############################################################################## # # Copyright (c) 2005 Nexedi SARL and Contributors. All Rights Reserved. # Tomas Bernard <thomas@nexedi.com> # from an original experimental script written by : # Jonathan Loriette <john@nexedi.com> # # WARNING: This program as such is intended to be used by professional # programmers who take the whole responsability of assessing all potential # consequences resulting from its eventual inadequacies and bugs # End users who are looking for a ready-to-use solution with commercial # garantees and support are strongly adviced to contract a Free Software # Service Company # # This program is Free Software; you can redistribute it and/or # modify it under the terms of the GNU General Public License # as published by the Free Software Foundation; either version 2 # of the License, or (at your option) any later version. # # This program is distributed in the hope that it will be useful, # but WITHOUT ANY WARRANTY; without even the implied warranty of # MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the # GNU General Public License for more details. # # You should have received a copy of the GNU General Public License # along with this program; if not, write to the Free Software # Foundation, Inc., 59 Temple Place - Suite 330, Boston, MA 02111-1307, USA. # ############################################################################## import pdb import string, types, sys # class monitoring access security control from Products.PythonScripts.Utility import allow_class from AccessControl import ClassSecurityInfo from Globals import InitializeClass from Form import BasicForm from Products.Formulator.Field import ZMIField from Products.Formulator.DummyField import fields from Products.Formulator.MethodField import BoundMethod from DateTime import DateTime from Products.Formulator import Widget, Validator from Products.Formulator.Errors import FormValidationError, ValidationError from SelectionTool import makeTreeList,TreeListLine from Selection import Selection, DomainSelection import OFS from AccessControl import ClassSecurityInfo from zLOG import LOG from copy import copy from Acquisition import aq_base, aq_inner, aq_parent, aq_self from Products.Formulator.Form import BasicForm from Products.CMFCore.utils import getToolByName from Products.ERP5Type.Utils import getPath from Products.ERP5Type.Message import Message class PlanningBoxValidator(Validator.StringBaseValidator): """ Class holding all methods used to validate a modified PlanningBox can be called only from an HTML rendering using wz_dragdrop script """ def validate(self,field,key,REQUEST): """ main method to solve validation - rebuild the whole planning structure but do not display it. this is needed to be able to get the block positions - apply block movements recovered from the java script - for each block moved, check the modification (over he primary axis in case task association has changed, and also over the secondary axis to check block movement / resizement). Beware : This checking part does not include constraint checking. - build a list with the validated blocks and also with the error blocks (if any). - return a dict of values to update objects in case no errors have been found. Otherwise save in the REQUEST the list of error blocks so that they can be displayed in a special way. """ # init params value = None form = field.aq_parent here = getattr(form, 'aq_parent', REQUEST) # recover usefull properties block_moved_string = REQUEST.get('block_moved','') block_previous_string = REQUEST.get('previous_block_moved','') #pdb.set_trace() ################################################## ############## REBUILD STRUCTURE ################# ################################################## # build structure structure = PlanningBoxWidgetInstance.render_structure(field=field, key=key, value=value, REQUEST=REQUEST, here=here) # getting coordinates script generator planning_coordinates_method = getattr(here,'planning_coordinates') # calling script to generate coordinates planning_coordinates = planning_coordinates_method(structure=structure) ################################################## ########## RECOVERING BLOCK MOVED DICTS ########## ################################################## # converting string to a structure block_moved_list = self.getBlockPositionFromString(block_moved_string) # block_moved_list now holds a list of structure recovered from the REQUEST # and correspondig to the movements done before validating block_previous_list =\ self.getBlockPositionFromString(block_previous_string) # list of previous blocks moved if an error occured during previous # validation # updating block_moved_list using block_previous_list. # This is very important not to escape processing blocks that have been # moved during a previous validation attempt. if block_previous_list != [] and block_moved_list != []: for block_previous in block_previous_list: # checking if the block has been moved again in this validation attempt # if it is the case, the block must be also present in the current # block_moved_list block_found = {} for block_moved in block_moved_list: if block_moved['name'] == block_previous['name']: block_found = block_moved break if block_found != {}: # block has been moved again, updating its properties in the current # list to take into account its previous position. current block is # known as 'block_found', and the value to update is the original # absolute position used to get relative coordinates block_found['old_X'] = block_previous['old_X'] block_found['old_Y'] = block_previous['old_Y'] else: # block has not been moved again, adding old block informations to # the current list of block_moved block_moved_list.append(block_previous) elif block_previous_list != []: # block_moved_list is empty but not block_previous_list. This means the # user is trying to validate again without any change block_moved_list = block_previous_list elif block_moved_list != []: # block_previous_list is empty, this means this is the first validation # attempt. Using the block_moved_list as it is pass else: # the two lists are