for a more detailed example.
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# File 'lib/writeexcel/worksheet.rb', line 1287 def filter_column(col, expression) raise "Must call autofilter() before filter_column()" if @filter_count == 0 # raise "Incorrect number of arguments to filter_column()" unless @_ == 2 # Check for a column reference in A1 notation and substitute. if col =~ /^\D/ # Convert col ref to a cell ref and then to a col number. no_use, col = substitute_cellref(col + '1') end col_first = @filter_area[2] col_last = @filter_area[3] # Reject column if it is outside filter range. if (col < col_first or col > col_last) raise "Column '#{col}' outside autofilter() column range " + "(#{col_first} .. #{col_last})"; end tokens = extract_filter_tokens(expression) unless (tokens.size == 3 or tokens.size == 7) raise "Incorrect number of tokens in expression '#{expression}'" end tokens = parse_filter_expression(expression, tokens) @filter_cols[col] = Array.new(tokens) @filter_on = 1 end |
#filter_count ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3587 def filter_count # :nodoc: @filter_count end |
#fit_to_pages(width = 0, height = 0) ⇒ Object
Store the vertical and horizontal number of pages that will define the maximum area printed. – See also _store_setup() and _store_wsbool() below. ++
The fit_to_pages() method is used to fit the printed area to a specific number of pages both vertically and horizontally. If the printed area exceeds the specified number of pages it will be scaled down to fit. This guarantees that the printed area will always appear on the specified number of pages even if the page size or margins change.
worksheet1.fit_to_pages(1, 1) # Fit to 1x1 pages
worksheet2.fit_to_pages(2, 1) # Fit to 2x1 pages
worksheet3.fit_to_pages(1, 2) # Fit to 1x2 pages
The print area can be defined using the print_area() method.
A common requirement is to fit the printed output to n pages wide but have the height be as long as necessary. To achieve this set the height to zero or leave it blank:
worksheet1.fit_to_pages(1, 0) # 1 page wide and as long as necessary
worksheet2.fit_to_pages(1) # The same
Note that although it is valid to use both fit_to_pages() and set_print _scale() on the same worksheet only one of these options can be active at a time. The last method call made will set the active option.
Note that fit_to_pages() will override any manual page breaks that are defined in the worksheet.
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# File 'lib/writeexcel/worksheet.rb', line 1935 def fit_to_pages(width = 0, height = 0) @fit_page = 1 @fit_width = width @fit_height = height end |
#freeze_panes(*args) ⇒ Object
:call-seq:
freeze_pane(row, col, top_row, left_col)
Set panes and mark them as frozen. – See also _store_panes(). ++
This method can be used to divide a worksheet into horizontal or vertical regions known as panes and to also “freeze” these panes so that the splitter bars are not visible. This is the same as the Window->Freeze Panes menu command in Excel
The parameters row and col are used to specify the location of the split. It should be noted that the split is specified at the top or left of a cell and that the method uses zero based indexing. Therefore to freeze the first row of a worksheet it is necessary to specify the split at row 2 (which is 1 as the zero-based index). This might lead you to think that you are using a 1 based index but this is not the case.
You can set one of the row and col parameters as zero if you do not want either a vertical or horizontal split.
Examples:
worksheet.freeze_panes(1, 0) # Freeze the first row
worksheet.freeze_panes('A2') # Same using A1 notation
worksheet.freeze_panes(0, 1) # Freeze the first column
worksheet.freeze_panes('B1') # Same using A1 notation
worksheet.freeze_panes(1, 2) # Freeze first row and first 2 columns
worksheet.freeze_panes('C2') # Same using A1 notation
The parameters top_row and left_col are optional. They are used to specify the top-most or left-most visible row or column in the scrolling region of the panes. For example to freeze the first row and to have the scrolling region begin at row twenty:
worksheet.freeze_panes(1, 0, 20, 0)
You cannot use A1 notation for the top_row and left_col parameters.
See also the panes.rb program in the examples directory of the distribution.
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# File 'lib/writeexcel/worksheet.rb', line 901 def freeze_panes(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end # Extra flag indicated a split and freeze. @frozen_no_split = 0 if !args[4].nil? && args[4] != 0 @frozen = 1 @panes = args end |
#hidden ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3639 def hidden # :nodoc: @hidden end |
#hidden=(val) ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3643 def hidden=(val) # :nodoc: @hidden = val end |
#hide ⇒ Object
Hide this worksheet.
The hide() method is used to hide a worksheet:
worksheet2.hide
You may wish to hide a worksheet in order to avoid confusing a user with intermediate data or calculations.
A hidden worksheet can not be activated or selected so this method is mutually exclusive with the activate() and select() methods. In addition, since the first worksheet will default to being the active worksheet, you cannot hide the first worksheet without activating another sheet:
worksheet2.activate
worksheet1.hide
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# File 'lib/writeexcel/worksheet.rb', line 410 def hide @hidden = 1 # A hidden worksheet shouldn't be active or selected. @selected = 0 @sinfo[:activesheet] = 0 @sinfo[:firstsheet] = 0 end |
#hide_gridlines(option = 1) ⇒ Object
:call-seq:
hide_gridlines(option = 1)
Set the option to hide gridlines on the screen and the printed page. – There are two ways of doing this in the Excel BIFF format: The first is by setting the DspGrid field of the WINDOW2 record, this turns off the screen and subsequently the print gridline. The second method is to via the PRINTGRIDLINES and GRIDSET records, this turns off the printed gridlines only. The first method is probably sufficient for most cases. The second method is supported for backwards compatibility. Porters take note. ++
This method is used to hide the gridlines on the screen and printed page. Gridlines are the lines that divide the cells on a worksheet. Screen and printed gridlines are turned on by default in an Excel worksheet. If you have defined your own cell borders you may wish to hide the default gridlines.
worksheet.hide_gridlines
The following values of option are valid:
0 : Don't hide gridlines
1 : Hide printed gridlines only
2 : Hide screen and printed gridlines
If you don’t supply an argument the default option is 1, i.e. only the printed gridlines are hidden.
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# File 'lib/writeexcel/worksheet.rb', line 1803 def hide_gridlines(option = 1) if option == 0 @print_gridlines = 1 # 1 = display, 0 = hide @screen_gridlines = 1 elsif option == 1 @print_gridlines = 0 @screen_gridlines = 1 else @print_gridlines = 0 @screen_gridlines = 0 end end |
#hide_zero ⇒ Object
Hide cell zero values.
The hide_zero() method is used to hide any zero values that appear in cells.
worksheet.hide_zero
In Excel this option is found under Tools->Options->View.
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# File 'lib/writeexcel/worksheet.rb', line 1118 def hide_zero @display_zeros = 1 end |
#image_mso_size ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3659 def image_mso_size # :nodoc: @image_mso_size end |
#image_mso_size=(val) ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3663 def image_mso_size=(val) # :nodoc: @image_mso_size = val end |
#images_array ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3575 def images_array # :nodoc: @images_array end |
#index ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3563 def index # :nodoc: @index end |
#index=(val) ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3567 def index=(val) # :nodoc: @index = val end |
#insert_chart(*args) ⇒ Object
insert_chart($row, $col, $chart, $x, $y, $scale_x, $scale_y) insert_chart($A1_notation, $chart, $x, $y, $scale_x, $scale_y)
Insert a chart into a worksheet. The $chart argument should be a Chart object or else it is assumed to be a filename of an external binary file. The latter is for backwards compatibility.
This method can be used to insert a Chart object into a worksheet. The Chart must be created by the add_chart() Workbook method and it must have the embedded option set.
chart = workbook.add_chart(:type => 'Chart::Line', :embedded => 1 )
# Configure the chart.
...
# Insert the chart into the a worksheet.
worksheet.insert_chart('E2', chart)
See add_chart() for details on how to create the Chart object and WriteExcel::Chart for details on how to configure it. See also the chart_*.pl programs in the examples directory of the distro.
The x, y, scale_x and scale_y parameters are optional.
The parameters x and y can be used to specify an offset from the top left hand corner of the cell specified by row and col. The offset values are in pixels. See the insert_image method above for more information on sizes.
worksheet1.insert_chart('E2', chart, 3, 3)
The parameters scale_x and scale_y can be used to scale the inserted image horizontally and vertically:
Scale the width by 120% and the height by 150%
worksheet.insert_chart('E2', chart, 0, 0, 1.2, 1.5)
The easiest way to calculate the required scaling is to create a test chart worksheet with WriteExcel. Then open the file, select the chart and drag the corner to get the required size. While holding down the mouse the scale of the resized chart is shown to the left of the formula bar.
Note: you must call set_row() or set_column() before insert_chart() if you wish to change the default dimensions of any of the rows or columns that the chart occupies. The height of a row can also change if you use a font that is larger than the default. This in turn will affect the scaling of your chart. To avoid this you should explicitly set the height of the row using set_row() if it contains a font size that will change the row height.
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# File 'lib/writeexcel/worksheet.rb', line 6048 def insert_chart(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end row = args[0] col = args[1] chart = args[2] x_offset = args[3] || 0 y_offset = args[4] || 0 scale_x = args[5] || 1 scale_y = args[6] || 1 if chart.respond_to?(:embedded) print "Not a embedded style Chart object in insert_chart()" unless chart. else # Assume an external bin filename. print "Couldn't locate #{chart} in insert_chart()" unless FileTest.exist?(chart) end @charts[row] = { col => [row, col, chart, x_offset, y_offset, scale_x, scale_y] } end |
#insert_image(*args) ⇒ Object
:call-seq:
insert_image(row, col, filename, x, y, scale_x, scale_y)
insert_image(A1_notation, filename, x, y, scale_x, scale_y)
Insert an image into the worksheet.
This method can be used to insert a image into a worksheet. The image can be in PNG, JPEG or BMP format. The x, y, scale_x and scale_y parameters are optional.
worksheet1.insert_image('A1', 'ruby.bmp')
worksheet2.insert_image('A1', '../images/ruby.bmp')
worksheet3.insert_image('A1', '.c:\images\ruby.bmp')
The parameters x and y can be used to specify an offset from the top left hand corner of the cell specified by row and col. The offset values are in pixels.
worksheet1.insert_image('A1', 'ruby.bmp', 32, 10)
The default width of a cell is 63 pixels. The default height of a cell is 17 pixels. The pixels offsets can be calculated using the following relationships:
Wp = int(12We) if We < 1
Wp = int(7We +5) if We >= 1
Hp = int(4/3He)
where:
We is the cell width in Excels units
Wp is width in pixels
He is the cell height in Excels units
Hp is height in pixels
The offsets can be greater than the width or height of the underlying cell. This can be occasionally useful if you wish to align two or more images relative to the same cell.
The parameters scale_x and scale_y can be used to scale the inserted image horizontally and vertically:
# Scale the inserted image: width x 2.0, height x 0.8
worksheet.insert_image('A1', 'ruby.bmp', 0, 0, 2, 0.8)
See also the images.rb program in the examples directory of the distro.
Note:
you must call set_row() or set_column() before insert_image() if you wish to change the default dimensions of any of the rows or columns that the image occupies. The height of a row can also change if you use a font that is larger than the default. This in turn will affect the scaling of your image. To avoid this you should explicitly set the height of the row using set_row() if it contains a font size that will change the row height.
BMP images must be 24 bit, true colour, bitmaps. In general it is best to avoid BMP images since they aren’t compressed.
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# File 'lib/writeexcel/worksheet.rb', line 6133 def insert_image(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end row = args[0] col = args[1] image = args[2] x_offset = args[3] || 0 y_offset = args[4] || 0 scale_x = args[5] || 1 scale_y = args[6] || 1 raise "Insufficient arguments in insert_image()" unless args.size >= 3 raise "Couldn't locate #{image}: $!" unless test(?e, image) @images[row] = { col => [ row, col, image, x_offset, y_offset, scale_x, scale_y] } end |
#keep_leading_zeros(val = true) ⇒ Object
Causes the write() method to treat integers with a leading zero as a string. This ensures that any leading zeros such, as in zip codes, are maintained.
This method changes the default handling of integers with leading zeros when using the write() method.
The write() method uses regular expressions to determine what type of data to write to an Excel worksheet. If the data looks like a number it writes a number using write_number(). One problem with this approach is that occasionally data looks like a number but you don’t want it treated as a number.
Zip codes and ID numbers, for example, often start with a leading zero. If you write this data as a number then the leading zero(s) will be stripped. This is the also the default behaviour when you enter data manually in Excel.
To get around this you can use one of three options. Write a formatted number, write the number as a string or use the keep_leading_zeros() method to change the default behaviour of write():
# Implicitly write a number, the leading zero is removed: 1209
worksheet.write('A1', '01209')
# Write a zero padded number using a format: 01209
my $format1 = $workbook.add_format(:num_format => '00000')
$worksheet.write('A2', '01209', format1)
# Write explicitly as a string: 01209
$worksheet.write_string('A3', '01209')
# Write implicitly as a string: 01209
$worksheet.keep_leading_zeros()
$worksheet.write('A4', '01209')
The above code would generate a worksheet that looked like the following:
-----------------------------------------------------------
| | A | B | C | D | ...
-----------------------------------------------------------
| 1 | 1209 | | | | ...
| 2 | 01209 | | | | ...
| 3 | 01209 | | | | ...
| 4 | 01209 | | | | ...
The examples are on different sides of the cells due to the fact that Excel displays strings with a left justification and numbers with a right justification by default. You can change this by using a format to justify the data, see “CELL FORMATTING”.
It should be noted that if the user edits the data in examples A3 and A4 the strings will revert back to numbers. Again this is Excel’s default behaviour. To avoid this you can use the text format @:
# Format as a string (01209)
format2 = workbook.add_format(:num_format => '@')
worksheet.write_string('A5', '01209', format2)
The keep_leading_zeros() property is off by default. The keep _leading_zeros() method takes 0 or 1 as an argument. It defaults to 1 if an argument isn’t specified:
worksheet.keep_leading_zeros() # Set on
worksheet.keep_leading_zeros(1) # Set on
worksheet.keep_leading_zeros(0) # Set off
See also the add_write_handler() method.
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# File 'lib/writeexcel/worksheet.rb', line 2265 def keep_leading_zeros(val = true) @leading_zeros = val end |
#merge_cells(*args) ⇒ Object
merge_cells($first_row, $first_col, $last_row, $last_col)
This is an Excel97/2000 method. It is required to perform more complicated merging than the normal align merge in Format.pm
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# File 'lib/writeexcel/worksheet.rb', line 5560 def merge_cells(*args) #:nodoc: # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end record = 0x00E5 # Record identifier length = 0x000A # Bytes to follow cref = 1 # Number of refs rwFirst = args[0] # First row in reference colFirst = args[1] # First col in reference rwLast = args[2] || rwFirst # Last row in reference colLast = args[3] || colFirst # Last col in reference # Excel doesn't allow a single cell to be merged return if rwFirst == rwLast and colFirst == colLast # Swap last row/col with first row/col as necessary rwFirst, rwLast = rwLast, rwFirst if rwFirst > rwLast colFirst, colLast = colLast, colFirst if colFirst > colLast store_simple(record, length, cref, rwFirst, rwLast, colFirst, colLast) end |
#merge_range(*args) ⇒ Object
:call-seq:
merge_range(first_row, first_col, last_row, last_col, token, format, utf_16_be)
This is a wrapper to ensure correct use of the merge_cells method, i.e., write the first cell of the range, write the formatted blank cells in the range and then call the merge_cells record. Failing to do the steps in this order will cause Excel 97 to crash.
Merging cells can be achieved by setting the merge property of a Format object, see “CELL FORMATTING”. However, this only allows simple Excel5 style horizontal merging which Excel refers to as “center across selection”.
The merge_range() method allows you to do Excel97+ style formatting where the cells can contain other types of alignment in addition to the merging:
format = workbook.add_format(
:border => 6,
:valign => 'vcenter',
:align => 'center'
)
worksheet.merge_range('B3:D4', 'Vertical and horizontal', format)
WARNING. The format object that is used with a merge_range() method call is marked internally as being associated with a merged range. It is a fatal error to use a merged format in a non-merged cell. Instead you should use separate formats for merged and non-merged cells. This restriction will be removed in a future release.
The utf_16_be parameter is optional, see below.
merge_range() writes its token argument using the worksheet write() method. Therefore it will handle numbers, strings, formulas or urls as required.
Setting the merge property of the format isn’t required when you are using merge_range(). In fact using it will exclude the use of any other horizontal alignment option.
Your can specify UTF-16BE worksheet names using an additional optional parameter:
str = [0x263a].pack('n')
worksheet.merge_range('B3:D4', str, format, 1) # Smiley
The full possibilities of this method are shown in the merge3.rb to merge65.rb programs in the examples directory of the distribution.