empty : nothing to validate return None # block_moved_list is updated # dict aimed to hold all informations about block final_block_dict = {} # dict holding all the activities that will need an update because at least # one of the blocks concerned is moved activity_dict = {} # list holding all the activities having one of their block not validated # in such a case the update process of the activity is canceled warning_activity_list = [] error_block_list = [] error_info_dict = {} ################################################## ########## GETTING BLOCK INFORMATIONS ############ ################################################## # iterating each block_moved element and recovering all usefull properties # BEWARE : no update is done here as an activity can be composed of several # blocks and so we need first to check all the blocks moved for block_moved in block_moved_list: final_block = {} # recovering the block object from block_moved informations final_block['block_object'] = self.getBlockObject(block_moved['name'], \ structure.planning.content) # recovering original activity object final_block['activity_origin'] = \ final_block['block_object'].parent_activity # recovering original axis_group object final_block['group_origin'] = \ final_block['activity_origin'].parent_axis_element.parent_axis_group # recovering relative block information in planning_coordinates final_block['block_info'] = \ planning_coordinates['content'][block_moved['name']] # calculating delta # block_moved holds coordinates recovered from drag&drop script, while # block_info has the relative coordinates. # In fact the Drag&Drop java script used to get destination coordinates # gives them in absolute. so using original block position to get the # relative position deltaX = block_moved['old_X'] - final_block['block_info']['margin-left'] deltaY = block_moved['old_Y'] - final_block['block_info']['margin-top'] # calculating new block position: # width and height are already in the good format block_moved['left'] = block_moved['new_X'] - deltaX block_moved['top'] = block_moved['new_Y'] - deltaY # abstracting axis representation (for generic processing) if structure.planning.calendar_view == 0: block_moved['main_axis_position'] = block_moved['top'] block_moved['main_axis_length'] = block_moved['height'] block_moved['secondary_axis_position'] = block_moved['left'] block_moved['secondary_axis_length'] = block_moved['width'] # used afterwards to get destination group group_position = 'margin-top' group_length = 'height' # used afterwards to get secondary axis displacements and modifications axis_length = 'width' else: block_moved['main_axis_position'] = block_moved['left'] block_moved['main_axis_length'] = block_moved['width'] block_moved['secondary_axis_position'] = block_moved['top'] block_moved['secondary_axis_length'] = block_moved['height'] group_position = 'margin-left' group_length = 'width' axis_length = 'height' # calculating center of block over main axis to check block position block_moved['center'] = (block_moved['main_axis_length'] / 2) + \ block_moved['main_axis_position'] # now that block coordinates are recovered as well as planning # coordinates, recovering destination group over the main axis to know # if the block has been moved from a group to another group_destination = self.getDestinationGroup(structure, block_moved,planning_coordinates['main_axis'], group_position, group_length) if group_destination == None: # !! Generate an Error !! # block has been moved outside the content area (not in line with any # group of the current area). # adding current block to error_list error_block_list.append(block_moved['name']) error_info_dict[block_moved['name']] = 'out of bounds on main axis' # adding if necessary current activity to warning_list if final_block['activity_origin'].name not in warning_activity_list: warning_activity_list.append(final_block['activity_origin'].name) # now that all informations about the main axis changes are # known, checking modifications over the secondary axis. secondary_axis_positions = self.getDestinationBounds(structure, block_moved, final_block['block_object'], planning_coordinates, axis_length) if secondary_axis_positions[2] == 1 : # !! Generate an Error !! # block has been moved outside the content area (bounds do not match # current area limits) if block_moved['name'] not in error_block_list: error_block_list.append(block_moved['name']) error_info_dict[block_moved['name']] = 'out of bounds on sec axis' if final_block['activity_origin'].name not in warning_activity_list: warning_activity_list.append(final_block['activity_origin'].name) block_moved['secondary_axis_start'] = secondary_axis_positions[0] block_moved['secondary_axis_stop'] = secondary_axis_positions[1] final_block['block_moved'] = block_moved final_block['group_destination'] = group_destination #final_block_dict[block_moved['name']] = final_block try: activity_dict[final_block['activity_origin'].name].append(final_block) except KeyError: activity_dict[final_block['activity_origin'].name] = [final_block] ################################################## ############# UPDATING ACTIVITIES ################ ################################################## update_dict = {} errors_list = [] # getting start & stop property names start_property = structure.basic.field.get_value('x_start_bloc') stop_property = structure.basic.field.get_value('x_stop_bloc') # getting round_script if exists round_script=getattr(here,field.get_value('round_script'),None) # now processing activity updates for activity_name in activity_dict.keys(): # recovering list of moved blocks in the current activity activity_block_moved_list = activity_dict[activity_name] # recovering activity object from first moved block activity_object = activity_block_moved_list[0]['activity_origin'] # now getting list of blocks related to the activity (moved or not) activity_block_list = activity_object.block_list if activity_object.name in warning_activity_list: # activity contains a block that has not be validated # The validation update process is canceled, and the error is reported err = ValidationError(StandardError,activity_object) errors_list.append(err) pass