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# File 'lib/writeexcel/worksheet.rb', line 1013 def merge_range(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end raise "Incorrect number of arguments" if args.size != 6 and args.size != 7 raise "Format argument is not a format object" unless args[5].respond_to?(:xf_index) rwFirst = args[0] colFirst = args[1] rwLast = args[2] colLast = args[3] string = args[4] format = args[5] encoding = args[6] ? 1 : 0 # Temp code to prevent merged formats in non-merged cells. error = "Error: refer to merge_range() in the documentation. " + "Can't use previously non-merged format in merged cells" raise error if format.used_merge == -1 format.used_merge = 0 # Until the end of this function. # Set the merge_range property of the format object. For BIFF8+. format.set_merge_range # Excel doesn't allow a single cell to be merged raise "Can't merge single cell" if rwFirst == rwLast and colFirst == colLast # Swap last row/col with first row/col as necessary rwFirst, rwLast = rwLast, rwFirst if rwFirst > rwLast colFirst, colLast = colLast, colFirst if colFirst > colLast # Write the first cell if encoding != 0 write_utf16be_string(rwFirst, colFirst, string, format) else write(rwFirst, colFirst, string, format) end # Pad out the rest of the area with formatted blank cells. (rwFirst .. rwLast).each do |row| (colFirst .. colLast).each do |col| next if row == rwFirst and col == colFirst write_blank(row, col, format) end end merge_cells(rwFirst, colFirst, rwLast, colLast) # Temp code to prevent merged formats in non-merged cells. format.used_merge = 1 end |
#name ⇒ Object
The name() method is used to retrieve the name of a worksheet. For example:
workbook.sheets.each do |sheet|
print sheet.name
end
For reasons related to the design of WriteExcel and to the internals of Excel there is no set_name() method. The only way to set the worksheet name is via the add_worksheet() method.
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# File 'lib/writeexcel/worksheet.rb', line 340 def name @name end |
#num_images ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3651 def num_images # :nodoc: @num_images end |
#num_images=(val) ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3655 def num_images=(val) # :nodoc: @num_images = val end |
#object_ids=(val) ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3647 def object_ids=(val) # :nodoc: @object_ids = val end |
#offset ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3623 def offset # :nodoc: @offset end |
#offset=(val) ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3627 def offset=(val) # :nodoc: @offset = val end |
#outline_settings(*args) ⇒ Object
:call-seq:
outline_settings(visible, symbols_below, symbols_right, auto_style)
This method sets the properties for outlining and grouping. The defaults correspond to Excel’s defaults.
The outline_settings() method is used to control the appearance of outlines in Excel. Outlines are described in “OUTLINES AND GROUPING IN EXCEL”.
The visible parameter is used to control whether or not outlines are visible. Setting this parameter to 0 will cause all outlines on the worksheet to be hidden. They can be unhidden in Excel by means of the “Show Outline Symbols” command button. The default setting is 1 for visible outlines.
worksheet.outline_settings(0)
The _symbols__below parameter is used to control whether the row outline symbol will appear above or below the outline level bar. The default setting is 1 for symbols to appear below the outline level bar.
The symbols_right parameter is used to control whether the column outline symbol will appear to the left or the right of the outline level bar. The default setting is 1 for symbols to appear to the right of the outline level bar.
The auto_style parameter is used to control whether the automatic outline generator in Excel uses automatic styles when creating an outline. This has no effect on a file generated by WriteExcel but it does have an effect on how the worksheet behaves after it is created. The default setting is 0 for “Automatic Styles” to be turned off.
The default settings for all of these parameters correspond to Excel’s default parameters.
The worksheet parameters controlled by outline_settings() are rarely used.
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# File 'lib/writeexcel/worksheet.rb', line 847 def outline_settings(*args) @outline_on = args[0] || 1 @outline_below = args[1] || 1 @outline_right = args[2] || 1 @outline_style = args[3] || 0 # Ensure this is a boolean vale for Window2 @outline_on = 1 if @outline_on == 0 end |
#pack_dv_formula(formula = nil) ⇒ Object
_pack_dv_formula()
Pack the formula used in the DV record. This is the same as an cell formula with some additional header information. Note, DV formulas in Excel use relative addressing (R1C1 and ptgXxxN) however we use the Formula.pm’s default absolute addressing (A1 and ptgXxx).
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# File 'lib/writeexcel/worksheet.rb', line 8843 def pack_dv_formula(formula = nil) #:nodoc: encoding = 0 length = 0 unused = 0x0000 tokens = [] # Return a default structure for unused formulas. if formula.nil? || formula == '' return [0, unused].pack('vv') end # Pack a list array ref as a null separated string. if formula.respond_to?(:to_ary) formula = formula.join("\0") formula = '"' + formula + '"' end # Strip the = sign at the beginning of the formula string formula = formula.to_s unless formula.respond_to?(:to_str) formula.sub!(/^=/, '') # Parse the formula using the parser in Formula.pm parser = @parser # In order to raise formula errors from the point of view of the calling # program we use an eval block and re-raise the error from here. # tokens = parser.parse_formula(formula) # ???? # if ($@) { # $@ =~ s/\n$//; # Strip the \n used in the Formula.pm die() # croak $@; # Re-raise the error # } # else { # # TODO test for non valid ptgs such as Sheet2!A1 # } # Force 2d ranges to be a reference class. tokens.each do |t| t.sub!(/_range2d/, "_range2dR") t.sub!(/_name/, "_nameR") end # Parse the tokens into a formula string. formula = parser.parse_tokens(tokens) [formula.length, unused].pack('vv') + formula end |
#pack_dv_string(string = nil, max_length = 0) ⇒ Object
_pack_dv_string()
Pack the strings used in the input and error dialog captions and messages. Captions are limited to 32 characters. Messages are limited to 255 chars.
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# File 'lib/writeexcel/worksheet.rb', line 8794 def pack_dv_string(string = nil, max_length = 0) #:nodoc: str_length = 0 encoding = 0 # The default empty string is "\0". if string.nil? || string == '' string = ruby_18 { "\0" } || ruby_19 { "\0".encode('BINARY') } end # Excel limits DV captions to 32 chars and messages to 255. if string.bytesize > max_length string = string[0 .. max_length-1] end str_length = string.bytesize ruby_19 { string = convert_to_ascii_if_ascii(string) } # Handle utf8 strings ruby_18 do if string =~ NonAscii str_length = string.gsub(/[^\Wa-zA-Z_\d]/, ' ').bytesize # jlength string = utf8_to_16le(string) encoding = 1 end end ruby_19 do if string.encoding == Encoding::UTF_8 str_length = string.gsub(/[^\Wa-zA-Z_\d]/, ' ').bytesize # jlength string = utf8_to_16le(string) encoding = 1 end end ruby_18 { [str_length, encoding].pack('vC') + string } || ruby_19 { [str_length, encoding].pack('vC') + string.force_encoding('BINARY') } end |
#parse_filter_expression(expression, tokens) ⇒ Object
_parse_filter_expression(expression, @token)
Converts the tokens of a possibly conditional expression into 1 or 2 sub expressions for further parsing.
Examples:
('x', '==', 2000) -> exp1
('x', '>', 2000, 'and', 'x', '<', 5000) -> exp1 and exp2
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# File 'lib/writeexcel/worksheet.rb', line 2080 def parse_filter_expression(expression, tokens) #:nodoc: # The number of tokens will be either 3 (for 1 expression) # or 7 (for 2 expressions). # if (tokens.size == 7) conditional = tokens[3] if conditional =~ /^(and|&&)$/ conditional = 0 elsif conditional =~ /^(or|\|\|)$/ conditional = 1 else raise "Token '#{conditional}' is not a valid conditional " + "in filter expression '#{expression}'" end expression_1 = parse_filter_tokens(expression, tokens[0..2]) expression_2 = parse_filter_tokens(expression, tokens[4..6]) [expression_1, conditional, expression_2].flatten else parse_filter_tokens(expression, tokens) end end |
#position_object(col_start, row_start, x1, y1, width, height) ⇒ Object
_position_object()
Calculate the vertices that define the position of a graphical object within the worksheet.
+------------+------------+
| A | B |
+-----+------------+------------+
| |(x1,y1) | |
| 1 |(A1)._______|______ |
| | | | |
| | | | |
+-----+----| BITMAP |-----+
| | | | |
| 2 | |______________. |
| | | (B2)|
| | | (x2,y2)|
+---- +------------+------------+
Example of a bitmap that covers some of the area from cell A1 to cell B2.
Based on the width and height of the bitmap we need to calculate 8 vars:
$col_start, $row_start, $col_end, $row_end, $x1, $y1, $x2, $y2.
The width and height of the cells are also variable and have to be taken into account. The values of $col_start and $row_start are passed in from the calling function. The values of $col_end and $row_end are calculated by subtracting the width and height of the bitmap from the width and height of the underlying cells. The vertices are expressed as a percentage of the underlying cell width as follows (rhs values are in pixels):
x1 = X / W *1024
y1 = Y / H *256
x2 = (X-1) / W *1024
y2 = (Y-1) / H *256
Where: X is distance from the left side of the underlying cell
Y is distance from the top of the underlying cell
W is the width of the cell
H is the height of the cell
Note: the SDK incorrectly states that the height should be expressed as a percentage of 1024.
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# File 'lib/writeexcel/worksheet.rb', line 6207 def position_object(col_start, row_start, x1, y1, width, height) #:nodoc: # col_start; # Col containing upper left corner of object # x1; # Distance to left side of object # row_start; # Row containing top left corner of object # y1; # Distance to top of object # col_end; # Col containing lower right corner of object # x2; # Distance to right side of object # row_end; # Row containing bottom right corner of object # y2; # Distance to bottom of object # width; # Width of image frame # height; # Height of image frame # Adjust start column for offsets that are greater than the col width x1, col_start = adjust_col_position(x1, col_start) # Adjust start row for offsets that are greater than the row height y1, row_start = adjust_row_position(y1, row_start) # Initialise end cell to the same as the start cell col_end = col_start row_end = row_start width += x1 height += y1 # Subtract the underlying cell widths to find the end cell of the image width, col_end = adjust_col_position(width, col_end) # Subtract the underlying cell heights to find the end cell of the image height, row_end = adjust_row_position(height, row_end) # Bitmap isn't allowed to start or finish in a hidden cell, i.e. a cell # with zero eight or width. # return if size_col(col_start) == 0 return if size_col(col_end) == 0 return if size_row(row_start) == 0 return if size_row(row_end) == 0 # Convert the pixel values to the percentage value expected by Excel x1 = 1024.0 * x1 / size_col(col_start) y1 = 256.0 * y1 / size_row(row_start) x2 = 1024.0 * width / size_col(col_end) y2 = 256.0 * height / size_row(row_end) # Simulate ceil() without calling POSIX::ceil(). x1 = (x1 +0.5).to_i y1 = (y1 +0.5).to_i x2 = (x2 +0.5).to_i y2 = (y2 +0.5).to_i [ col_start, x1, row_start, y1, col_end, x2, row_end, y2 ] end |
#prepare_charts ⇒ Object
_prepare_charts()
Turn the HoH that stores the charts into an array for easier handling.
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# File 'lib/writeexcel/worksheet.rb', line 6730 def prepare_charts #:nodoc: prepare_common(:charts) end |
#prepare_comments ⇒ Object
_prepare_comments()
Turn the HoH that stores the comments into an array for easier handling.
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# File 'lib/writeexcel/worksheet.rb', line 6719 def prepare_comments #:nodoc: prepare_common(:comments) end |
#prepare_images ⇒ Object
_prepare_images()
Turn the HoH that stores the images into an array for easier handling.
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# File 'lib/writeexcel/worksheet.rb', line 6708 def prepare_images #:nodoc: prepare_common(:images) end |
#print_across ⇒ Object
Set the order in which pages are printed.
The print_across method is used to change the default print direction. This is referred to by Excel as the sheet “page order”.
worksheet.print_across
The default page order is shown below for a worksheet that extends over 4 pages. The order is called “down then across”:
[1] [3]
[2] [4]
However, by using the print_across method the print order will be changed to “across then down”:
[1] [2]
[3] [4]
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# File 'lib/writeexcel/worksheet.rb', line 1898 def print_across @page_order = 1 end |
#print_area(*args) ⇒ Object
:call-seq:
print_area(first_row, first_col, last_row, last_col)
print_area(A1_notation)
Set the area of each worksheet that will be printed. – See also the_store_names() methods in Workbook.rb. ++
This method is used to specify the area of the worksheet that will be printed. All four parameters must be specified. You can also use A1 notation, see the note about “Cell notation”.
worksheet1.print_area('A1:H20') # Cells A1 to H20
worksheet2.print_area(0, 0, 19, 7) # The same
worksheet2.print_area('A:H') # Columns A to H if rows have data
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# File 'lib/writeexcel/worksheet.rb', line 1867 def print_area(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end return if args.size != 4 # Require 4 parameters @print_rowmin, @print_colmin, @print_rowmax, @print_colmax = args end |
#print_colmax ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3619 def print_colmax # :nodoc: @print_colmax end |
#print_colmin ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3615 def print_colmin # :nodoc: @print_colmin end |
#print_row_col_headers(option = nil) ⇒ Object
Set the option to print the row and column headers on the printed page. See also the _store_print_headers() method.
An Excel worksheet looks something like the following;
------------------------------------------
| | A | B | C | D | ...
------------------------------------------
| 1 | | | | | ...
| 2 | | | | | ...
| 3 | | | | | ...
| 4 | | | | | ...
|...| ... | ... | ... | ... | ...
The headers are the letters and numbers at the top and the left of the worksheet. Since these headers serve mainly as a indication of position on the worksheet they generally do not appear on the printed page. If you wish to have them printed you can use the print_row_col_headers() method :
worksheet.print_row_col_headers
Do not confuse these headers with page headers as described in the set_header() section.
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# File 'lib/writeexcel/worksheet.rb', line 1841 def print_row_col_headers(option = nil) if option.nil? @print_headers = 1 else @print_headers = option end end |
#print_rowmax ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3611 def print_rowmax # :nodoc: @print_rowmax end |
#print_rowmin ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3607 def print_rowmin # :nodoc: @print_rowmin end |
#protect(password = nil) ⇒ Object
Set the worksheet protection flag to prevent accidental modification and to hide formulas if the locked and hidden format properties have been set.
The protect() method is used to protect a worksheet from modification:
worksheet.protect
It can be turned off in Excel via the Tools->Protection->Unprotect Sheet menu command.
The protect() method also has the effect of enabling a cell’s locked and hidden properties if they have been set. A “locked” cell cannot be edited. A “hidden” cell will display the results of a formula but not the formula itself. In Excel a cell’s locked property is on by default.
# Set some format properties
unlocked = workbook.add_format(:locked => 0)
hidden = workbook.add_format(:hidden => 1)
# Enable worksheet protection
worksheet.protect
# This cell cannot be edited, it is locked by default
worksheet.write('A1', '=1+2')
# This cell can be edited
worksheet.write('A2', '=1+2', unlocked)
# The formula in this cell isn't visible
worksheet.write('A3', '=1+2', hidden)
See also the set_locked and set_hidden format methods in “CELL FORMATTING”.
You can optionally add a password to the worksheet protection:
worksheet.protect('drowssap')
Note,
the worksheet level password in Excel provides very weak protection. It
does not encrypt your data in any way and it is very easy to deactivate. Therefore, do not use the above method if you wish to protect sensitive data or calculations. However, before you get worried, Excel’s own workbook level password protection does provide strong encryption in Excel 97+. For technical reasons this will never be supported by WriteExcel.
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# File 'lib/writeexcel/worksheet.rb', line 495 def protect(password = nil) @protect = 1 @password = encode_password(password) unless password.nil? end |
#repeat_columns(*args) ⇒ Object
:call-seq:
repeat_columns(first_col[, last_col])
repeat_columns(A1_notation)
Set the columns to repeat at the left hand side of each printed page. – See also the _store_names() methods in Workbook.pm. ++
For large Excel documents it is often desirable to have the first column or columns of the worksheet print out at the left hand side of each page. This can be achieved by using the repeat_columns() method. The parameters first_column and last_column are zero based. The last_column parameter is optional if you only wish to specify one column. You can also specify the columns using A1 column notation, see the note about “Cell notation”.
worksheet1.repeat_columns(0) # Repeat the first column
worksheet2.repeat_columns(0, 1) # Repeat the first two columns
worksheet3.repeat_columns('A:A') # Repeat the first column
worksheet4.repeat_columns('A:B') # Repeat the first two columns
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# File 'lib/writeexcel/worksheet.rb', line 1758 def repeat_columns(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) # Returned values $row1 and $row2 aren't required here. Remove them. args.shift # $row1 args.delete_at(1) # $row2 end @title_colmin = args[0] @title_colmax = args[1] || args[0] # Second col is optional end |
#repeat_formula(*args) ⇒ Object
:call-seq:
repeat_formula(row, col, formula, format, ([:pattern => replace, ...]) -> Fixnum
repeat_formula(A1_notation, formula, format, ([:pattern => replace, ...]) -> Fixnum
Write a formula to the specified row and column (zero indexed) by substituting pattern replacement pairs in the formula created via store_formula(). This allows the user to repetitively rewrite a formula without the significant overhead of parsing.
Returns 0 : normal termination
-1 : insufficient number of arguments
-2 : row or column out of range
The repeat_formula() method is used in conjunction with store_formula() to speed up the generation of repeated formulas. See “Improving performance when working with formulas” in “FORMULAS AND FUNCTIONS IN EXCEL”.
In many respects repeat_formula() behaves like write_formula() except that it is significantly faster.
The repeat_formula() method creates a new formula based on the pre-parsed tokens returned by store_formula(). The new formula is generated by substituting pattern, replace pairs in the stored formula:
formula = worksheet.store_formula('=A1 * 3 + 50')
(0...100).each do |row|
worksheet.repeat_formula(row, 1, formula, format, 'A1', 'A'.(row +1))
end
It should be noted that repeat_formula() doesn’t modify the tokens. In the above example the substitution is always made against the original token, A1, which doesn’t change.
As usual, you can use undef if you don’t wish to specify a format:
worksheet.repeat_formula('B2', formula, format, 'A1', 'A2')
worksheet.repeat_formula('B3', formula, nil, 'A1', 'A3')
The substitutions are made from left to right and you can use as many pattern, replace pairs as you need. However, each substitution is made only once:
formula = worksheet.store_formula('=A1 + A1')
# Gives '=B1 + A1'
worksheet.repeat_formula('B1', formula, undef, 'A1', 'B1')
# Gives '=B1 + B1'
worksheet.repeat_formula('B2', formula, undef, ('A1', 'B1') x 2)
Since the pattern is interpolated each time that it is used it is worth using the qr operator to quote the pattern. The qr operator is explained in the perlop man page.
worksheet.repeat_formula('B1', formula, format, qr/A1/, 'A2')
Care should be taken with the values that are substituted. The formula returned by repeat_formula() contains several other tokens in addition to those in the formula and these might also match the pattern that you are trying to replace. In particular you should avoid substituting a single 0, 1, 2 or 3.
You should also be careful to avoid false matches. For example the following snippet is meant to change the stored formula in steps from =A1 + SIN(A1) to =A10 + SIN(A10).
formula = worksheet.store_formula('=A1 + SIN(A1)')
(1..10).each do |row|
worksheet.repeat_formula(row -1, 1, formula, nil,
qw/A1/, 'A' . row, #! Bad.
qw/A1/, 'A' . row #! Bad.
)
end
However it contains a bug. In the last iteration of the loop when row is 10 the following substitutions will occur:
s/A1/A10/; changes =A1 + SIN(A1) to =A10 + SIN(A1)
s/A1/A10/; changes =A10 + SIN(A1) to =A100 + SIN(A1) # !!
The solution in this case is to use a more explicit match such as qw/^A1$/:
worksheet.repeat_formula(row -1, 1, formula, nil,
qw/^A1$/, 'A' . row,
qw/^A1$/, 'A' . row
)
Another similar problem occurs due to the fact that substitutions are made in order. For example the following snippet is meant to change the stored formula from =A10 + A11 to =A11 + A12:
formula = worksheet.store_formula('=A10 + A11')
worksheet.repeat_formula('A1', formula, nil,
qw/A10/, 'A11', #! Bad.
qw/A11/, 'A12' #! Bad.
)
However, the actual substitution yields =A12 + A11:
s/A10/A11/; changes =A10 + A11 to =A11 + A11
s/A11/A12/; changes =A11 + A11 to =A12 + A11 # !!
The solution here would be to reverse the order of the substitutions or to start with a stored formula that won’t yield a false match such as =X10 + Y11:
formula = worksheet.store_formula('=X10 + Y11')
worksheet.repeat_formula('A1', formula, nil,
qw/X10/, 'A11',
qw/Y11/, 'A12'
)
If you think that you have a problem related to a false match you can check the tokens that you are substituting against as follows.
formula = worksheet.store_formula('=A1*5+4')
print "#{formula}\n"
See also the repeat.rb program in the examples directory of the distro.
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# File 'lib/writeexcel/worksheet.rb', line 4077 def repeat_formula(*args) #:nodoc: # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(args) end return -1 if (args.size < 2) # Check the number of args row = args.shift # Zero indexed row col = args.shift # Zero indexed column formula_ref = args.shift # Array ref with formula tokens format = args.shift # XF format pairs = args # Pattern/replacement pairs # Enforce an even number of arguments in the pattern/replacement list raise "Odd number of elements in pattern/replacement list" if pairs.size % 2 != 0 # Check that formula is an array ref raise "Not a valid formula" unless formula_ref.respond_to?(:to_ary) tokens = formula_ref.join("\t").split("\t") # Ensure that there are tokens to substitute raise "No tokens in formula" if tokens.empty? # As a temporary and undocumented measure we allow the user to specify the # result of the formula by appending a result => value pair to the end # of the arguments. value = nil if pairs[-2] == 'result' value = pairs.pop pairs.pop end while (!pairs.empty?) pattern = pairs.shift replace = pairs.shift tokens.each do |token| break if token.sub!(pattern, replace) end end # Change the parameters in the formula cached by the Formula.pm object formula = @parser.parse_tokens(tokens) raise "Unrecognised token in formula" unless formula xf = xf_record_index(row, col, format) # The cell format # Check that row and col are valid and store max and min values return -2 if check_dimensions(row, col) != 0 store_formula_common(row, col, xf, value, formula) 0 end |
#repeat_rows(first_row, last_row = nil) ⇒ Object
Set the rows to repeat at the top of each printed page. – See also the _store_name_xxxx() methods in Workbook.rb. ++
Set the number of rows to repeat at the top of each printed page.
For large Excel documents it is often desirable to have the first row or rows of the worksheet print out at the top of each page. This can be achieved by using the repeat_rows() method. The parameters first_row and last_row are zero based. The last_row parameter is optional if you only wish to specify one row:
worksheet1.repeat_rows(0) # Repeat the first row
worksheet2.repeat_rows(0, 1) # Repeat the first two rows
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# File 'lib/writeexcel/worksheet.rb', line 1730 def repeat_rows(first_row, last_row = nil) @title_rowmin = first_row @title_rowmax = last_row || first_row # Second row is optional end |
#right_to_left ⇒ Object
Display the worksheet right to left for some eastern versions of Excel.
The right_to_left() method is used to change the default direction of the worksheet from left-to-right, with the A1 cell in the top left, to right-to-left, with the he A1 cell in the top right.
worksheet.right_to_left
This is useful when creating Arabic, Hebrew or other near or far eastern worksheets that use right-to-left as the default direction.
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# File 'lib/writeexcel/worksheet.rb', line 1104 def right_to_left @display_arabic = 1 end |
#select ⇒ Object
Set this worksheet as a selected worksheet, i.e. the worksheet has its tab highlighted.
The select() method is used to indicate that a worksheet is selected in a multi-sheet workbook:
worksheet1.activate
worksheet2.select
worksheet3.select
A selected worksheet has its tab highlighted. Selecting worksheets is a way of grouping them together so that, for example, several worksheets could be printed in one go. A worksheet that has been activated via the activate() method will also appear as selected.
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# File 'lib/writeexcel/worksheet.rb', line 360 def select @hidden = 0 # Selected worksheet can't be hidden. @selected = 1 end |
#selected ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3631 def selected # :nodoc: @selected end |
#selected=(val) ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3635 def selected=(val) # :nodoc: @selected = val end |
#set_column(*args) ⇒ Object
:call-seq:
set_column(first_col, last_col, width, format, hidden, level, collapsed)
set_column(A1_notation, width, format, hidden, level, collapsed)
Set the width of a single column or a range of columns. – See also: _store_colinfo ++
This method can be used to change the default properties of a single column or a range of columns. All parameters apart from first_col and last_col are optional.
If set_column() is applied to a single column the value of first_col and last_col should be the same. In the case where last_col is zero it is set to the same value as first_col.
It is also possible, and generally clearer, to specify a column range using the form of A1 notation used for columns. See the note about “Cell notation”.
Examples:
worksheet.set_column(0, 0, 20) # Column A width set to 20
worksheet.set_column(1, 3, 30) # Columns B-D width set to 30
worksheet.set_column('E:E', 20) # Column E width set to 20
worksheet.set_column('F:H', 30) # Columns F-H width set to 30
The width corresponds to the column width value that is specified in Excel. It is approximately equal to the length of a string in the default font of Arial 10. Unfortunately, there is no way to specify “AutoFit” for a column in the Excel file format. This feature is only available at runtime from within Excel.
As usual the format parameter is optional, for additional information, see “CELL FORMATTING”. If you wish to set the format without changing the width you can pass undef as the width parameter:
worksheet.set_column(0, 0, nil, format)
The format parameter will be applied to any cells in the column that don’t have a format. For example
worksheet.set_column('A:A', nil, format1) # Set format for col 1
worksheet.write('A1', 'Hello') # Defaults to format1
worksheet.write('A2', 'Hello', format2) # Keeps format2
If you wish to define a column format in this way you should call the method before any calls to write(). If you call it afterwards it won’t have any effect.
A default row format takes precedence over a default column format
worksheet.set_row(0, nil, format1) # Set format for row 1
worksheet.set_column('A:A', nil, format2) # Set format for col 1
worksheet.write('A1', 'Hello') # Defaults to format1
worksheet.write('A2', 'Hello') # Defaults to format2
The hidden parameter should be set to 1 if you wish to hide a column. This can be used, for example, to hide intermediary steps in a complicated calculation:
worksheet.set_column('D:D', 20, format, 1)
worksheet.set_column('E:E', nil, nil, 1)
The level parameter is used to set the outline level of the column. Outlines are described in “OUTLINES AND GROUPING IN EXCEL”. Adjacent columns with the same outline level are grouped together into a single outline.
The following example sets an outline level of 1 for columns B to G:
worksheet.set_column('B:G', nil, nil, 0, 1)
The hidden parameter can also be used to hide collapsed outlined columns when used in conjunction with the level parameter.
worksheet.set_column('B:G', nil, nil, 1, 1)
For collapsed outlines you should also indicate which row has the collapsed + symbol using the optional collapsed parameter.
worksheet.set_column('H:H', nil, nil, 0, 0, 1)
For a more complete example see the outline.pl and outline_collapsed.rb programs in the examples directory of the distro.
Excel allows up to 7 outline levels. Therefore the level parameter should be in the range 0 <= $level <= 7.
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# File 'lib/writeexcel/worksheet.rb', line 729 def set_column(*args) data = args cell = data[0] # Check for a cell reference in A1 notation and substitute row and column if cell =~ /^\D/ data = substitute_cellref(*args) # Returned values $row1 and $row2 aren't required here. Remove them. data.shift # $row1 data.delete_at(1) # $row2 end return if data.size < 3 # Ensure at least $firstcol, $lastcol and $width return if data[0].nil? # Columns must be defined. return if data[1].nil? # Assume second column is the same as first if 0. Avoids KB918419 bug. data[1] = data[0] if data[1] == 0 # Ensure 2nd col is larger than first. Also for KB918419 bug. data[0], data[1] = data[1], data[0] if data[0] > data[1] # Limit columns to Excel max of 255. data[0] = ColMax - 1 if data[0] > ColMax - 1 data[1] = ColMax - 1 if data[1] > ColMax - 1 @colinfo.push(data) # Store the col sizes for use when calculating image vertices taking # hidden columns into account. Also store the column formats. # firstcol, lastcol, width, format, hidden = data width ||= 0 # Ensure width isn't undef. hidden ||= 0 width = 0 if hidden > 1 # Set width to zero if col is hidden (firstcol .. lastcol).each do |col| @col_sizes[col] = width @col_formats[col] = format unless format.nil? end end |
#set_comments_author(author = '', author_enc = 0) ⇒ Object
set_comments_author()
Set the default author of the cell comments.
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# File 'lib/writeexcel/worksheet.rb', line 2299 def ( = '', = 0) @comments_author = @comments_author_enc = end |
#set_first_row_column(row = 0, col = 0) ⇒ Object
set_first_row_column()
Set the topmost and leftmost visible row and column. TODO: Document this when tested fully for interaction with panes.
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# File 'lib/writeexcel/worksheet.rb', line 2324 def set_first_row_column(row = 0, col = 0) row = RowMax - 1 if row > RowMax - 1 col = ColMax - 1 if col > ColMax - 1 @first_row = row @first_col = col end |
#set_first_sheet ⇒ Object
Set this worksheet as the first visible sheet. This is necessary when there are a large number of worksheets and the activated worksheet is not visible on the screen.
The activate() method determines which worksheet is initially selected. However, if there are a large number of worksheets the selected worksheet may not appear on the screen. To avoid this you can select which is the leftmost visible worksheet using set_first_sheet
20.times { workbook.add_worksheet }
worksheet21 = workbook.add_worksheet
worksheet22 = workbook.add_worksheet
worksheet21.set_first_sheet
worksheet22.activate
This method is not required very often. The default value is the first worksheet.
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# File 'lib/writeexcel/worksheet.rb', line 441 def set_first_sheet @hidden = 0 # Active worksheet can't be hidden. set_firstsheet(@index) end |
#set_footer(string = '', margin = 0.50, encoding = 0) ⇒ Object
Set the page footer caption and optional margin.
The syntax of the set_footer() method is the same as set_header(), see there.
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# File 'lib/writeexcel/worksheet.rb', line 1673 def (string = '', margin = 0.50, encoding = 0) (:footer, string, margin, encoding) end |
#set_h_pagebreaks(breaks) ⇒ Object
Store the horizontal page breaks on a worksheet. breaks is Fixnum or Array of Fixnum.
Add horizontal page breaks to a worksheet. A page break causes all the data that follows it to be printed on the next page. Horizontal page breaks act between rows. To create a page break between rows 20 and 21 you must specify the break at row 21. However in zero index notation this is actually row 20. So you can pretend for a small while that you are using 1 index notation:
worksheet1.set_h_pagebreaks(20) # Break between row 20 and 21
The set_h_pagebreaks() method will accept a array of page breaks and you can call it more than once:
worksheet2.set_h_pagebreaks([ 20, 40, 60, 80, 100]) # Add breaks
worksheet2.set_h_pagebreaks([120, 140, 160, 180, 200]) # Add some more
Note: If you specify the “fit to page” option via the fit_to_pages() method it will override all manual page breaks.
There is a silent limitation of about 1000 horizontal page breaks per worksheet in line with an Excel internal limitation.
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# File 'lib/writeexcel/worksheet.rb', line 1995 def set_h_pagebreaks(breaks) @hbreaks += breaks.respond_to?(:to_ary) ? breaks : [breaks] end |
#set_header(string = '', margin = 0.50, encoding = 0) ⇒ Object
Set the page header caption and optional margin.
Headers and footers are generated using a string which is a combination of plain text and control characters. The margin parameter is optional.
The available control character are:
Control Category Description
======= ======== ===========
&L Justification Left
&C Center
&R Right
&P Information Page number
&N Total number of pages
&D Date
&T Time
&F File name
&A Worksheet name
&Z Workbook path
&fontsize Font Font size
&"font,style" Font name and style
&U Single underline
&E Double underline
&S Strikethrough
&X Superscript
&Y Subscript
&& Miscellaneous Literal ampersand &
Text in headers and footers can be justified (aligned) to the left, center and right by prefixing the text with the control characters &L, &C and &R.
For example (with ASCII art representation of the results):
worksheet.set_header('&LHello')
---------------------------------------------------------------
| |
| Hello |
| |
worksheet.set_header('&CHello')
---------------------------------------------------------------
| |
| Hello |
| |
worksheet.set_header('&RHello')
---------------------------------------------------------------
| |
| Hello |
| |
For simple text, if you do not specify any justification the text will be centred. However, you must prefix the text with &C if you specify a font name or any other formatting:
worksheet.set_header('Hello')
---------------------------------------------------------------
| |
| Hello |
| |
You can have text in each of the justification regions:
worksheet.set_header('&LCiao&CBello&RCielo')
---------------------------------------------------------------
| |
| Ciao Bello Cielo |
| |
The information control characters act as variables that Excel will update as the workbook or worksheet changes. Times and dates are in the users default format:
worksheet.set_header('&CPage &P of &N')
---------------------------------------------------------------
| |
| Page 1 of 6 |
| |
worksheet.set_header('&CUpdated at &T')
---------------------------------------------------------------
| |
| Updated at 12:30 PM |
| |
You can specify the font size of a section of the text by prefixing it with the control character &n where n is the font size:
worksheet1.set_header('&C&30Hello Big' )
worksheet2.set_header('&C&10Hello Small')
You can specify the font of a section of the text by prefixing it with the control sequence &“font,style” where fontname is a font name such as “Courier New” or “Times New Roman” and style is one of the standard Windows font descriptions: “Regular”, “Italic”, “Bold” or “Bold Italic”:
worksheet1.set_header('&C&"Courier New,Italic"Hello')
worksheet2.set_header('&C&"Courier New,Bold Italic"Hello')
worksheet3.set_header('&C&"Times New Roman,Regular"Hello')
It is possible to combine all of these features together to create sophisticated headers and footers. As an aid to setting up complicated headers and footers you can record a page set-up as a macro in Excel and look at the format strings that VBA produces. Remember however that VBA uses two double quotes “” to indicate a single double quote. For the last example above the equivalent VBA code looks like this:
.LeftHeader = ""
.CenterHeader = "&""Times New Roman,Regular""Hello"
.RightHeader = ""
To include a single literal ampersand & in a header or footer you should use a double ampersand &&:
worksheet1.set_header('&CCuriouser && Curiouser - Attorneys at Law')
As stated above the margin parameter is optional. As with the other margins the value should be in inches. The default header and footer margin is 0.50 inch. The header and footer margin size can be set as follows:
worksheet.set_header('&CHello', 0.75)
The header and footer margins are independent of the top and bottom margins.
Note, the header or footer string must be less than 255 characters. Strings longer than this will not be written and a warning will be generated.
worksheet.set_header("&C\x{263a}")
See, also the headers.rb program in the examples directory of the distribution.
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# File 'lib/writeexcel/worksheet.rb', line 1663 def set_header(string = '', margin = 0.50, encoding = 0) (:header, string, margin, encoding) end |
#set_landscape ⇒ Object
Set the page orientation as landscape.