else: # no error : continue # recovering new activity bounds (start_value, stop_value) = \ self.getActivityBounds(activity_object, activity_block_moved_list, activity_block_list) # call specific external method to round value if round_script != None: start_value = round_script(start_value) stop_value = round_script(stop_value) # saving updated informations in the final dict update_dict[activity_object.object.getUrl()] = \ {start_property:start_value, stop_property:stop_value} # testing if need to raise errors if len(errors_list) > 0: # need to raise an error # rebuilt position string including new values block_moved_string = self.setBlockPositionToString(block_moved_list) # save the current block_list for repositionning the blocks # to their final position REQUEST.set('previous_block_moved',block_moved_string) # saving blocks not validated as such as the activity they belong to to # apply a special treatment. REQUEST.set('warning_activity_list',warning_activity_list) REQUEST.set('error_block_list',error_block_list) REQUEST.set('error_info_dict',error_info_dict) # now raise error => automatically called # parameters are : # -list of errors # - dict with error results raise FormValidationError(errors_list, {} ) # the whole process is now finished, just need to return final dict # for updating data return update_dict def getBlockPositionFromString(self, block_string): """ takes a string with block data and convert it to a list of dicts """ block_list = [] if block_string != '': block_object_list = block_string.split('*') for block_object_string in block_object_list: block_dict = None block_dict = {} block_sub_list = block_object_string.split(',') block_dict['name'] = block_sub_list[0] block_dict['old_X'] = float(block_sub_list[1]) block_dict['old_Y'] = float(block_sub_list[2]) block_dict['new_X'] = float(block_sub_list[3]) block_dict['new_Y'] = float(block_sub_list[4]) block_dict['width'] = float(block_sub_list[5]) block_dict['height'] = float(block_sub_list[6]) block_list.append(block_dict) return block_list else: return block_list def setBlockPositionToString(self,block_list): """ takes a list of dicts updated and convert it to a string in order to save it in the request """ block_string = '' if block_list != []: block_object_list = [] for block_dict in block_list: # property position is important that's why ','.join() is not used in # this case block_sub_string = '%s,%s,%s,%s,%s,%s,%s' % ( str(block_dict['name']), str(block_dict['old_X']), str(block_dict['old_Y']), str(block_dict['new_X']), str(block_dict['new_Y']), str(block_dict['width']), str(block_dict['height']) ) block_object_list.append(block_sub_string) block_string = '*'.join(block_object_list) return block_string else: return block_string def getBlockObject(self, block_name, content_list): """ recover the block related to the block_name inside the content_list """ for block in content_list: if block.name == block_name: return block def getDestinationGroup(self, structure, block_moved, axis_groups, group_position, group_length): """ recover destination group from block coordinates and main axis coordinates block_moved is a dict of properties. returns the group object itself, none if the block has no good coordinates """ good_group_name = '' # recovering group name for axis_name in axis_groups.keys(): if axis_groups[axis_name][group_position] < block_moved['center'] and \ axis_groups[axis_name][group_position] + \ axis_groups[axis_name][group_length] > block_moved['center']: # the center of the block is between group min and max bounds # the group we are searching for is known good_group_name = axis_name break # if no group is found, this means the block is outside the bounds if good_group_name == '': return None # group name is known, searching corresponding group object for group in structure.planning.main_axis.axis_group: if group.name == good_group_name: return group return None def getDestinationBounds(self, structure, block_moved, block_object, planning_coordinates, axis_length): """ check the new bounds of the block over the secondary axis according to its new position """ error = 0 # XXX CALENDAR # has to be improved : for now the axis bounds are recovered globally, it # implies that all groups have the same bounds, which is not the case in # calendar mode. for that will need to add special informations about the # group itself to know its own bounds. delta_start = block_moved['secondary_axis_position'] / \ planning_coordinates['frame']['planning_content'][axis_length] delta_stop = (block_moved['secondary_axis_position'] + \ block_moved['secondary_axis_length']) / \ planning_coordinates['frame']['planning_content'][axis_length] # testing different cases of invalidation if delta_stop < 0 or delta_start > 1 : # block if fully out of the bounds # can not validate it : returning None error = 1 else: if delta_start < 0 or delta_stop > 1: # part of the block is inside pass axis_range = structure.basic.secondary_axis_info['bound_stop'] - \ structure.basic.secondary_axis_info['bound_start'] # defining new final block bounds new_start = structure.basic.secondary_axis_info['bound_start'] + \ delta_start * axis_range new_stop = structure.basic.secondary_axis_info['bound_start'] + \ delta_stop * axis_range # update block bounds (round to the closest round day) #new_start = DateTime(new_start.Date()) #new_stop = DateTime(new_stop.Date()) return [new_start,new_stop, error] def getActivityBounds(self, activity, activity_block_moved_list, activity_block_list): """ takes a list with modified blocks and another one with original blocks, returning new startactivity_block_moved_list & stop for the activity BEWARE : in case an activity bound was cut off to fit planning size, the value will not be updated (as the block was not on the real activity bound) """ # getting list moved block names block_moved_name_list = map(lambda x: x['block_moved']['name'], activity_block_moved_list) for activity_block in activity_block_list: if activity_block.name in block_moved_name_list: # the block composing the activity has been moved, not taking care of # the original one, but only