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# File 'lib/writeexcel/worksheet.rb', line 1333 def set_landscape @orientation = 0 end |
#set_margin_bottom(margin = 1.00) ⇒ Object
set_margin_bottom()
Set the bottom margin in inches.
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# File 'lib/writeexcel/worksheet.rb', line 1513 def set_margin_bottom(margin = 1.00) @margin_bottom = margin end |
#set_margin_left(margin = 0.75) ⇒ Object
set_margin_left()
Set the left margin in inches.
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# File 'lib/writeexcel/worksheet.rb', line 1482 def set_margin_left(margin = 0.75) @margin_left = margin end |
#set_margin_right(margin = 0.75) ⇒ Object
set_margin_right()
Set the right margin in inches.
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# File 'lib/writeexcel/worksheet.rb', line 1493 def set_margin_right(margin = 0.75) @margin_right = margin end |
#set_margin_top(margin = 1.00) ⇒ Object
set_margin_top()
Set the top margin in inches.
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# File 'lib/writeexcel/worksheet.rb', line 1503 def set_margin_top(margin = 1.00) @margin_top = margin end |
#set_margins(margin) ⇒ Object
Set all the page margins to the same value in inches.
There are several methods available for setting the worksheet margins on the printed page:
set_margins() # Set all margins to the same value
set_margins_LR() # Set left and right margins to the same value
set_margins_TB() # Set top and bottom margins to the same value
set_margin_left(); # Set left margin
set_margin_right(); # Set right margin
set_margin_top(); # Set top margin
set_margin_bottom(); # Set bottom margin
All of these methods take a distance in inches as a parameter.
Note: 1 inch = 25.4mm. ;-) The default left and right margin is 0.75 inch. The default top and bottom margin is 1.00 inch.
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# File 'lib/writeexcel/worksheet.rb', line 1446 def set_margins(margin) set_margin_left(margin) set_margin_right(margin) set_margin_top(margin) set_margin_bottom(margin) end |
#set_margins_LR(margin) ⇒ Object
set_margins_LR()
Set the left and right margins to the same value in inches.
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# File 'lib/writeexcel/worksheet.rb', line 1459 def set_margins_LR(margin) set_margin_left(margin) set_margin_right(margin) end |
#set_margins_TB(margin) ⇒ Object
set_margins_TB()
Set the top and bottom margins to the same value in inches.
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# File 'lib/writeexcel/worksheet.rb', line 1470 def set_margins_TB(margin) set_margin_top(margin) set_margin_bottom(margin) end |
#set_page_view ⇒ Object
This method is used to display the worksheet in “Page View” mode. This is currently only supported by Mac Excel, where it is the default.
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# File 'lib/writeexcel/worksheet.rb', line 1341 def set_page_view @page_view = 1 end |
#set_paper(paper_size = 0) ⇒ Object
set_paper()
Set the paper type. Ex. 1 = US Letter, 9 = A4
This method is used to set the paper format for the printed output of a worksheet. The following paper styles are available:
Index Paper format Paper size
===== ============ ==========
0 Printer default -
1 Letter 8 1/2 x 11 in
2 Letter Small 8 1/2 x 11 in
3 Tabloid 11 x 17 in
4 Ledger 17 x 11 in
5 Legal 8 1/2 x 14 in
6 Statement 5 1/2 x 8 1/2 in
7 Executive 7 1/4 x 10 1/2 in
8 A3 297 x 420 mm
9 A4 210 x 297 mm
10 A4 Small 210 x 297 mm
11 A5 148 x 210 mm
12 B4 250 x 354 mm
13 B5 182 x 257 mm
14 Folio 8 1/2 x 13 in
15 Quarto 215 x 275 mm
16 - 10x14 in
17 - 11x17 in
18 Note 8 1/2 x 11 in
19 Envelope 9 3 7/8 x 8 7/8
20 Envelope 10 4 1/8 x 9 1/2
21 Envelope 11 4 1/2 x 10 3/8
22 Envelope 12 4 3/4 x 11
23 Envelope 14 5 x 11 1/2
24 C size sheet -
25 D size sheet -
26 E size sheet -
27 Envelope DL 110 x 220 mm
28 Envelope C3 324 x 458 mm
29 Envelope C4 229 x 324 mm
30 Envelope C5 162 x 229 mm
31 Envelope C6 114 x 162 mm
32 Envelope C65 114 x 229 mm
33 Envelope B4 250 x 353 mm
34 Envelope B5 176 x 250 mm
35 Envelope B6 176 x 125 mm
36 Envelope 110 x 230 mm
37 Monarch 3.875 x 7.5 in
38 Envelope 3 5/8 x 6 1/2 in
39 Fanfold 14 7/8 x 11 in
40 German Std Fanfold 8 1/2 x 12 in
41 German Legal Fanfold 8 1/2 x 13 in
Note, it is likely that not all of these paper types will be available to the end user since it will depend on the paper formats that the user’s printer supports. Therefore, it is best to stick to standard paper types.
worksheet.set_paper(1) # US Letter
worksheet.set_paper(9) # A4
If you do not specify a paper type the worksheet will print using the printer’s default paper.
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# File 'lib/writeexcel/worksheet.rb', line 1409 def set_paper(paper_size = 0) @paper_size = paper_size end |
#set_portrait ⇒ Object
Set the page orientation as portrait.
This method is used to set the orientation of a worksheet’s printed page to portrait. The default worksheet orientation is portrait, so you won’t generally need to call this method.
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# File 'lib/writeexcel/worksheet.rb', line 1325 def set_portrait @orientation = 1 end |
#set_print_scale(scale = 100) ⇒ Object
Set the scale factor of the printed page. Scale factors in the range 10 <= scale <= 400 are valid:
worksheet1.set_print_scale(50)
worksheet2.set_print_scale(75)
worksheet3.set_print_scale(300)
worksheet4.set_print_scale(400)
The default scale factor is 100. Note, set_print_scale() does not affect the scale of the visible page in Excel. For that you should use set_zoom().
Note also that although it is valid to use both fit_to_pages() and set_print_scale() on the same worksheet only one of these options can be active at a time. The last method call made will set the active option.
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# File 'lib/writeexcel/worksheet.rb', line 1957 def set_print_scale(scale = 100) # Confine the scale to Excel's range if scale < 10 or scale > 400 # carp "Print scale $scale outside range: 10 <= zoom <= 400"; scale = 100 end # Turn off "fit to page" option @fit_page = 0 @print_scale = scale.to_i end |
#set_row(row, height = nil, format = nil, hidden = 0, level = 0, collapsed = 0) ⇒ Object
row : Row Number
height : Format object
format : Format object
hidden : Hidden flag
level : Outline level
collapsed : Collapsed row
This method is used to set the height and XF format for a row. Writes the BIFF record ROW.
This method can be used to change the default properties of a row. All parameters apart from row are optional.
The most common use for this method is to change the height of a row:
worksheet.set_row(0, 20) # Row 1 height set to 20
If you wish to set the format without changing the height you can pass nil as the height parameter:
worksheet.set_row(0, nil, format)
The format parameter will be applied to any cells in the row that don’t have a format. For example
worksheet.set_row(0, nil, format1) # Set the format for row 1
worksheet.write('A1', 'Hello') # Defaults to format1
worksheet.write('B1', 'Hello', format2) # Keeps format2
If you wish to define a row format in this way you should call the method before any calls to write(). Calling it afterwards will overwrite any format that was previously specified.
The hidden parameter should be set to 1 if you wish to hide a row. This can be used, for example, to hide intermediary steps in a complicated calculation:
worksheet.set_row(0, 20, format, 1)
worksheet.set_row(1, undef, nil, 1)
The level parameter is used to set the outline level of the row. Outlines are described in “OUTLINES AND GROUPING IN EXCEL”. Adjacent rows with the same outline level are grouped together into a single outline.
The following example sets an outline level of 1 for rows 1 and 2 (zero-indexed):
worksheet.set_row(1, nil, nil, 0, 1)
worksheet.set_row(2, nil, nil, 0, 1)
The hidden parameter can also be used to hide collapsed outlined rows when used in conjunction with the level parameter.
worksheet.set_row(1, nil, nil, 1, 1)
worksheet.set_row(2, nil, nil, 1, 1)
For collapsed outlines you should also indicate which row has the collapsed + symbol using the optional collapsed parameter.
worksheet.set_row(3, nil, nil, 0, 0, 1)
For a more complete example see the outline.pl and outline_collapsed.rb programs in the examples directory of the distro.
Excel allows up to 7 outline levels. Therefore the level parameter should be in the range 0 <= level <= 7.
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# File 'lib/writeexcel/worksheet.rb', line 567 def set_row(row, height = nil, format = nil, hidden = 0, level = 0, collapsed = 0) record = 0x0208 # Record identifier length = 0x0010 # Number of bytes to follow colMic = 0x0000 # First defined column colMac = 0x0000 # Last defined column # miyRw; # Row height irwMac = 0x0000 # Used by Excel to optimise loading reserved = 0x0000 # Reserved grbit = 0x0000 # Option flags # ixfe; # XF index return if row.nil? # Check that row and col are valid and store max and min values return -2 if check_dimensions(row, 0, 0, 1) != 0 # Check for a format object if format.respond_to?(:xf_index) ixfe = format.xf_index else ixfe = 0x0F end # Set the row height in units of 1/20 of a point. Note, some heights may # not be obtained exactly due to rounding in Excel. # unless height.nil? miyRw = height *20 else miyRw = 0xff # The default row height height = 0 end # Set the limits for the outline levels (0 <= x <= 7). level = 0 if level < 0 level = 7 if level > 7 @outline_row_level = level if level > @outline_row_level # Set the options flags. # 0x10: The fCollapsed flag indicates that the row contains the "+" # when an outline group is collapsed. # 0x20: The fDyZero height flag indicates a collapsed or hidden row. # 0x40: The fUnsynced flag is used to show that the font and row heights # are not compatible. This is usually the case for WriteExcel. # 0x80: The fGhostDirty flag indicates that the row has been formatted. # grbit |= level grbit |= 0x0010 if collapsed != 0 grbit |= 0x0020 if !hidden.nil? && hidden != 0 grbit |= 0x0040 grbit |= 0x0080 unless format.nil? grbit |= 0x0100 header = [record, length].pack("vv") data = [row, colMic, colMac, miyRw, irwMac, reserved, grbit, ixfe].pack("vvvvvvvv") # Store the data or write immediately depending on the compatibility mode. if @compatibility != 0 @row_data[row] = header + data else append(header, data) end # Store the row sizes for use when calculating image vertices. # Also store the column formats. @row_sizes[row] = height @row_formats[row] = format unless format.nil? end |
#set_selection(*args) ⇒ Object
:call-seq:
set_selection(first_row, first_col[, last_row, last_col])
set_selection('B3')
set_selection('B3:C8')
Set which cell or cells are selected in a worksheet: see also the sub _store_selection
This method can be used to specify which cell or cells are selected in a worksheet. The most common requirement is to select a single cell, in which case last_row and last_col can be omitted. The active cell within a selected range is determined by the order in which first and last are specified. It is also possible to specify a cell or a range using A1 notation. See the note about “Cell notation”.
Examples:
worksheet1.set_selection(3, 3) # 1. Cell D4.
worksheet2.set_selection(3, 3, 6, 6) # 2. Cells D4 to G7.
worksheet3.set_selection(6, 6, 3, 3) # 3. Cells G7 to D4.
worksheet4.set_selection('D4') # Same as 1.
worksheet5.set_selection('D4:G7') # Same as 2.
worksheet6.set_selection('G7:D4') # Same as 3.
The default cell selections is (0, 0), ‘A1’.
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# File 'lib/writeexcel/worksheet.rb', line 800 def set_selection(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end @selection = args end |
#set_start_page(start_page = 1) ⇒ Object
Set the start page number.
The set_start_page() method is used to set the number of the starting page when the worksheet is printed out. The default value is 1.
worksheet.set_start_page(2)
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# File 'lib/writeexcel/worksheet.rb', line 2312 def set_start_page(start_page = 1) @page_start = start_page @custom_start = 1 end |
#set_tab_color(color) ⇒ Object
Set the colour of the worksheet colour.
The set_tab_color() method is used to change the colour of the worksheet tab. This feature is only available in Excel 2002 and later. You can use one of the standard colour names provided by the Format object or a colour index. See “COLOURS IN EXCEL” and the set_custom_color() method.
worksheet1.set_tab_color('red')
worksheet2.set_tab_color(0x0C)
See the tab_colors.rb program in the examples directory of the distro.
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# File 'lib/writeexcel/worksheet.rb', line 1135 def set_tab_color(color) color = Colors.new.get_color(color) color = 0 if color == 0x7FFF # Default color. @tab_color = color end |
#set_v_pagebreaks(breaks) ⇒ Object
Store the vertical page breaks on a worksheet. breaks is Fixnum or Array of Fixnum.
Add vertical page breaks to a worksheet. A page break causes all the data that follows it to be printed on the next page. Vertical page breaks act between columns. To create a page break between columns 20 and 21 you must specify the break at column 21. However in zero index notation this is actually column 20. So you can pretend for a small while that you are using 1 index notation:
worksheet1.set_v_pagebreaks(20) # Break between column 20 and 21
The set_v_pagebreaks() method will accept a list of page breaks and you can call it more than once:
worksheet2.set_v_pagebreaks([ 20, 40, 60, 80, 100]) # Add breaks
worksheet2.set_v_pagebreaks([120, 140, 160, 180, 200]) # Add some more
Note: If you specify the “fit to page” option via the fit_to_pages() method it will override all manual page breaks.
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# File 'lib/writeexcel/worksheet.rb', line 2021 def set_v_pagebreaks(breaks) @vbreaks += breaks.respond_to?(:to_ary) ? breaks : [breaks] end |
#set_zoom(scale = 100) ⇒ Object
Set the worksheet zoom factor in the range 10 <= $scale <= 400:
worksheet1.set_zoom(50)
worksheet2.set_zoom(75)
worksheet3.set_zoom(300)
worksheet4.set_zoom(400)
The default zoom factor is 100. You cannot zoom to “Selection” because it is calculated by Excel at run-time.
Note, set_zoom() does not affect the scale of the printed page. For that you should use set_print_scale().
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# File 'lib/writeexcel/worksheet.rb', line 1082 def set_zoom(scale = 100) # Confine the scale to Excel's range if scale < 10 or scale > 400 # carp "Zoom factor $scale outside range: 10 <= zoom <= 400"; scale = 100 end @zoom = scale.to_i end |
#sheet_type ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3571 def sheet_type # :nodoc: @sheet_type end |
#show_comments(val = nil) ⇒ Object
show_comments()
Make any comments in the worksheet visible.
This method is used to make all cell comments visible when a worksheet is opened.
Individual comments can be made visible using the visible parameter of the write_comment method (see above):
worksheet.write_comment('C3', 'Hello', :visible => 1)
If all of the cell comments have been made visible you can hide individual comments as follows:
worksheet.write_comment('C3', 'Hello', :visible => 0)
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# File 'lib/writeexcel/worksheet.rb', line 2289 def show_comments(val = nil) @comments_visible = val.nil? ? 1 : val end |
#split_panes(*args) ⇒ Object
:call-seq:
split_panes(y, x, top_row, left_col)
Set panes and mark them as split. – See also _store_panes(). ++
This method can be used to divide a worksheet into horizontal or vertical regions known as panes. This method is different from the freeze_panes() method in that the splits between the panes will be visible to the user and each pane will have its own scroll bars.
The parameters y and x are used to specify the vertical and horizontal position of the split. The units for y and x are the same as those used by Excel to specify row height and column width. However, the vertical and horizontal units are different from each other. Therefore you must specify the $y and $x parameters in terms of the row heights and column widths that you have set or the default values which are 12.75 for a row and 8.43 for a column.
You can set one of the y and x parameters as zero if you do not want either a vertical or horizontal split. The parameters top_row and left_col are optional. They are used to specify the top-most or left-most visible row or column in the bottom-right pane.
Example:
worksheet.split_panes(12.75, 0, 1, 0) # First row
worksheet.split_panes(0, 8.43, 0, 1) # First column
worksheet.split_panes(12.75, 8.43, 1, 1) # First row and column
You cannot use A1 notation with this method.
See also the freeze_panes() method and the panes.pl program in the examples directory of the distribution.
Note:
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# File 'lib/writeexcel/worksheet.rb', line 954 def split_panes(*args) @frozen = 0 @frozen_no_split = 0 @panes = args end |
#store_autofilter(index, operator_1, token_1, join = nil, operator_2 = nil, token_2 = nil) ⇒ Object
_store_autofilter()
my $index = $_[0];
my $operator_1 = $_[1];
my $token_1 = $_[2];
my $join = $_[3]; # And/Or
my $operator_2 = $_[4];
my $token_2 = $_[5];
Function to write worksheet AUTOFILTER records. These contain 2 Biff Doper structures to represent the 2 possible filter conditions.
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# File 'lib/writeexcel/worksheet.rb', line 6501 def store_autofilter(index, operator_1, token_1, #:nodoc: join = nil, operator_2 = nil, token_2 = nil) record = 0x009E length = 0x0000 top10_active = 0 top10_direction = 0 top10_percent = 0 top10_value = 101 grbit = join || 0 optimised_1 = 0 optimised_2 = 0 doper_1 = '' doper_2 = '' string_1 = '' string_2 = '' # Excel used an optimisation in the case of a simple equality. optimised_1 = 1 if operator_1 == 2 optimised_2 = 1 if !operator_2.nil? and operator_2 == 2 # Convert non-simple equalities back to type 2. See _parse_filter_tokens(). operator_1 = 2 if operator_1 == 22 operator_2 = 2 if !operator_2.nil? and operator_2 == 22 # Handle a "Top" style expression. if operator_1 >= 30 # Remove the second expression if present. operator_2 = nil token_2 = nil # Set the active flag. top10_active = 1 if (operator_1 == 30 or operator_1 == 31) top10_direction = 1 end if (operator_1 == 31 or operator_1 == 33) top10_percent = 1 end if (top10_direction == 1) operator_1 = 6 else operator_1 = 3 end top10_value = token_1.to_i token_1 = 0 end grbit |= optimised_1 << 2 grbit |= optimised_2 << 3 grbit |= top10_active << 4 grbit |= top10_direction << 5 grbit |= top10_percent << 6 grbit |= top10_value << 7 doper_1, string_1 = pack_doper(operator_1, token_1) doper_2, string_2 = pack_doper(operator_2, token_2) doper_1 = '' if doper_1.nil? doper_2 = '' if doper_2.nil? string_1 = '' if string_1.nil? string_2 = '' if string_2.nil? data = [index].pack('v') data += [grbit].pack('v') data += doper_1 + doper_2 + string_1 + string_2 length = data.bytesize header = [record, length].pack('vv') prepend(header, data) end |
#store_colinfo(firstcol = 0, lastcol = 0, width = 8.43, format = nil, hidden = 0, level = 0, collapsed = 0) ⇒ Object
_store_colinfo($firstcol, $lastcol, $width, $format, $hidden)
firstcol : First formatted column
lastcol : Last formatted column
width : Col width in user units, 8.43 is default
format : format object
hidden : hidden flag
Write BIFF record COLINFO to define column widths
Note: The SDK says the record length is 0x0B but Excel writes a 0x0C length record.
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# File 'lib/writeexcel/worksheet.rb', line 5111 def store_colinfo(firstcol=0, lastcol=0, width=8.43, format=nil, hidden=0, level=0, collapsed=0) #:nodoc: record = 0x007D # Record identifier length = 0x000B # Number of bytes to follow # Excel rounds the column width to the nearest pixel. Therefore we first # convert to pixels and then to the internal units. The pixel to users-units # relationship is different for values less than 1. # width ||= 8.43 if width < 1 pixels = width *12 else pixels = width *7 +5 end pixels = pixels.to_i coldx = (pixels *256/7).to_i # Col width in internal units grbit = 0x0000 # Option flags reserved = 0x00 # Reserved # Check for a format object if !format.nil? && format.respond_to?(:xf_index) ixfe = format.xf_index else ixfe = 0x0F end # Set the limits for the outline levels (0 <= x <= 7). level = 0 if level < 0 level = 7 if level > 7 # Set the options flags. (See set_row() for more details). grbit |= 0x0001 if hidden != 0 grbit |= level << 8 grbit |= 0x1000 if collapsed != 0 header = [record, length].pack("vv") data = [firstcol, lastcol, coldx, ixfe, grbit, reserved].pack("vvvvvC") prepend(header, data) end |
#store_dimensions ⇒ Object
_store_dimensions()
Writes Excel DIMENSIONS to define the area in which there is cell data.
Notes:
Excel stores the max row/col as row/col +1.
Max and min values of 0 are used to indicate that no cell data.
We set the undef member data to 0 since it is used by _store_table().
Inserting images or charts doesn't change the DIMENSION data.
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# File 'lib/writeexcel/worksheet.rb', line 4945 def store_dimensions #:nodoc: record = 0x0200 # Record identifier length = 0x000E # Number of bytes to follow reserved = 0x0000 # Reserved by Excel row_min = @dim_rowmin.nil? ? 0 : @dim_rowmin row_max = @dim_rowmax.nil? ? 0 : @dim_rowmax + 1 col_min = @dim_colmin.nil? ? 0 : @dim_colmin col_max = @dim_colmax.nil? ? 0 : @dim_colmax + 1 # Set member data to the new max/min value for use by _store_table(). @dim_rowmin = row_min @dim_rowmax = row_max @dim_colmin = col_min @dim_colmax = col_max header = [record, length].pack("vv") fields = [row_min, row_max, col_min, col_max, reserved] data = fields.pack("VVvvv") prepend(header, data) end |
#store_dval(obj_id, dv_count) ⇒ Object
_store_dval()
my $obj_id = $_[0]; # Object ID number.
my $dv_count = $_[1]; # Count of DV structs to follow.
Store the DV record which contains the number of and information common to all DV structures.
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# File 'lib/writeexcel/worksheet.rb', line 8686 def store_dval(obj_id, dv_count) #:nodoc: record = 0x01B2 # Record identifier length = 0x0012 # Bytes to follow flags = 0x0004 # Option flags. x_coord = 0x00000000 # X coord of input box. y_coord = 0x00000000 # Y coord of input box. # Pack the record. header = [record, length].pack('vv') data = [flags, x_coord, y_coord, obj_id, dv_count].pack('vVVVV') append(header, data) end |
#store_filtermode ⇒ Object
_store_filtermode()
Write BIFF record FILTERMODE to indicate that the worksheet contains AUTOFILTER record, ie. autofilters with a filter set.
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# File 'lib/writeexcel/worksheet.rb', line 5163 def store_filtermode #:nodoc: # Only write the record if the worksheet contains a filtered autofilter. return '' if @filter_on == 0 record = 0x009B # Record identifier length = 0x0000 # Number of bytes to follow header = [record, length].pack('vv') prepend(header) end |
#store_formula(formula) ⇒ Object
:call-seq:
store_formula(formula) # formula : text string of formula
Pre-parse a formula. This is used in conjunction with repeat_formula() to repetitively rewrite a formula without re-parsing it.
The store_formula() method is used in conjunction with repeat_formula()
to speed up the generation of repeated formulas. See
“Improving performance when working with formulas” in “FORMULAS AND FUNCTIONS IN EXCEL”.
The store_formula() method pre-parses a textual representation of a formula and stores it for use at a later stage by the repeat_formula() method.
store_formula() carries the same speed penalty as write_formula(). However, in practice it will be used less frequently.
The return value of this method is a scalar that can be thought of as a reference to a formula.
sin = worksheet.store_formula('=SIN(A1)')
cos = worksheet.store_formula('=COS(A1)')
worksheet.repeat_formula('B1', sin, format, 'A1', 'A2')
worksheet.repeat_formula('C1', cos, format, 'A1', 'A2')
Although store_formula() is a worksheet method the return value can be used in any worksheet:
now = worksheet.store_formula('=NOW()')
worksheet1.repeat_formula('B1', now)
worksheet2.repeat_formula('B1', now)
worksheet3.repeat_formula('B1', now)
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# File 'lib/writeexcel/worksheet.rb', line 3934 def store_formula(formula) #:nodoc: # Strip the = sign at the beginning of the formula string formula.sub!(/^=/, '') # In order to raise formula errors from the point of view of the calling # program we use an eval block and re-raise the error from here. # tokens = @parser.parse_formula(formula) # if ($@) { # $@ =~ s/\n$// # Strip the \n used in the Formula.pm die() # croak $@ # Re-raise the error # } # Return the parsed tokens in an anonymous array [*tokens] end |
#store_mso_client_anchor(flag, col_start, x1, row_start, y1, col_end, x2, row_end, y2) ⇒ Object
_store_mso_client_anchor()
my flag = shift;
my $col_start = $_[0]; # Col containing upper left corner of object
my $x1 = $_[1]; # Distance to left side of object
my $row_start = $_[2]; # Row containing top left corner of object
my $y1 = $_[3]; # Distance to top of object
my $col_end = $_[4]; # Col containing lower right corner of object
my $x2 = $_[5]; # Distance to right side of object
my $row_end = $_[6]; # Row containing bottom right corner of object
my $y2 = $_[7]; # Distance to bottom of object
Write the Escher ClientAnchor record that is part of MSODRAWING.
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# File 'lib/writeexcel/worksheet.rb', line 7391 def store_mso_client_anchor(flag, col_start, x1, row_start, y1, col_end, x2, row_end, y2) #:nodoc: type = 0xF010 version = 0 instance = 0 data = '' length = 18 data = [flag, col_start, x1, row_start, y1, col_end, x2, row_end, y2].pack('v9') add_mso_generic(type, version, instance, data, length) end |
#store_mso_client_data ⇒ Object
_store_mso_client_data()
Write the Escher ClientData record that is part of MSODRAWING.
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# File 'lib/writeexcel/worksheet.rb', line 7410 def store_mso_client_data #:nodoc: type = 0xF011 version = 0 instance = 0 data = '' length = 0 add_mso_generic(type, version, instance, data, length) end |
#store_mso_client_text_box ⇒ Object
_store_mso_client_text_box()
Write the Escher ClientTextbox record that is part of MSODRAWING.
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# File 'lib/writeexcel/worksheet.rb', line 7638 def store_mso_client_text_box #:nodoc: type = 0xF00D version = 0 instance = 0 data = '' length = 0 add_mso_generic(type, version, instance, data, length) end |
#store_mso_dg(instance, num_shapes, max_spid) ⇒ Object
_store_mso_dg()
Write the Escher Dg record that is part of MSODRAWING.
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# File 'lib/writeexcel/worksheet.rb', line 7173 def store_mso_dg(instance, num_shapes, max_spid) #:nodoc: type = 0xF008 version = 0 length = 8 data = [num_shapes, max_spid].pack("VV") add_mso_generic(type, version, instance, data, length) end |
#store_mso_dg_container(length) ⇒ Object
_store_mso_dg_container()
Write the Escher DgContainer record that is part of MSODRAWING.
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# File 'lib/writeexcel/worksheet.rb', line 7158 def store_mso_dg_container(length) #:nodoc: type = 0xF002 version = 15 instance = 0 data = '' add_mso_generic(type, version, instance, data, length) end |
#store_mso_drawing_text_box ⇒ Object
_store_mso_drawing_text_box()
Write the MSODRAWING ClientTextbox record that is part of comments.
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# File 'lib/writeexcel/worksheet.rb', line 7621 def store_mso_drawing_text_box #:nodoc: record = 0x00EC # Record identifier length = 0x0008 # Bytes to follow data = store_mso_client_text_box() header = [record, length].pack('vv') append(header, data) end |
#store_mso_opt_chart ⇒ Object
_store_mso_opt_chart()
Write the Escher Opt record that is part of MSODRAWING.
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# File 'lib/writeexcel/worksheet.rb', line 7312 def store_mso_opt_chart #:nodoc: type = 0xF00B version = 3 instance = 9 data = '' length = nil data = store_mso_protection_and_text data += [0x0181].pack('v') + # Fill Style -> fillColor [0x0800004E].pack('V') + [0x0183].pack('v') + # Fill Style -> fillBackColor [0x0800004D].pack('V') + [0x01BF].pack('v') + # Fill Style -> fNoFillHitTest [0x00110010].pack('V') + [0x01C0].pack('v') + # Line Style -> lineColor [0x0800004D].pack('V') + [0x01FF].pack('v') + # Line Style -> fNoLineDrawDash [0x00080008].pack('V') + [0x023F].pack('v') + # Shadow Style -> fshadowObscured [0x00020000].pack('V') + [0x03BF].pack('v') + # Group Shape -> fPrint [0x00080000].pack('V') add_mso_generic(type, version, instance, data, length) end |
#store_mso_opt_comment(spid, visible = nil, colour = 0x50) ⇒ Object
_store_mso_opt_comment()
Write the Escher Opt record that is part of MSODRAWING.
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# File 'lib/writeexcel/worksheet.rb', line 7255 def store_mso_opt_comment(spid, visible = nil, colour = 0x50) #:nodoc: type = 0xF00B version = 3 instance = 9 data = '' length = 54 # Use the visible flag if set by the user or else use the worksheet value. # Note that the value used is the opposite of _store_note(). # if !visible.nil? visible = visible != 0 ? 0x0000 : 0x0002 else visible = @comments_visible != 0 ? 0x0000 : 0x0002 end data = [spid].pack('V') + ['0000BF00080008005801000000008101'].pack("H*") + [colour].pack("C") + ['000008830150000008BF011000110001'+'02000000003F0203000300BF03'].pack("H*") + [visible].pack('v') + ['0A00'].pack('H*') add_mso_generic(type, version, instance, data, length) end |
#store_mso_opt_filter ⇒ Object
_store_mso_opt_filter()
Write the Escher Opt record that is part of MSODRAWING.
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# File 'lib/writeexcel/worksheet.rb', line 7346 def store_mso_opt_filter #:nodoc: type = 0xF00B version = 3 instance = 5 data = '' length = nil data = store_mso_protection_and_text data += [0x01BF].pack('v') + # Fill Style -> fNoFillHitTest [0x00010000].pack('V') + [0x01FF].pack('v') + # Line Style -> fNoLineDrawDash [0x00080000].pack('V') + [0x03BF].pack('v') + # Group Shape -> fPrint [0x000A0000].pack('V') add_mso_generic(type, version, instance, data, length) end |
#store_mso_opt_image(spid) ⇒ Object
_store_mso_opt_image()
Write the Escher Opt record that is part of MSODRAWING.
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# File 'lib/writeexcel/worksheet.rb', line 7288 def store_mso_opt_image(spid) #:nodoc: type = 0xF00B version = 3 instance = 3 data = '' length = nil data = [0x4104].pack('v') + [spid].pack('V') + [0x01BF].pack('v') + [0x00010000].pack('V') + [0x03BF].pack( 'v') + [0x00080000].pack( 'V') add_mso_generic(type, version, instance, data, length) end |
#store_mso_sp(instance, spid, options) ⇒ Object
_store_mso_sp()
Write the Escher Sp record that is part of MSODRAWING.
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# File 'lib/writeexcel/worksheet.rb', line 7238 def store_mso_sp(instance, spid, ) #:nodoc: type = 0xF00A version = 2 data = '' length = 8 data = [spid, ].pack('VV') add_mso_generic(type, version, instance, data, length) end |
#store_mso_sp_container(length) ⇒ Object
_store_mso_sp_container()
Write the Escher SpContainer record that is part of MSODRAWING.
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# File 'lib/writeexcel/worksheet.rb', line 7205 def store_mso_sp_container(length) #:nodoc: type = 0xF004 version = 15 instance = 0 data = '' add_mso_generic(type, version, instance, data, length) end |
#store_mso_spgr ⇒ Object
_store_mso_spgr()
Write the Escher Spgr record that is part of MSODRAWING.
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# File 'lib/writeexcel/worksheet.rb', line 7221 def store_mso_spgr #:nodoc: type = 0xF009 version = 1 instance = 0 data = [0, 0, 0, 0].pack("VVVV") length = 16 add_mso_generic(type, version, instance, data, length) end |
#store_mso_spgr_container(length) ⇒ Object
_store_mso_spgr_container()
Write the Escher SpgrContainer record that is part of MSODRAWING.
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# File 'lib/writeexcel/worksheet.rb', line 7189 def store_mso_spgr_container(length) #:nodoc: type = 0xF003 version = 15 instance = 0 data = '' add_mso_generic(type, version, instance, data, length) end |
#store_note(row, col, obj_id, author = nil, author_enc = nil, visible = nil) ⇒ Object
_store_note()
my $row = $_[0];
my $col = $_[1];
my $obj_id = $_[2];
my $author = $_[3] || $self->{_comments_author};
my $author_enc = $_[4] || $self->{_comments_author_enc};
my $visible = $_[5];
Write the worksheet NOTE record that is part of cell comments.
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# File 'lib/writeexcel/worksheet.rb', line 7755 def store_note(row, col, obj_id, = nil, = nil, visible = nil) #:nodoc: ruby_19 { = [].pack('a*') if .ascii_only? } record = 0x001C # Record identifier length = 0x000C # Bytes to follow = @comments_author if .nil? = @comments_author_enc if .nil? # Use the visible flag if set by the user or else use the worksheet value. # The flag is also set in _store_mso_opt_comment() but with the opposite # value. if !visible.nil? visible = visible != 0 ? 0x0002 : 0x0000 else visible = @comments_visible != 0 ? 0x0002 : 0x0000 end # Get the number of chars in the author string (not bytes). num_chars = .bytesize num_chars = num_chars / 2 if != 0 && !.nil? # Null terminate the author string. = ruby_18 { + "\0" } || ruby_19 { .force_encoding('BINARY') + "\0".force_encoding('BINARY') } # Pack the record. data = [row, col, visible, obj_id, num_chars, ].pack("vvvvvC") length = data.bytesize + .bytesize header = [record, length].pack("vv") append(header, data, ) end |
#store_obj_chart(obj_id) ⇒ Object
_store_obj_chart()
my $obj_id = $_[0]; # Object ID number.
Write the OBJ record that is part of chart records.