the final position (block_moved) for temp_block_moved in activity_block_moved_list: # recovering corresponding moved block if temp_block_moved['block_moved']['name'] == activity_block.name: # moved block has been found temp_start =temp_block_moved['block_moved']['secondary_axis_start'] temp_stop = temp_block_moved['block_moved']['secondary_axis_stop'] break else: # the block has not been moved temp_start = activity_block.position_secondary.absolute_begin temp_stop = activity_block.position_secondary.absolute_end # once the start & stop values are recovered, need to test them to check # if it is needed to update try: if temp_start < new_start: new_start = temp_start if temp_stop > new_stop: new_stop = temp_stop except NameError: # new_start is not defined because it is the first block found new_start = temp_start new_stop = temp_stop # new start & stop values are known # checking weither activity has been cut-off to fit the planning bounds if activity.secondary_axis_begin != activity.secondary_axis_start: new_start = activity.secondary_axis_begin if activity.secondary_axis_end != activity.secondary_axis_stop: new_stop = activity.secondary_axis_end return [new_start,new_stop] class PlanningBoxWidget(Widget.Widget): """ PlanningBox main class used to run all the process in order to generate the structure of the Planning including all internal properties. Contains BasicStructure and PlanningStructure instances """ property_names = Widget.Widget.property_names +\ [ 'js_enabled', # kind of display : YX or XY 'calendar_view', # number of groups over the main axis 'main_axis_groups', # width properties 'size_border_width_left','size_planning_width','size_y_axis_space', 'size_y_axis_width', # height properties 'size_header_height','size_planning_height','size_x_axis_space', 'size_x_axis_height', # axis position 'y_axis_position', 'x_axis_position', 'report_root_list','selection_name', 'portal_types','sort', 'list_method', # method used to get title of each line 'title_line', # specific block properties 'x_start_bloc','x_stop_bloc', 'y_size_block', # name of scripts 'stat_method','split_method','color_script', 'round_script','sec_axis_script', # number of delimitations over the secondary axis 'delimiter', # specific methods for inserting info block 'info_center','info_topleft','info_topright', 'info_backleft','info_backright' ] """ 'security_index' # constraint method between block 'constraint_method', """ # Planning properties (accessed through Zope Management Interface) # kind of representation to render : # Planning or Calendar js_enabled = fields.CheckBoxField('js_enabled', title='enable on the fly editing (based on java script)', description='define if javascript is enabled or not on the current Planning', default=1, required=1) # kind of representation to render : # Planning or Calendar calendar_view = fields.CheckBoxField('calendar_view', title='calendar view (vertical view)', description='define if need to changes axis order. By default Y axis is' 'main axis, but to displa calendar main axis must be X one.', default=0, required=1) # added especially for new Planning Structure generation # is used to split result in pages in a ListBox like rendering # (delimitation over the main axis) main_axis_groups = fields.IntegerField('main_axis_groups', title='groups per page on main axis', description=('number of groups displayed per page on main axis'), default=10, required=1) # setting header height size_header_height = fields.IntegerField('size_header_height', title='header height', desciption=( 'height of the planning header'), default=100, required=1) # setting left border size size_border_width_left = fields.IntegerField('size_border_width_left', title='Size border width left', desciption=( 'setting left border size'), default=10, required=1) # setting the width of the Planning (excl. Y axis : only the block area) size_planning_width = fields.IntegerField('size_planning_width', title='Planning width', desciption=( 'size of the planning area, excluding axis size'), default=1000, required=1) # setting the with of the Y axis size_y_axis_width = fields.IntegerField('size_y_axis_width', title='Y axis width', description=( 'width of the Y axis'), default=200, required=1) # setting the with of the space (between Planning and Y axis) size_y_axis_space = fields.IntegerField('size_y_axis_space', title='Y axis space', description=( 'space between Y axis and PLanning content'), default=10, required=1) # setting the height of the Planning (excl. X axis) size_planning_height = fields.IntegerField('size_planning_height', title='Planning height', description=( 'size of the planning area, excluding axis_size'), default=800, required=1) # setting the height of the X axis size_x_axis_height = fields.IntegerField('size_x_axis_height', title='X axis height', description=( 'height of the X axis'), default=200, required=1) # setting the height of the space (between Planning and X axis) size_x_axis_space = fields.IntegerField('size_x_axis_space', title='X axis space', description=( 'space between X axis and Planning content '), default=10, required=1) y_axis_position = fields.CheckBoxField('y_axis_position', title='Force Y axis to the right intead of left', description=('position of Y axis over the planning content.' 'If checked, the Y axis will match the right border' 'of the planning, otherwise default is applied : left'), default = 0, required = 1) x_axis_position = fields.CheckBoxField('x_axis_position', title='Force X axis to the bottom instead of top', description=('position of X axis over the planning content.' 'default is top, if checked then right apply'), default = 0, required = 1) default = fields.TextAreaField('default', title='Default', description=( "Default value of the text in the widget."), default="", width=20, height=3, required=0) delimiter = fields.IntegerField('delimiter', title='min number of delimiters over the secondary axis', description=("min number of delimitations over the sec axis, required"), default = 5, required=1) report_root_list = fields.ListTextAreaField('report_root_list', title="Report Root", description=("A list of domains which define the possible root."), default=[], required=0) selection_name = fields.StringField('selection_name', title='Selection Name', description=("The name of the selection to store selections params"), default='planning_0', required=1) portal_types = fields.ListTextAreaField('portal_types', title="Portal Types", description=("Portal Types of objects to list. Required."), default=[], required=0) sort = fields.ListTextAreaField('sort', title='Default Sort', description=("The default sort keys and order"), default=[], required=0) list_method = fields.MethodField('list_method', title='List Method', description=("Method to use to list objects"), default='searchFolder', required=0) title_line = fields.StringField('title_line', title="specific method which fetches the title of each line", description=("specific method for inserting title in line"), default='', required=0) x_start_bloc = fields.StringField('x_start_bloc', title='specific property to get start of blocks (ex. start_date)', description=('Property for building X-Axis such as start_date\ objects'), default='start_date', required=0) x_stop_bloc = fields.StringField('x_stop_bloc', title='specific property to get stop of blocks (ex. stop_date)', description=('Property for building X-Axis such as stop_date\ objects'), default='stop_date', required=0) y_size_block = fields.StringField('y_size_block', title='specific property to get height of blocks (ex.quantity)', description=('Method for building height of blocks objects'), default='quantity', required=0) constraint_method = fields.StringField('constraint_method', title='name of constraint method between blocks', description=('Constraint method between blocks objects'), default='SET_DHTML', required=1) stat_method = fields.StringField('stat_method', title="name of script generating statistics", description=("script for statistics"), default='', required=0) split_method = fields.StringField('split_method', title='name of script splitting activities into blocks', description=("script for splitting activities into multiple blocks"), default='', required=0) color_script = fields.StringField('color_script', title='name of script colorizing blocks', description=('script for block colors object'), default='', required=0) round_script = fields.StringField('round_script', title='name of script rounding blocks during validation (ex.\ Planning_roundBoundToDay)', description=('script for block bounds rounding when validating'), default='', required=0) sec_axis_script = fields.StringField('sec_axis_script', title='name of script building secondary axis (ex.\ Planning_generateAxis)', description=('script for building secondary axis'), default='Planning_generateAxis', required=1) info_center = fields.StringField('info_center', title='specific method of data called for inserting info in\ block center', description=('Method for displaying info in the center of a\ block object'), default='', required=0) info_topright = fields.StringField('info_topright', title='specific method of data called for inserting info in\ block topright', description=('Method for displaying info in the topright of a block\ object'), default='', required=0) info_topleft = fields.StringField('info_topleft', title='specific method of data called for inserting info in\ block topleft', description=('Method for displaying info in the topleft corner\ of a block object'), default='', required=0) info_backleft = fields.StringField('info_backleft', title='specific method of data called for inserting info in\ block backleft', description=('Method for displaying info in the backleft of a\ block object'), default='', required=0) info_backright = fields.StringField('info_backright', title='specific method of data called for inserting info in\ block backright', description=('Method for displaying info in the backright of a\ block object'), default='', required=0) security_index = fields.IntegerField('security_index', title='variable depending on the type of web browser :', description=("This variable is used because the rounds of each\ web browser seem to work differently"), default=2, required=0) def render_css(self,field, key, value, REQUEST): """ first method called for rendering by PageTemplate form_view create the whole object based structure, and then call a special external PageTemplate (or DTML depending) to render the CSS code relative to the structure that need to be rendered """ here = REQUEST['here'] #import pdb #pdb.set_trace() # build structure # render_structure will call all method necessary to build the entire # structure relative to the planning # creates and fill up self.basic, self.planning and self.build_error_list # --testing : no pdb available !!! -- pdb.set_trace() self.render_structure(field=field, key=key, value=value, REQUEST=REQUEST, here=here) # getting CSS script generator planning_css_method = getattr(REQUEST['here'],'planning_css') # recover CSS data buy calling DTML document CSS_data = planning_css_method(structure=self) # saving structure inside the request for HTML render REQUEST.set('structure',self) return CSS_data def render(self,field,key,value,REQUEST): """ method called to render the HTML code relative to the planning. for that recover the structure previouly saved in the REQUEST, and then call a special Page Template aimed to render """ # need to test if render is HTML (to be implemented in a page template) # or list (to generated a PDF output or anything else). pdb.set_trace() # recover structure structure = REQUEST.get('structure') #pdb.set_trace() # getting HTML rendering Page Template planning_html_method = getattr(REQUEST['here'],'planning_content') # recovering HTML data by calling Page Template document HTML_data = planning_html_method(struct=structure) # return HTML data return HTML_data def render_structure(self, field, key, value, REQUEST, here): """ this method is the begining of the rendering procedure. it calls all methods needed to generate BasicStructure with ERP5 objects, and then creates the PlanningStructure before applying zoom. No code is generated (for example HTML code) contrary to the previous implementation of PlanningBox. The final rendering must be