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# File 'lib/writeexcel/worksheet.rb', line 7524 def store_obj_chart(obj_id) #:nodoc: record = 0x005D # Record identifier length = 0x001A # Bytes to follow obj_type = 0x0005 # Object type (chart). data = '' # Record data. sub_record = 0x0000 # Sub-record identifier. sub_length = 0x0000 # Length of sub-record. sub_data = '' # Data of sub-record. = 0x6011 reserved = 0x0000 # Add ftCmo (common object data) subobject sub_record = 0x0015 # ftCmo sub_length = 0x0012 sub_data = [obj_type, obj_id, , reserved, reserved, reserved].pack('vvvVVV') data = [sub_record, sub_length].pack('vv') + sub_data # Add ftEnd (end of object) subobject sub_record = 0x0000 # ftNts sub_length = 0x0000 data += [sub_record, sub_length].pack('vv') # Pack the record. header = [record, length].pack('vv') append(header, data) end |
#store_obj_comment(obj_id) ⇒ Object
_store_obj_comment()
my $obj_id = $_[0]; # Object ID number.
Write the OBJ record that is part of cell comments.
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# File 'lib/writeexcel/worksheet.rb', line 7428 def store_obj_comment(obj_id) #:nodoc: record = 0x005D # Record identifier length = 0x0034 # Bytes to follow obj_type = 0x0019 # Object type (comment). data = '' # Record data. sub_record = 0x0000 # Sub-record identifier. sub_length = 0x0000 # Length of sub-record. sub_data = '' # Data of sub-record. = 0x4011 reserved = 0x0000 # Add ftCmo (common object data) subobject sub_record = 0x0015 # ftCmo sub_length = 0x0012 sub_data = [obj_type, obj_id, , reserved, reserved, reserved].pack( "vvvVVV") data = [sub_record, sub_length].pack("vv") + sub_data # Add ftNts (note structure) subobject sub_record = 0x000D # ftNts sub_length = 0x0016 sub_data = [reserved,reserved,reserved,reserved,reserved,reserved].pack( "VVVVVv") data += [sub_record, sub_length].pack("vv") + sub_data # Add ftEnd (end of object) subobject sub_record = 0x0000 # ftNts sub_length = 0x0000 data += [sub_record, sub_length].pack("vv") # Pack the record. header = [record, length].pack("vv") append(header, data) end |
#store_obj_filter(obj_id, col) ⇒ Object
_store_obj_filter()
my $obj_id = $_[0]; # Object ID number.
my $col = $_[1];
Write the OBJ record that is part of filter records.
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# File 'lib/writeexcel/worksheet.rb', line 7564 def store_obj_filter(obj_id, col) #:nodoc: record = 0x005D # Record identifier length = 0x0046 # Bytes to follow obj_type = 0x0014 # Object type (combo box). data = '' # Record data. sub_record = 0x0000 # Sub-record identifier. sub_length = 0x0000 # Length of sub-record. sub_data = '' # Data of sub-record. = 0x2101 reserved = 0x0000 # Add ftCmo (common object data) subobject sub_record = 0x0015 # ftCmo sub_length = 0x0012 sub_data = [obj_type, obj_id, , reserved, reserved, reserved].pack('vvvVVV') data = [sub_record, sub_length].pack('vv') + sub_data # Add ftSbs Scroll bar subobject sub_record = 0x000C # ftSbs sub_length = 0x0014 sub_data = ['0000000000000000640001000A00000010000100'].pack('H*') data += [sub_record, sub_length].pack('vv') + sub_data # Add ftLbsData (List box data) subobject sub_record = 0x0013 # ftLbsData sub_length = 0x1FEE # Special case (undocumented). # If the filter is active we set one of the undocumented flags. if @filter_cols[col] sub_data = ['000000000100010300000A0008005700'].pack('H*') else sub_data = ['00000000010001030000020008005700'].pack('H*') end data += [sub_record, sub_length].pack('vv') + sub_data # Add ftEnd (end of object) subobject sub_record = 0x0000 # ftNts sub_length = 0x0000 data += [sub_record, sub_length].pack('vv') # Pack the record. header = [record, length].pack('vv') append(header, data) end |
#store_obj_image(obj_id) ⇒ Object
_store_obj_image()
my $obj_id = $_[0]; # Object ID number.
Write the OBJ record that is part of image records.
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# File 'lib/writeexcel/worksheet.rb', line 7473 def store_obj_image(obj_id) #:nodoc: record = 0x005D # Record identifier length = 0x0026 # Bytes to follow obj_type = 0x0008 # Object type (Picture). data = '' # Record data. sub_record = 0x0000 # Sub-record identifier. sub_length = 0x0000 # Length of sub-record. sub_data = '' # Data of sub-record. = 0x6011 reserved = 0x0000 # Add ftCmo (common object data) subobject sub_record = 0x0015 # ftCmo sub_length = 0x0012 sub_data = [obj_type, obj_id, , reserved, reserved, reserved].pack('vvvVVV') data = [sub_record, sub_length].pack('vv') + sub_data # Add ftCf (Clipboard format) subobject sub_record = 0x0007 # ftCf sub_length = 0x0002 sub_data = [0xFFFF].pack( 'v') data += [sub_record, sub_length].pack('vv') + sub_data # Add ftPioGrbit (Picture option flags) subobject sub_record = 0x0008 # ftPioGrbit sub_length = 0x0002 sub_data = [0x0001].pack('v') data += [sub_record, sub_length].pack('vv') + sub_data # Add ftEnd (end of object) subobject sub_record = 0x0000 # ftNts sub_length = 0x0000 data += [sub_record, sub_length].pack('vv') # Pack the record. header = [record, length].pack('vv') append(header, data) end |
#store_selection(first_row = 0, first_col = 0, last_row = nil, last_col = nil) ⇒ Object
_store_selection($first_row, $first_col, $last_row, $last_col)
Write BIFF record SELECTION.
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# File 'lib/writeexcel/worksheet.rb', line 5203 def store_selection(first_row=0, first_col=0, last_row = nil, last_col =nil) #:nodoc: record = 0x001D # Record identifier length = 0x000F # Number of bytes to follow pnn = @active_pane # Pane position rwAct = first_row # Active row colAct = first_col # Active column irefAct = 0 # Active cell ref cref = 1 # Number of refs rwFirst = first_row # First row in reference colFirst = first_col # First col in reference rwLast = last_row || rwFirst # Last row in reference colLast = last_col || colFirst # Last col in reference # Swap last row/col for first row/col as necessary if rwFirst > rwLast tmp = rwFirst rwFirst = rwLast rwLast = tmp end if colFirst > colLast tmp = colFirst colFirst = colLast colLast = tmp end header = [record, length].pack('vv') data = [pnn, rwAct, colAct, irefAct, cref, rwFirst, rwLast, colFirst, colLast].pack('CvvvvvvCC') append(header, data) end |
#store_txo(string_len, format_len = 16, rotation = 0) ⇒ Object
_store_txo()
my $string_len = $_[0]; # Length of the note text.
my $format_len = $_[1] || 16; # Length of the format runs.
my $rotation = $_[2] || 0; # Options
Write the worksheet TXO record that is part of cell comments.
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# File 'lib/writeexcel/worksheet.rb', line 7658 def store_txo(string_len, format_len = 16, rotation = 0) #:nodoc: record = 0x01B6 # Record identifier length = 0x0012 # Bytes to follow grbit = 0x0212 # Options reserved = 0x0000 # Options # Pack the record. header = [record, length].pack('vv') data = [grbit, rotation, reserved, reserved, string_len, format_len, reserved].pack("vvVvvvV") append(header, data) end |
#store_txo_continue_1(string, encoding = 0) ⇒ Object
_store_txo_continue_1()
my $string = $_[0]; # Comment string.
my $encoding = $_[1] || 0; # Encoding of the string.
Write the first CONTINUE record to follow the TXO record. It contains the text data.
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# File 'lib/writeexcel/worksheet.rb', line 7683 def store_txo_continue_1(string, encoding = 0) #:nodoc: record = 0x003C # Record identifier # Split long comment strings into smaller continue blocks if necessary. # We can't let BIFFwriter::_add_continue() handled this since an extra # encoding byte has to be added similar to the SST block. # # We make the limit size smaller than the _add_continue() size and even # so that UTF16 chars occur in the same block. # limit = 8218 while string.bytesize > limit string[0 .. limit] = "" tmp_str = string data = [encoding].pack("C") + ruby_18 { tmp_str } || ruby_19 { tmp_str.force_encoding('ASCII-8BIT') } length = data.bytesize header = [record, length].pack('vv') append(header, data) end # Pack the record. data = ruby_18 { [encoding].pack("C") + string } || ruby_19 { [encoding].pack("C") + string.force_encoding('ASCII-8BIT') } length = data.bytesize header = [record, length].pack('vv') append(header, data) end |
#store_txo_continue_2(formats) ⇒ Object
_store_txo_continue_2()
my $formats = $_[0]; # Formatting information
Write the second CONTINUE record to follow the TXO record. It contains the formatting information for the string.
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# File 'lib/writeexcel/worksheet.rb', line 7725 def store_txo_continue_2(formats) #:nodoc: record = 0x003C # Record identifier length = 0x0000 # Bytes to follow # Pack the record. data = '' formats.each do |a_ref| data += [a_ref[0], a_ref[1], 0x0].pack('vvV') end length = data.bytesize header = [record, length].pack("vv") append(header, data) end |
#title_colmax ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3603 def title_colmax # :nodoc: @title_colmax end |
#title_colmin ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3599 def title_colmin # :nodoc: @title_colmin end |
#title_rowmax ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3595 def title_rowmax # :nodoc: @title_rowmax end |
#title_rowmin ⇒ Object
:nodoc:
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# File 'lib/writeexcel/worksheet.rb', line 3591 def title_rowmin # :nodoc: @title_rowmin end |
#write(*args) ⇒ Object
:call-seq:
write(row, col, token, format)
write(A1_notation, token, format)
Parse token and call appropriate write method. row and column are zero indexed. format is optional.
The write_url() methods have a flag to prevent recursion when writing a string that looks like a url.
Returns: return value of called subroutine
Excel makes a distinction between data types such as strings, numbers, blanks, formulas and hyperlinks. To simplify the process of writing data the write() method acts as a general alias for several more specific methods:
write_string()
write_number()
write_blank()
write_formula()
write_url()
write_row()
write_col()
The general rule is that if the data looks like a something then a something is written. Here are some examples in both row-column and A1 notation:
# Same as:
worksheet.write(0, 0, 'Hello' ) # write_string()
worksheet.write(1, 0, 'One' ) # write_string()
worksheet.write(2, 0, 2 ) # write_number()
worksheet.write(3, 0, 3.00001 ) # write_number()
worksheet.write(4, 0, "" ) # write_blank()
worksheet.write(5, 0, '' ) # write_blank()
worksheet.write(6, 0, nil ) # write_blank()
worksheet.write(7, 0 ) # write_blank()
worksheet.write(8, 0, 'http://www.ruby-lang.org/') # write_url()
worksheet.write('A9', 'ftp://ftp.ruby-lang.org/' ) # write_url()
worksheet.write('A10', 'internal:Sheet1!A1' ) # write_url()
worksheet.write('A11', 'external:c:\foo.xls' ) # write_url()
worksheet.write('A12', '=A3 + 3*A4' ) # write_formula()
worksheet.write('A13', '=SIN(PI()/4)' ) # write_formula()
worksheet.write('A14', ['name', 'company'] ) # write_row()
worksheet.write('A15', [ ['name', 'company'] ] ) # write_col()
And if the keep_leading_zeros property is set:
$worksheet.write('A16, 2 ); # write_number()
$worksheet.write('A17, 02 ); # write_string()
$worksheet.write('A18, 00002 ); # write_string()
The “looks like” rule is defined by regular expressions:
write_number() if token is a number based on the following regex: token =~ /^([+-]?)(?=d|.d)d*(.d*)?(([+-]?d+))?$/.
write_string() if keep_leading_zeros() is set and token is an integer with leading zeros based on the following regex: token =~ /^0d+$/.
write_blank() if token is undef or a blank string: undef, “” or ”.
write_url() if token is a http, https, ftp or mailto URL based on the following regexes: token =~ m|^tt?ps?://| or $token =~ m|^mailto:|.
write_url() if token is an internal or external sheet reference based on the following regex: token =~ m.
write_formula() if the first character of token is “=”.
write_row() if token is an array.
write_col() if _token+ is an array of array.
write_string() if none of the previous conditions apply.
The format parameter is optional. It should be a valid Format object, see “CELL FORMATTING”:
format = workbook.add_format
format.set_bold
format.set_color('red')
format.set_align('center')
worksheet.write(4, 0, 'Hello', format) # Formatted string
The write() method will ignore empty strings or undef tokens unless a format is also supplied. As such you needn’t worry about special handling for empty or undef values in your data. See also the write_blank() method.
One problem with the write() method is that occasionally data looks like a number but you don’t want it treated as a number. For example, zip codes or ID numbers often start with a leading zero. If you write this data as a number then the leading zero(s) will be stripped. You can change this default behaviour by using the keep_leading_zeros() method. While this property is in place any integers with leading zeros will be treated as strings and the zeros will be preserved. See the keep_leading_zeros() section for a full discussion of this issue.
You can also add your own data handlers to the write() method using add_write_handler().
The write methods return:
0 for success.
-1 for insufficient number of arguments.
-2 for row or column out of bounds.
-3 for string too long.
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# File 'lib/writeexcel/worksheet.rb', line 2540 def write(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end token = args[2] # Handle undefs as blanks token ||= '' # First try user defined matches. @write_match.each do |aref| re = aref[0] sub = aref[1] if token =~ Regexp.new(re) match = eval("#{sub} self, args") return match unless match.nil? end end # Match an array ref. if token.respond_to?(:to_ary) write_row(*args) elsif token.respond_to?(:coerce) # Numeric write_number(*args) # Match http, https or ftp URL elsif token =~ %r|^[fh]tt?ps?://| and @writing_url == 0 write_url(*args) # Match mailto: elsif token =~ %r|^mailto:| and @writing_url == 0 write_url(*args) # Match internal or external sheet link elsif token =~ %r!^(?:in|ex)ternal:! and @writing_url == 0 write_url(*args) # Match formula elsif token =~ /^=/ write_formula(*args) # Match blank elsif token == '' args.delete_at(2) # remove the empty string from the parameter list write_blank(*args) else write_string(*args) end end |
#write_blank(*args) ⇒ Object
:call-seq:
write_blank(row, col , format) -> Fixnum
write_blank(A1_notation, format) -> Fixnum
Write a blank cell to the specified row and column (zero indexed). A blank cell is used to specify formatting without adding a string or a number.
A blank cell without a format serves no purpose. Therefore, we don’t write a BLANK record unless a format is specified. This is mainly an optimisation for the write_row() and write_col() methods.
Returns 0 : normal termination (including no format)
-1 : insufficient number of arguments
-2 : row or column out of range
This method is used to add formatting to a cell which doesn’t contain a string or number value.
Excel differentiates between an “Empty” cell and a “Blank” cell. An “Empty” cell is a cell which doesn’t contain data whilst a “Blank” cell is a cell which doesn’t contain data but does contain formatting. Excel stores “Blank” cells but ignores “Empty” cells.
As such, if you write an empty cell without formatting it is ignored:
worksheet.write('A1', nil, format) # write_blank()
worksheet.write('A2', nil ) # Ignored
This seemingly uninteresting fact means that you can write arrays of data without special treatment for undef or empty string values.
See the note about “Cell notation”.
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# File 'lib/writeexcel/worksheet.rb', line 2803 def write_blank(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end # Check the number of args return -1 if args.size < 2 # Don't write a blank cell unless it has a format return 0 if args[2].nil? record = 0x0201 # Record identifier length = 0x0006 # Number of bytes to follow row = args[0] # Zero indexed row col = args[1] # Zero indexed column xf = xf_record_index(row, col, args[2]) # The cell format # Check that row and col are valid and store max and min values return -2 if check_dimensions(row, col) != 0 header = [record, length].pack('vv') data = [row, col, xf].pack('vvv') # Store the data or write immediately depending on the compatibility mode. store_with_compatibility(row, col, header + data) 0 end |
#write_col(*args) ⇒ Object
:call-seq:
write_column(row, col , array[, format])
write_column(A1_notation, array[, format])
Write a column of data starting from (row, col). Call write_row() if any of the elements of the array are in turn array. This allows the writing of 1D or 2D arrays of data in one go.
Returns: the first encountered error value or zero for no errors
The write_col() method can be used to write a 1D or 2D array of data in one go. This is useful for converting the results of a database query into an Excel worksheet. The write() method is then called for each element of the data. For example:
array = ['awk', 'gawk', 'mawk']
worksheet.write_col(0, 0, array)
# The above example is equivalent to:
worksheet.write(0, 0, array[0])
worksheet.write(1, 0, array[1])
worksheet.write(2, 0, array[2])
As with all of the write methods the format parameter is optional. If a format is specified it is applied to all the elements of the data array.
Array within the data will be treated as rows. This allows you to write 2D arrays of data in one go. For example:
eec = [
['maggie', 'milly', 'molly', 'may' ],
[13, 14, 15, 16 ],
['shell', 'star', 'crab', 'stone']
]
worksheet.write_col('A1', eec)
Would produce a worksheet as follows:
-----------------------------------------------------------
| | A | B | C | D | E | ...
-----------------------------------------------------------
| 1 | maggie | milly | molly | may | ... | ...
| 2 | 13 | 14 | 15 | 16 | ... | ...
| 3 | shell | star | crab | stone | ... | ...
| 4 | ... | ... | ... | ... | ... | ...
| 5 | ... | ... | ... | ... | ... | ...
| 6 | ... | ... | ... | ... | ... | ...
To write the data in a column-row order refer to the write_row() method above.