done through a PageTemplate parsing the PlanningStructure object. """ # XXX testing : uncoment to put selection to null => used for debugging #here.portal_selections.setSelectionFor(selection_name, None) # XXX need to decide how Constraints between task should be defined on # planning. # ideally, an external method should be called for validating all # constraints within the planning. (such a method sould be called from # anywhere in the Project module : listbox, editing form). # this method should return a list of all the objects' urls that does not # fit the constraints. ####### DATA DEFINITION ####### self.build_error_list = None # recovering usefull planning properties form = field.aq_parent # getting form list_method = field.get_value('list_method') # method used to list objects report_root_list = field.get_value('report_root_list') # list of domains portal_types = field.get_value('portal_types') # Portal Types of objects # selection name used to store selection params selection_name = field.get_value('selection_name') # getting sorting keys and order (list) sort = field.get_value('sort') # contains the list of blocks that are not validated # for them a special rendering is done (special colors for example) list_error=REQUEST.get('list_block_error') if list_error==None : list_error = [] selection = here.portal_selections.getSelectionFor( selection_name, REQUEST) # params contained in the selection object is a dictionnary. # must exist as an empty dictionnary if selection is empty. try: params = selection.getParams() except (AttributeError,KeyError): params = {} ###### CALL CLASS METHODS TO BUILD BASIC STRUCTURE ###### # creating BasicStructure instance (and initializing its internal values) self.basic = BasicStructure(here=here,form=form, field=field, REQUEST=REQUEST, list_method=list_method, selection=selection, params = params, selection_name=selection_name, report_root_list=report_root_list, portal_types=portal_types, sort=sort, list_error=list_error) # call build method to generate BasicStructure status = self.basic.build() if status != 1: self.build_error_list = status return self ###### CALL CLASS METHODS TO BUILD PLANNING STRUCTURE ###### # creating PlanningStructure instance and initializing its internal values self.planning = PlanningStructure() # call build method to generate final Planning Structure status = self.planning.build(basic_structure = self.basic,field=field, REQUEST=REQUEST) if status != 1: # in case error during planning structure generation self.build_error_list = status return self return self # instanciating class PlanningBoxWidgetInstance = PlanningBoxWidget() class BasicStructure: """ First Structure recovered from ERP5 objects. Does not represent in any way the final structure used for rendering the Planning (for that see PlanningStructure class). for each returned object from ERP5's request, create a BasicGroup and stores all object properties. No zoom is applied on this structure """ def __init__ (self, here='', form='', field='', REQUEST='', list_method='', selection=None, params = '', selection_name='', report_root_list='', portal_types='', sort=None, list_error=None): """ init main internal parameters """ self.here = here self.form = form self.field = field self.REQUEST = REQUEST self.sort = sort self.selection = selection self.params = params self.list_method = list_method self.selection_name = selection_name self.report_root_list = report_root_list self.portal_types = portal_types self.basic_group_list = None self.report_groups= '' # needed to generate groups self.list_error = list_error self.secondary_axis_occurence = [] self.render_format = '' # 'list' in case output is a list containing the # full planning structure without any selection self.main_axis_info = {} self.secondary_axis_info = {} def build(self): """ build BasicStructure from given parameters, and for that do the specified processes : 1 - define variables 2 - building query 3 - generate report_tree, a special structure containing all the objects with their values 4 - create report_sections """ default_params ={} current_section = None #params = self.selection.getParams() #recovering selection if necessary if self.selection is None: self.selection = Selection(params=default_params, default_sort_on=self.sort) else: # immediately updating the default sort value self.selection.edit(default_sort_on=self.sort) self.selection.edit(sort_on=self.sort) self.here.portal_selections.setSelectionFor(self.selection_name, self.selection,REQUEST=self.REQUEST) # building list of portal_types self.filtered_portal_types = map(lambda x: x[0], self.portal_types) if len(self.filtered_portal_types) == 0: self.filtered_portal_types = None report_depth = self.REQUEST.get('report_depth',None) # In report tree mode, need to remember if the items have to be displayed is_report_opened = self.REQUEST.get('is_report_opened',\ self.selection.isReportOpened()) self.selection.edit(report_opened=is_report_opened) portal_categories = getattr(self.form,'portal_categories',None) portal_domains = getattr(self.form,'portal_domains',None) ################################################## ############### BUILDING QUERY ################### ################################################## kw = self.params # remove selection_expression if present # This is necessary for now, because the actual selection expression in # search catalog does not take the requested columns into account. If # select_expression is passed, this can raise an exception, because stat # method sets select_expression, and this might cause duplicated column # names. if 'select_expression' in kw: del kw['select_expression'] if hasattr(self.list_method, 'method_name'): if self.list_method.method_name == 'ObjectValues': # list_method is available self.list_method = self.here.objectValues kw = copy(self.params) else: # building a complex query so we should not pass too many variables kw={} if self.REQUEST.form.has_key('portal_type'): kw['portal_type'] = self.REQUEST.form['portal_type'] elif self.REQUEST.has_key('portal_type'): kw['portal_type'] = self.REQUEST['portal_type'] elif self.filtered_portal_types is not None: kw['portal_type'] = self.filtered_portal_types elif kw.has_key('portal_type'): if kw['portal_type'] == '': del kw['portal_type'] # remove useless matter for cname in self.params.keys(): if self.params[cname] != '' and self.params[cname] != None: kw[cname] = self.params[cname] # try to get the method through acquisition try: self.list_method = getattr(self.here, self.list_method.method_name) except (AttributeError, KeyError): pass elif self.list_method in (None,''): # use current selection self.list_method = None ################################################## ############## DEFINING STAT METHOD ############## ################################################## stat_method = self.field.get_value('stat_method') stat_method = getattr(self.here,stat_method, None) if stat_method == None: show_stat = 0 else: show_stat = 1 ################################################## ############ BUILDING REPORT_TREE ################ ################################################## # assuming result is report tree, building it # When building the body, need to go through all report lines # each report line is a tuple of the form : #(selection_id, is_summary, depth, object_list, object_list_size, is_open) try: default_selection_report_path = self.report_root_list[0][0].split('/')[0] except (IndexError): message = 'report path is empty or not valid, please check selection\ report path in Planning properties' return [(Message(domain=None, message=message,mapping=None))] if (default_selection_report_path in portal_categories.objectIds()) or \ (portal_domains is not None and default_selection_report_path in \ portal_domaind.objectIds()): pass else: default_selection_root_path = self.report_root_list[0][0] selection_report_path = self.selection.getReportPath(default = \ (default_selection_report_path,)) #pdb.set_trace() if selection_report_path in (None,()): message = 'report path is empty or not valid' return [(Message(domain=None, message=message,mapping=None))] # testing report_depth value if report_depth is not None: selection_report_current = () else: selection_report_current = self.selection.getReportList() # building report_tree_list pdb.set_trace() report_tree_list = makeTreeList(here=self.here, form=self.form, root_dict=None, report_path=selection_report_path, base_category=None, depth=0, unfolded_list=selection_report_current, selection_name=self.selection_name, report_depth=report_depth,is_report_opened=is_report_opened, sort_on=self.selection.sort_on,form_id=self.form.id) ################################################## ########### BUILDING REPORT_GROUPS ############### ################################################## # report_groups is another structure based on report_tree but # taking care of the object activities. # build two structures : # - report_groups : list of object_tree_lines composing the planning, # whatever the current group depth, just listing all of them # - blocks_object : dict (object_tree_line.getObject()) of objects # (assuming objects is a list of activities). # first init parameters self.report_groups = [] list_object = [] self.nbr_groups=0 object_list=[] self.report_activity_dict = {} indic_line=0 index_line=0 blocks_object={} select_expression = '' # now iterating through report_tree_list for object_tree_line in report_tree_list: # prepare query by defining selection report object self.selection.edit(report = object_tree_line.getSelectDomainDict()) # defining info_dict, holding all information about the current object. info_dict = None info_dict = {} if object_tree_line.getIsPureSummary() and show_stat: info_dict['stat'] = 1 # push new select_expression original_select_expression = kw.get('select_expression') kw['select_expression'] = select_expression self.selection.edit(params = kw) # recovering statistics if needed # getting list of statistic blocks stat_list = stat_method(selection=self.selection, list_method=self.list_method, selection_context=self.here, report_tree_list=report_tree_list, object_tree_line=object_tree_line, REQUEST=self.REQUEST, field=self.field) if isinstance(stat_list,Message): return [(stat_list)] if original_select_expression is None: del kw['select_expression'] else: kw['select_expression'] = original_select_expression # adding current line to report_section where # line is pure Summary self.report_groups += [(object_tree_line,stat_list,info_dict)] self.nbr_groups += 1 else: info_dict['stat'] = 0 # processing all cases self.selection.edit(params = kw) # recovering object list if self.list_method not in (None,''): # valid list_method has been found self.selection.edit(exception_uid_list= \ object_tree_line.getExceptionUidList()) object_list = self.selection(method = self.list_method, context=self.here, REQUEST=self.REQUEST) else: # no list_method found # XXX seems to be buggy : #object_list = self.here.portal_selections.getSelectionValueList( # self.selection_name, context=self.here, REQUEST=self.REQUEST) message = 'No list method found, please check planningBox properties' return [(Message(domain=None, message=message,mapping=None))] # recovering exeption_uid_list exception_uid_list = object_tree_line.getExceptionUidList() if exception_uid_list is not None: # Filter folders if parent tree : # build new object_list for current line # (list of relative elements) new_object_list = [] for selected_object in object_list: if selected_object.getUid() not in exception_uid_list: new_object_list.append(selected_object) object_list = new_object_list if not object_tree_line.getIsPureSummary(): # Object is not pure summary if show_stat: # this represents the second duplicated object # display object content in report tree with stat # stats are displayed in the first object present # self.report_groups += [(object_tree_line,object_list, info_dict)] self.nbr_groups += 1 else: # do nothing # case of parent tree unfolded (second object and no stats) pass else: # object is pure summary ! if len(object_list) and object_tree_line.is_open: # pure summary, open, and has object_list # case = ?!? self.report_groups += [(object_tree_line, object_list, info_dict)] self.nbr_groups += 1 else: if exception_uid_list is not None: # case