Any nil
values in the data will be ignored unless a format is applied to the data, in which case a formatted blank cell will be written. In either case the appropriate row or column value will still be incremented.
As noted above the write() method can be used as a synonym for write_row() and write_row() handles nested array as columns. Therefore, the following two method calls are equivalent although the more explicit call to write_col() would be preferable for maintainability:
worksheet.write_col('A1', array) # Write a column of data
worksheet.write( 'A1', [ array ]) # Same thing
The write_col() method returns the first error encountered when writing the elements of the data or zero if no errors were encountered. See the return values described for the write() method above.
See also the write_arrays.pl program in the examples directory of the distro.
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# File 'lib/writeexcel/worksheet.rb', line 3321 def write_col(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end # Catch non array refs passed by user. unless args[2].respond_to?(:to_ary) raise "Not an array ref in call to write_row()"; end row, col, tokens, = args error = 0 unless tokens.nil? tokens.each do |token| # write() will deal with any nested arrays ret = write(row, col, token, ) # Return only the first error encountered, if any. error ||= ret row += 1 end end error end |
#write_comment(*args) ⇒ Object
:call-seq:
write_comment(row, col, comment[, optionhash(es)]) -> Fixnum
write_comment(A1_notation, comment[, optionhash(es)]) -> Fixnum
Write a comment to the specified row and column (zero indexed).
Returns 0 : normal termination
-1 : insufficient number of arguments
-2 : row or column out of range
The write_comment() method is used to add a comment to a cell. A cell comment is indicated in Excel by a small red triangle in the upper right-hand corner of the cell. Moving the cursor over the red triangle will reveal the comment.
The following example shows how to add a comment to a cell:
worksheet.write (2, 2, 'Hello')
worksheet.write_comment(2, 2, 'This is a comment.')
As usual you can replace the row and column parameters with an A1 cell reference. See the note about “Cell notation”.
worksheet.write ('C3', 'Hello')
worksheet.write_comment('C3', 'This is a comment.')
On systems with perl 5.8 and later the write_comment() method will also handle strings in UTF-8 format.
worksheet.write_comment('C3', "\x{263a}") # Smiley
worksheet.write_comment('C4', 'Comment ca va?')
In addition to the basic 3 argument form of write_comment() you can pass in several optional key/value pairs to control the format of the comment. For example:
worksheet.write_comment('C3', 'Hello', :visible => 1, :author => 'Ruby')
Most of these options are quite specific and in general the default comment behaviour will be all that you need. However, should you need greater control over the format of the cell comment the following options are available:
encoding
visible
x_scale
width
y_scale
height
color
start_cell
start_row
start_col
x_offset
y_offset
Option: encoding
This option is used to indicate that the comment string is encoded as
UTF-16BE.
comment = [0x263a].pack('n') # UTF-16BE Smiley symbol
worksheet.write_comment('C3', comment, :encoding => 1)
Option: author
This option is used to indicate who the author of the comment is. Excel
displays the author of the comment in the status bar at the bottom of
the worksheet. This is usually of interest in corporate environments
where several people might review and provide comments to a workbook.
worksheet.write_comment('C3', 'Atonement', :author => 'Ian McEwan')
Option: author_encoding
This option is used to indicate that the author string is encoded as UTF-16BE.
Option: visible
This option is used to make a cell comment visible when the worksheet
is opened. The default behaviour in Excel is that comments are initially
hidden. However, it is also possible in Excel to make individual or all
comments visible. In WriteExcel individual comments can be made visible
as follows:
worksheet.write_comment('C3', 'Hello', :visible => 1)
It is possible to make all comments in a worksheet visible using the show
comments() worksheet method (see below). Alternatively, if all of the cell
comments have been made visible you can hide individual comments:
worksheet.write_comment('C3', 'Hello', :visible => 0)
Option: x_scale
This option is used to set the width of the cell comment box as a factor
of the default width.
worksheet.write_comment('C3', 'Hello', :x_scale => 2)
worksheet.write_comment('C4', 'Hello', :x_scale => 4.2)
Option: width
This option is used to set the width of the cell comment box
explicitly in pixels.
worksheet.write_comment('C3', 'Hello', :width => 200)
Option: y_scale
This option is used to set the height of the cell comment box as a
factor of the default height.
worksheet.write_comment('C3', 'Hello', :y_scale => 2)
worksheet.write_comment('C4', 'Hello', :y_scale => 4.2)
Option: height
This option is used to set the height of the cell comment box
explicitly in pixels.
worksheet.write_comment('C3', 'Hello', :height => 200)
Option: color
This option is used to set the background colour of cell comment box.
You can use one of the named colours recognised by WriteExcel or a colour
index. See "COLOURS IN EXCEL".
worksheet.write_comment('C3', 'Hello', :color => 'green')
worksheet.write_comment('C4', 'Hello', :color => 0x35) # Orange
Option: start_cell
This option is used to set the cell in which the comment will appear.
By default Excel displays comments one cell to the right and one cell
above the cell to which the comment relates. However, you can change
this behaviour if you wish. In the following example the comment which
would appear by default in cell D2 is moved to E2.
worksheet.write_comment('C3', 'Hello', :start_cell => 'E2')
Option: start_row
This option is used to set the row in which the comment will appear.
See the start_cell option above. The row is zero indexed.
worksheet.write_comment('C3', 'Hello', :start_row => 0)
Option: start_col
This option is used to set the column in which the comment will appear.
See the start_cell option above. The column is zero indexed.
worksheet.write_comment('C3', 'Hello', :start_col => 4)
Option: x_offset
This option is used to change the x offset, in pixels, of a comment
within a cell:
worksheet.write_comment('C3', comment, :x_offset => 30)
Option: y_offset
This option is used to change the y offset, in pixels, of a comment
within a cell:
worksheet.write_comment('C3', comment, :x_offset => 30)
You can apply as many of these options as you require.
Note about row height and comments.
If you specify the height of a row that contains a comment then WriteExcel will adjust the height of the comment to maintain the default or user specified dimensions. However, the height of a row can also be adjusted automatically by Excel if the text wrap property is set or large fonts are used in the cell. This means that the height of the row is unknown to WriteExcel at run time and thus the comment box is stretched with the row. Use the set_row() method to specify the row height explicitly and avoid this problem.
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# File 'lib/writeexcel/worksheet.rb', line 3534 def write_comment(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end return -1 if args.size < 3 # Check the number of args row = args[0] col = args[1] # Check for pairs of optional arguments, i.e. an odd number of args. # raise "Uneven number of additional arguments" if args.size % 2 == 0 # Check that row and col are valid and store max and min values return -2 if check_dimensions(row, col) != 0 # We have to avoid duplicate comments in cells or else Excel will complain. @comments[row] = { col => comment_params(*args) } end |
#write_date_time(*args) ⇒ Object
:call-seq:
write_date_time(row, col , date_string[, format])
write_date_time(A1_notation, date_string[, format])
Write a datetime string in ISO8601 “yyyy-mm-ddThh:mm:ss.ss” format as a number representing an Excel date. format is optional.
Returns 0 : normal termination
-1 : insufficient number of arguments
-2 : row or column out of range
-3 : Invalid date_time, written as string
The write_date_time() method can be used to write a date or time to the cell specified by row and column:
worksheet.write_date_time('A1', '2004-05-13T23:20', date_format)
The date_string should be in the following format:
yyyy-mm-ddThh:mm:ss.sss
This conforms to an ISO8601 date but it should be noted that the full range of ISO8601 formats are not supported.
The following variations on the date_string parameter are permitted:
yyyy-mm-ddThh:mm:ss.sss # Standard format
yyyy-mm-ddT # No time
Thh:mm:ss.sss # No date
yyyy-mm-ddThh:mm:ss.sssZ # Additional Z (but not time zones)
yyyy-mm-ddThh:mm:ss # No fractional seconds
yyyy-mm-ddThh:mm # No seconds
Note that the T is required in all cases.
A date should always have a format, otherwise it will appear as a number, see “DATES AND TIME IN EXCEL” and “CELL FORMATTING”. Here is a typical example:
date_format = workbook.add_format(:num_format => 'mm/dd/yy')
worksheet.write_date_time('A1', '2004-05-13T23:20', date_format)
Valid dates should be in the range 1900-01-01 to 9999-12-31, for the 1900 epoch and 1904-01-01 to 9999-12-31, for the 1904 epoch. As with Excel, dates outside these ranges will be written as a string.
See also the date_time.rb program in the examples directory of the distro.
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# File 'lib/writeexcel/worksheet.rb', line 4717 def write_date_time(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end return -1 if (args.size < 3) # Check the number of args row = args[0] # Zero indexed row col = args[1] # Zero indexed column str = args[2] # Check that row and col are valid and store max and min values return -2 if check_dimensions(row, col) != 0 error = 0 date_time = convert_date_time(str) unless date_time.nil? error = write_number(row, col, date_time, args[3]) else # The date isn't valid so write it as a string. write_string(row, col, str, args[3]) error = -3 end error end |
#write_formula(*args) ⇒ Object
:call-seq:
write_formula(row, col , formula[, format, value]) -> Fixnum
write_formula(A1_notation, formula[, format, value]) -> Fixnum
Write a formula to the specified row and column (zero indexed).
format is optional. value is an optional result of the formula that can be supplied by the user.
Returns 0 : normal termination
-1 : insufficient number of arguments
-2 : row or column out of range
Write a formula or function to the cell specified by row and column:
worksheet.write_formula(0, 0, '=$B$3 + B4' )
worksheet.write_formula(1, 0, '=SIN(PI()/4)')
worksheet.write_formula(2, 0, '=SUM(B1:B5)' )
worksheet.write_formula('A4', '=IF(A3>1,"Yes", "No")' )
worksheet.write_formula('A5', '=AVERAGE(1, 2, 3, 4)' )
worksheet.write_formula('A6', '=DATEVALUE("1-Jan-2001")')
See the note about “Cell notation”. For more information about writing Excel formulas see “FORMULAS AND FUNCTIONS IN EXCEL”
See also the section “Improving performance when working with formulas” and the store_formula() and repeat_formula() methods.
If required, it is also possible to specify the calculated value of the formula. This is occasionally necessary when working with non-Excel applications that don’t calculated the value of the formula. The calculated value is added at the end of the argument list:
worksheet.write('A1', '=2+2', format, 4);
However, this probably isn’t something that will ever need to do. If you do use this feature then do so with care.
FORMULAS AND FUNCTIONS IN EXCEL
Caveats
The first thing to note is that there are still some outstanding issues with the implementation of formulas and functions:
1. Writing a formula is much slower than writing the equivalent string.
2. You cannot use array constants, i.e. {1;2;3}, in functions.
3. Unary minus isn't supported.
4. Whitespace is not preserved around operators.
5. Named ranges are not supported.
6. Array formulas are not supported.
However, these constraints will be removed in future versions. They are here because of a trade-off between features and time. Also, it is possible to work around issue 1 using the store_formula() and repeat_formula() methods as described later in this section.
Introduction
The following is a brief introduction to formulas and functions in Excel and WriteExcel.
A formula is a string that begins with an equals sign:
'=A1+B1'
'=AVERAGE(1, 2, 3)'
The formula can contain numbers, strings, boolean values, cell references, cell ranges and functions. Named ranges are not supported. Formulas should be written as they appear in Excel, that is cells and functions must be in uppercase.
Cells in Excel are referenced using the A1 notation system where the column is designated by a letter and the row by a number. Columns range from A to IV i.e. 0 to 255, rows range from 1 to 65536.
The Excel $ notation in cell references is also supported. This allows you to specify whether a row or column is relative or absolute. This only has an effect if the cell is copied. The following examples show relative and absolute values.
'=A1' # Column and row are relative
'=$A1' # Column is absolute and row is relative
'=A$1' # Column is relative and row is absolute
'=$A$1' # Column and row are absolute
Formulas can also refer to cells in other worksheets of the current workbook. For example:
'=Sheet2!A1'
'=Sheet2!A1:A5'
'=Sheet2:Sheet3!A1'
'=Sheet2:Sheet3!A1:A5'
%q{='Test Data'!A1}
%q{='Test Data1:Test Data2'!A1}
The sheet reference and the cell reference are separated by ! the exclamation mark symbol. If worksheet names contain spaces, commas o parentheses then Excel requires that the name is enclosed in single quotes as shown in the last two examples above. In order to avoid using a lot of escape characters you can use the quote operator %q{} to protect the quotes. See perlop in the main Perl documentation. Only valid sheet names that have been added using the add_worksheet() method can be used in formulas. You cannot reference external workbooks.
The following table lists the operators that are available in Excel’s formulas. The majority of the operators are the same as Perl’s, differences are indicated:
Arithmetic operators:
=====================
Operator Meaning Example
+ Addition 1+2
- Subtraction 2-1
* Multiplication 2*3
/ Division 1/4
^ Exponentiation 2^3 # Equivalent to **
- Unary minus -(1+2) # Not yet supported
% Percent (Not modulus) 13% # Not supported, [1]
Comparison operators:
=====================
Operator Meaning Example
= Equal to A1 = B1 # Equivalent to ==
<> Not equal to A1 <> B1 # Equivalent to !=
> Greater than A1 > B1
< Less than A1 < B1
>= Greater than or equal to A1 >= B1
<= Less than or equal to A1 <= B1
String operator:
================
Operator Meaning Example
& Concatenation "Hello " & "World!" # [2]
Reference operators:
====================
Operator Meaning Example
: Range operator A1:A4 # [3]
, Union operator SUM(1, 2+2, B3) # [4]
Notes:
[1]: You can get a percentage with formatting and modulus with MOD().
[2]: Equivalent to ("Hello " . "World!") in Perl.
[3]: This range is equivalent to cells A1, A2, A3 and A4.
[4]: The comma behaves like the list separator in Perl.
The range and comma operators can have different symbols in non-English versions of Excel. These will be supported in a later version of WriteExcel. European users of Excel take note:
worksheet.write('A1', '=SUM(1; 2; 3)') # Wrong!!
worksheet.write('A1', '=SUM(1, 2, 3)') # Okay
The following table lists all of the core functions supported by Excel 5 and WriteExcel. Any additional functions that are available through the “Analysis ToolPak” or other add-ins are not supported. These functions have all been tested to verify that they work.
ABS DB INDIRECT NORMINV SLN
ACOS DCOUNT INFO NORMSDIST SLOPE
ACOSH DCOUNTA INT NORMSINV SMALL
ADDRESS DDB INTERCEPT NOT SQRT
AND DEGREES IPMT NOW STANDARDIZE
AREAS DEVSQ IRR NPER STDEV
ASIN DGET ISBLANK NPV STDEVP
ASINH DMAX ISERR ODD STEYX
ATAN DMIN ISERROR OFFSET SUBSTITUTE
ATAN2 DOLLAR ISLOGICAL OR SUBTOTAL
ATANH DPRODUCT ISNA PEARSON SUM
AVEDEV DSTDEV ISNONTEXT PERCENTILE SUMIF
AVERAGE DSTDEVP ISNUMBER PERCENTRANK SUMPRODUCT
BETADIST DSUM ISREF PERMUT SUMSQ
BETAINV DVAR ISTEXT PI SUMX2MY2
BINOMDIST DVARP KURT PMT SUMX2PY2
CALL ERROR.TYPE LARGE POISSON SUMXMY2
CEILING EVEN LEFT POWER SYD
CELL EXACT LEN PPMT T
CHAR EXP LINEST PROB TAN
CHIDIST EXPONDIST LN PRODUCT TANH
CHIINV FACT LOG PROPER TDIST
CHITEST FALSE LOG10 PV TEXT
CHOOSE FDIST LOGEST QUARTILE TIME
CLEAN FIND LOGINV RADIANS TIMEVALUE
CODE FINV LOGNORMDIST RAND TINV
COLUMN FISHER LOOKUP RANK TODAY
COLUMNS FISHERINV LOWER RATE TRANSPOSE
COMBIN FIXED MATCH REGISTER.ID TREND
CONCATENATE FLOOR MAX REPLACE TRIM
CONFIDENCE FORECAST MDETERM REPT TRIMMEAN
CORREL FREQUENCY MEDIAN RIGHT TRUE
COS FTEST MID ROMAN TRUNC
COSH FV MIN ROUND TTEST
COUNT GAMMADIST MINUTE ROUNDDOWN TYPE
COUNTA GAMMAINV MINVERSE ROUNDUP UPPER
COUNTBLANK GAMMALN MIRR ROW VALUE
COUNTIF GEOMEAN MMULT ROWS VAR
COVAR GROWTH MOD RSQ VARP
CRITBINOM HARMEAN MODE SEARCH VDB
DATE HLOOKUP MONTH SECOND VLOOKUP
DATEVALUE HOUR N SIGN WEEKDAY
DAVERAGE HYPGEOMDIST NA SIN WEIBULL
DAY IF NEGBINOMDIST SINH YEAR
DAYS360 INDEX NORMDIST SKEW ZTEST
– You can also modify the module to support function names in the following languages: German, French, Spanish, Portuguese, Dutch, Finnish, Italian and Swedish. See the function_locale.pl program in the examples directory of the distro. ++
For a general introduction to Excel’s formulas and an explanation of the syntax of the function refer to the Excel help files or the following: office.microsoft.com/en-us/assistance/CH062528031033.aspx
If your formula doesn’t work in WriteExcel try the following:
1. Verify that the formula works in Excel (or Gnumeric or OpenOffice.org).
2. Ensure that it isn't on the Caveats list shown above.
3. Ensure that cell references and formula names are in uppercase.
4. Ensure that you are using ':' as the range operator, A1:A4.
5. Ensure that you are using ',' as the union operator, SUM(1,2,3).
6. Ensure that the function is in the above table.
If you go through steps 1-6 and you still have a problem, mail me.
Improving performance when working with formulas
Writing a large number of formulas with WriteExcel can be slow. This is due to the fact that each formula has to be parsed and with the current implementation this is computationally expensive.
However, in a lot of cases the formulas that you write will be quite similar, for example:
worksheet.write_formula('B1', '=A1 * 3 + 50', format)
worksheet.write_formula('B2', '=A2 * 3 + 50', format)
...
...
worksheet.write_formula('B99', '=A999 * 3 + 50', format)
worksheet.write_formula('B1000', '=A1000 * 3 + 50', format)
In this example the cell reference changes in iterations from A1 to A1000. The parser treats this variable as a token and arranges it according to predefined rules. However, since the parser is oblivious to the value of the token, it is essentially performing the same calculation 1000 times. This is inefficient.
The way to avoid this inefficiency and thereby speed up the writing of formulas is to parse the formula once and then repeatedly substitute similar tokens.
A formula can be parsed and stored via the store_formula() worksheet method. You can then use the repeat_formula() method to substitute pattern, replace pairs in the stored formula:
formula = worksheet.store_formula('=A1 * 3 + 50')
(0...1000).each do |row|
worksheet.repeat_formula(row, 1, formula, format, 'A1', 'A'.(row +1))
end
On an arbitrary test machine this method was 10 times faster than the brute force method shown above. – For more information about how WriteExcel parses and stores formulas see the WriteExcel::Formula man page.
It should be noted however that the overall speed of direct formula parsing will be improved in a future version. ++
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# File 'lib/writeexcel/worksheet.rb', line 3112 def write_formula(*args) # Check for a cell reference in A1 notation and substitute row and column if (args[0] =~ /^\D/) args = substitute_cellref(args) end return -1 if args.size < 3 # Check the number of args row = args[0] # Zero indexed row col = args[1] # Zero indexed column formula = args[2].dup # The formula text string value = args[4] # The formula text string xf = xf_record_index(row, col, args[3]) # The cell format # Check that row and col are valid and store max and min values return -2 if check_dimensions(row, col) != 0 # Strip the = sign at the beginning of the formula string formula.sub!(/^=/, '') # Parse the formula using the parser in Formula.pm # nakamura add: to get byte_stream, set second arg TRUE # because ruby doesn't have Perl's "wantarray" formula = @parser.parse_formula(formula, true) store_formula_common(row, col, xf, value, formula) 0 end |
#write_number(*args) ⇒ Object
:call-seq:
write_number(row, col, token[, format])
write_number(A1_notation, token[, format])
Write a double to the specified row and column (zero indexed). An integer can be written as a double. Excel will display an integer. $format is optional.
Returns 0 : normal termination
-1 : insufficient number of arguments
-2 : row or column out of range
Write an integer or a float to the cell specified by row and column
worksheet.write_number(0, 0, 123456)
worksheet.write_number('A2', 2.3451)
See the note about “Cell notation”. The format parameter is optional.
In general it is sufficient to use the write() method.
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# File 'lib/writeexcel/worksheet.rb', line 2610 def write_number(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end return -1 if args.size < 3 # Check the number of args record = 0x0203 # Record identifier length = 0x000E # Number of bytes to follow row = args[0] # Zero indexed row col = args[1] # Zero indexed column num = args[2] xf = xf_record_index(row, col, args[3]) # The cell format # Check that row and col are valid and store max and min values return -2 if check_dimensions(row, col) != 0 header = [record, length].pack('vv') data = [row, col, xf].pack('vvv') xl_double = [num].pack("d") xl_double.reverse! if @byte_order != 0 && @byte_order != '' # Store the data or write immediately depending on the compatibility mode. if @compatibility != 0 tmp = [] tmp[col] = header + data + xl_double @table[row] = tmp else append(header, data, xl_double) end 0 end |
#write_row(*args) ⇒ Object
:call-seq:
write_row(row, col , array[, format])
write_row(A1_notation, array[, format])
Write a row of data starting from (row, col). Call write_col() if any of the elements of the array are in turn array. This allows the writing of 1D or 2D arrays of data in one go.
Returns: the first encountered error value or zero for no errors
The write_row() method can be used to write a 1D or 2D array of data in one go. This is useful for converting the results of a database query into an Excel worksheet. You must pass a reference to the array of data rather than the array itself. The write() method is then called for each element of the data. For example:
array = ['awk', 'gawk', 'mawk']
worksheet.write_row(0, 0, array_ref)
# The above example is equivalent to:
worksheet.write(0, 0, array[0])
worksheet.write(0, 1, array[1])
worksheet.write(0, 2, array[2])
Note: For convenience the write() method behaves in the same way as write_row() if it is passed an array. Therefore the following two method calls are equivalent:
worksheet.write_row('A1', array) # Write a row of data
worksheet.write( 'A1', array) # Same thing
As with all of the write methods the format parameter is optional. If a format is specified it is applied to all the elements of the data array.
Array references within the data will be treated as columns. This allows you to write 2D arrays of data in one go. For example:
eec = [
['maggie', 'milly', 'molly', 'may' ],
[13, 14, 15, 16 ],
['shell', 'star', 'crab', 'stone']
]
worksheet.write_row('A1', eec)
Would produce a worksheet as follows:
-----------------------------------------------------------
| | A | B | C | D | E | ...
-----------------------------------------------------------
| 1 | maggie | 13 | shell | ... | ... | ...
| 2 | milly | 14 | star | ... | ... | ...
| 3 | molly | 15 | crab | ... | ... | ...
| 4 | may | 16 | stone | ... | ... | ...
| 5 | ... | ... | ... | ... | ... | ...
| 6 | ... | ... | ... | ... | ... | ...
To write the data in a row-column order refer to the write_col() method below.
Any nil
values in the data will be ignored unless a format is applied to the data, in which case a formatted blank cell will be written. In either case the appropriate row or column value will still be incremented.
The write_row() method returns the first error encountered when writing the elements of the data or zero if no errors were encountered. See the return values described for the write() method above.
See also the write_arrays.rb program in the examples directory of the distro.
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# File 'lib/writeexcel/worksheet.rb', line 3217 def write_row(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end # Catch non array refs passed by user. unless args[2].respond_to?(:to_ary) raise "Not an array ref in call to write_row() #{$!}"; end row, col, tokens, = args error = 0 unless tokens.nil? tokens.each do |token| # Check for nested arrays if token.respond_to?(:to_ary) ret = write_col(row, col, token, ) else ret = write(row, col, token, ) end # Return only the first error encountered, if any. error ||= ret col += 1 end end error end |
#write_string(*args) ⇒ Object
:call-seq:
write_string(row, col, token[, format])
write_string(A1_notation, token[, format])
Write a string to the specified row and column (zero indexed).
The format parameter is optional.
Returns 0 : normal termination
-1 : insufficient number of arguments
-2 : row or column out of range
-3 : long string truncated to 255 chars
worksheet.write_string(0, 0, 'Your text here')
worksheet.write_string('A2', 'or here')
The maximum string size is 32767 characters. However the maximum string segment that Excel can display in a cell is 1000. All 32767 characters can be displayed in the formula bar.
The write() method will also handle strings in UTF-8 format. You can also write Unicode in UTF16 format via the write_utf16be_string() method.
In general it is sufficient to use the write() method. However, you may sometimes wish to use the write_string() method to write data that looks like a number but that you don’t want treated as a number. For example, zip codes or phone numbers:
# Write as a plain string
worksheet.write_string('A1', '01209')
However, if the user edits this string Excel may convert it back to a number. To get around this you can use the Excel text format @:
# Format as a string. Doesn't change to a number when edited
format1 = workbook.add_format(:num_format => '@')
worksheet.write_string('A2', '01209', format1)
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# File 'lib/writeexcel/worksheet.rb', line 2688 def write_string(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end return -1 if (args.size < 3) # Check the number of args record = 0x00FD # Record identifier length = 0x000A # Bytes to follow row = args[0] # Zero indexed row col = args[1] # Zero indexed column str = args[2].to_s strlen = str.bytesize xf = xf_record_index(row, col, args[3]) # The cell format encoding = 0x0 str_error = 0 ruby_19 {str = convert_to_ascii_if_ascii(str) } # Handle utf8 strings ruby_18 do if str =~ NonAscii str_utf16le = utf8_to_16le(str) return write_utf16le_string(row, col, str_utf16le, args[3]) end end ruby_19 do if str.encoding == Encoding::UTF_8 str_utf16le = utf8_to_16le(str) return write_utf16le_string(row, col, str_utf16le, args[3]) end end # Check that row and col are valid and store max and min values return -2 if check_dimensions(row, col) != 0 # Limit the string to the max number of chars. if (strlen > 32767) str = str[0, 32767] str_error = -3 end # Prepend the string with the type. str_header = [str.length, encoding].pack('vC') str = str_header + str if @sinfo[:str_table][str].nil? @sinfo[:str_table][str] = @sinfo[:str_unique] @sinfo[:str_unique] += 1 end @sinfo[:str_total] += 1 header = [record, length].pack('vv') data = [row, col, xf, @sinfo[:str_table][str]].pack('vvvV') # Store the data or write immediately depending on the compatibility mode. store_with_compatibility(row, col, header + data) str_error end |
#write_url(*args) ⇒ Object
:call-seq:
write_url(row, col , url[, label, , format]) -> int
write_url(A1_notation, url[, label, , format]) -> int
Write a hyperlink. This is comprised of two elements: the visible label and the invisible link. The visible label is the same as the link unless an alternative string is specified.
The parameters label and format are optional.
The url can be to a http, ftp, mail, internal sheet, or external directory url.
Returns 0 : normal termination
-1 : insufficient number of arguments
-2 : row or column out of range
-3 : long string truncated to 255 chars
Write a hyperlink to a URL in the cell specified by row and column. The hyperlink is comprised of two elements: the visible label and the invisible link. The visible label is the same as the link unless an alternative label is specified. The parameters label and the format are optional.
The label is written using the write() method. Therefore it is possible to write strings, numbers or formulas as labels.
There are four web style URI’s supported: http://, https://, ftp:// and
- mailto
-
worksheet.write_url(0, 0, ‘www.ruby.org/’ ) worksheet.write_url(1, 0, ‘www.ruby.com/’, ‘Ruby home’ ) worksheet.write_url(‘A3’, ‘www.ruby.com/’, format ) worksheet.write_url(‘A4’, ‘www.ruby.com/’, ‘Perl’, format) worksheet.write_url(‘A5’, ‘[email protected]’ )
There are two local URIs supported: internal: and external:. These are used for hyperlinks to internal worksheet references or external workbook and worksheet references:
worksheet.write_url('A6', 'internal:Sheet2!A1' )
worksheet.write_url('A7', 'internal:Sheet2!A1', format )
worksheet.write_url('A8', 'internal:Sheet2!A1:B2' )
worksheet.write_url('A9', q{internal:'Sales Data'!A1} )
worksheet.write_url('A10', 'external:c:\temp\foo.xls' )
worksheet.write_url('A11', 'external:c:\temp\foo.xls#Sheet2!A1' )
worksheet.write_url('A12', 'external:..\..\..\foo.xls' )
worksheet.write_url('A13', 'external:..\..\..\foo.xls#Sheet2!A1' )
worksheet.write_url('A13', 'external:\\\\NETWORK\share\foo.xls' )
All of the these URI types are recognised by the write() method, see above.
Worksheet references are typically of the form Sheet1!A1. You can also refer to a worksheet range using the standard Excel notation: Sheet1!A1:B2.
In external links the workbook and worksheet name must be separated by the # character: external:Workbook.xls#Sheet1!A1’.
You can also link to a named range in the target worksheet. For example say you have a named range called my_name in the workbook c:tempfoo.xls you could link to it as follows:
worksheet.write_url('A14', 'external:c:\temp\foo.xls#my_name')
Note, you cannot currently create named ranges with WriteExcel.
Links to network files are also supported. MS/Novell Network files normally begin with two back slashes as follows \NETWORKetc. In order to generate this in a single or double quoted string you will have to escape the backslashes, ‘\\NETWORKetc’.
If you are using double quote strings then you should be careful to escape anything that looks like a metacharacter. Why can’t I use “C:tempfoo” in DOS paths?.
Finally, you can avoid most of these quoting problems by using forward slashes. These are translated internally to backslashes:
worksheet.write_url('A14', "external:c:/temp/foo.xls" )
worksheet.write_url('A15', 'external://NETWORK/share/foo.xls' )
See also, the note about “Cell notation”.
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# File 'lib/writeexcel/worksheet.rb', line 4252 def write_url(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end # Check the number of args return -1 if args.size < 3 # Add start row and col to arg list write_url_range(args[0], args[1], *args) end |
#write_url_range(*args) ⇒ Object
:call-seq:
write_url_range(row1, col1, row2, col2, url[, string, , format]) -> Fixnum
write_url_range('A1:D2', url[, string, , format]) -> Fixnum
This is the more general form of write_url(). It allows a hyperlink to be written to a range of cells. This function also decides the type of hyperlink to be written. These are either, Web (http, ftp, mailto), Internal (Sheet1!A1) or external (‘c:tempfoo.xls#Sheet1!A1’).
See also write_url() above for a general description and return values.
This method is essentially the same as the write_url() method described above. The main difference is that you can specify a link for a range of cells:
worksheet.write_url(0, 0, 0, 3, 'ftp://www.ruby.org/' )
worksheet.write_url(1, 0, 0, 3, 'http://www.ruby.com/', 'Ruby home')
worksheet.write_url('A3:D3', 'internal:Sheet2!A1' )
worksheet.write_url('A4:D4', 'external:c:\temp\foo.xls' )
This method is generally only required when used in conjunction with merged cells. See the merge_range() method and the merge property of a Format object, “CELL FORMATTING”.
There is no way to force this behaviour through the write() method.
The parameters string and the $format are optional and their position is interchangeable. However, they are applied only to the first cell in the range.
See also, the note about “Cell notation”.
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# File 'lib/writeexcel/worksheet.rb', line 4298 def write_url_range(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end # Check the number of args return -1 if args.size < 5 # Reverse the order of _string_ and $format if necessary. We work on a copy # in order to protect the callers args. We don't use "local @_" in case of # perl50005 threads. # args[5], args[6] = [ args[6], args[5] ] if args[5].respond_to?(:xf_index) url = args[4] # Check for internal/external sheet links or default to web link return write_url_internal(*args) if url =~ /^internal:/ return write_url_external(*args) if url =~ /^external:/ write_url_web(*args) end |
#write_utf16be_string(*args) ⇒ Object
write_utf16be_string($row, $col, $string, $format)
Write a Unicode string to the specified row and column (zero indexed). $format is optional. Returns 0 : normal termination
-1 : insufficient number of arguments
-2 : row or column out of range
-3 : long string truncated to 255 chars
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# File 'lib/writeexcel/worksheet.rb', line 6366 def write_utf16be_string(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end return -1 if (args.size < 3) # Check the number of args record = 0x00FD # Record identifier length = 0x000A # Bytes to follow row = args[0] # Zero indexed row col = args[1] # Zero indexed column strlen = args[2].bytesize str = args[2] xf = xf_record_index(row, col, args[3]) # The cell format encoding = 0x1 str_error = 0 # Check that row and col are valid and store max and min values return -2 if check_dimensions(row, col) != 0 # Limit the utf16 string to the max number of chars (not bytes). if strlen > 32767* 2 str = str[0..32767*2] str_error = -3 end num_bytes = str.bytesize num_chars = (num_bytes / 2).to_i # Check for a valid 2-byte char string. raise "Uneven number of bytes in Unicode string" if num_bytes % 2 != 0 # Change from UTF16 big-endian to little endian str = str.unpack('n*').pack('v*') # Add the encoding and length header to the string. str_header = [num_chars, encoding].pack("vC") str = str_header + str unless @sinfo[:str_table][str] @sinfo[:str_table][str] = @sinfo[:str_unique] @sinfo[:str_unique] += 1 end @sinfo[:str_total] += 1 header = [record, length].pack("vv") data = [row, col, xf, @sinfo[:str_table][str]].pack("vvvV") # Store the data or write immediately depending on the compatibility mode. store_with_compatibility(row, col, header + data) str_error end |
#write_utf16le_string(*args) ⇒ Object
write_utf16le_string($row, $col, $string, $format)
Write a UTF-16LE string to the specified row and column (zero indexed). $format is optional. Returns 0 : normal termination
-1 : insufficient number of arguments
-2 : row or column out of range
-3 : long string truncated to 255 chars
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# File 'lib/writeexcel/worksheet.rb', line 6434 def write_utf16le_string(*args) # Check for a cell reference in A1 notation and substitute row and column if args[0] =~ /^\D/ args = substitute_cellref(*args) end return -1 if (args.size < 3) # Check the number of args record = 0x00FD # Record identifier length = 0x000A # Bytes to follow row = args[0] # Zero indexed row col = args[1] # Zero indexed column str = args[2] format = args[3] # The cell format # Change from UTF16 big-endian to little endian str = str.unpack('n*').pack("v*") write_utf16be_string(row, col, str, format) end |