of parent tree mode (first/unique object). # beware object_list is not null in case folded sons exists so # do not export voluntary object_list to prevent bad # interpretation self.report_groups += [(object_tree_line, [], info_dict)] self.nbr_groups += 1 else: # case of report_tree mode # saving information in report_groups self.report_groups += [(object_tree_line,object_list,info_dict)] self.nbr_groups += 1 # reset to original value self.selection.edit(report = None) #self.selection.edit(report_list=None) # comment to save report_list status # update report list if report_depth was specified if report_depth is not None: unfolded_list = [] for (report_line, object_list, info_dict) in self.report_groups: if report_line.depth < report_depth and not info_dict['stat'] : # depth of current report_line is inferior to the current # report_depth and current report_line is not stat line. # saving information unfolded_list.append(report_line.getObject().getRelativeUrl()) self.selection.edit(report_list=unfolded_list) ################################################## ############## CHECKING CONSTRAINTS ############## ################################################## # XXX Constraints checking chould be called here # and results saved in a list (list of url corresponding to objects not # validated) ################################################## ########### GETTING MAIN AXIS BOUNDS ############# ################################################## # before building group_object structure, need to recover axis begin & end # for main to be able to generate a 'smart' structure taking into account # only the area that need to be rendered. This prevents from useless # processing # calculating main axis bounds self.getMainAxisInfo(self.main_axis_info) # applying main axis selection if self.report_groups != []: self.report_groups=self.report_groups[self.main_axis_info['bound_start']: self.main_axis_info['bound_stop']] else: # ERROR : self.report_groups = [] # no group is available so the Y and X axis will be empty... message= 'selection method returned empty list of objects : please check\ your list_method and report_root' return [(Message(domain=None, message=message,mapping=None))] ################################################## ############ GETTING SEC AXIS BOUNDS ############# ################################################## # now that our report_group structure has been cut need to get secondary # axis bounds to add only the blocs needed afterwards # getting secondary_axis_occurence to define begin and end secondary_axis # bounds (getting absolute size) self.secondary_axis_occurence = self.getSecondaryAxisOccurence() # now getting start & stop bounds (getting relative size to the current # rendering) status = self.getSecondaryAxisInfo(self.secondary_axis_info) if status != 1: # ERROR # Found error while setting secondary axis bounds return status ################################################## ####### SAVING NEW PROPERTIES INTO REQUEST ####### ################################################## if self.list_method is not None and self.render_format != 'list': self.selection.edit(params = self.params) self.here.portal_selections.setSelectionFor(self.selection_name, self.selection, REQUEST = self.REQUEST) ################################################## ######### BUILDING GROUP_OBJECT STRUCTURE ######## ################################################## # building group_object structure using sub lines depth (in case of a # report tree) by doing this. # taking into account page bounds to generate only the structure needed # instanciate BasicGroup class in BasicStructure so that the structure can # be built status = self.buildGroupStructure() if status != 1: # ERROR # Found errors while setting group structure return status # everything is fine return 1 def getSecondaryAxisOccurence(self): """ get secondary_axis occurences in order to define begin and end bounds. Just make a listing of all the start and stop values for all the report_group objects """ secondary_axis_occurence = [] # specific start & stop methods name for secondary axis start_property_id = self.field.get_value('x_start_bloc') stop_property_id= self.field.get_value('x_stop_bloc') for (object_tree_group, object_list, info_dict) in self.report_groups: # recover method to get begin and end limits if object_list not in (None, [], {}) : for object_request in object_list: if start_property_id != None: block_begin = \ object_request.getObject().getProperty(start_property_id,None) else: block_begin = None if stop_property_id != None: block_stop = \ object_request.getObject().getProperty(stop_property_id,None) else: block_stop = None secondary_axis_occurence.append([block_begin,block_stop]) else: if start_property_id != None: block_begin = \ object_tree_group.object.getObject().getProperty(start_property_id, None) else: block_begin = None if stop_property_id != None: block_stop = \ object_tree_group.object.getObject().getProperty(stop_property_id, None) else: block_stop = None secondary_axis_occurence.append([block_begin,block_stop]) return secondary_axis_occurence def getSecondaryAxisInfo(self, axis_dict): """ secondary_axis_ocurence holds couples of data (begin,end) related to basicActivity blocks, and axis if the instance representing the sec axis. it is now possible to recover begin and end value of the planning and then apply selection informations to get start and stop. """ # recovering zoom properties axis_dict['zoom_start'] = int(self.params.get('zoom_start',0)) axis_dict['zoom_level'] = float(self.params.get('zoom_level',1)) # recovering min and max bounds to get absolute bounds axis_dict['bound_begin'] = self.secondary_axis_occurence[0][0] axis_dict['bound_end'] = axis_dict['bound_begin'] for occurence in self.secondary_axis_occurence: if (occurence[0] < axis_dict['bound_begin'] or \ axis_dict['bound_begin'] == None) and occurence[0] != None: axis_dict['bound_begin'] = occurence[0] if (occurence[1] > axis_dict['bound_end'] or \ axis_dict['bound_end'] == None) and occurence[1] != None: axis_dict['bound_end'] = occurence[1] if axis_dict['bound_end']==None or axis_dict['bound_begin']==None: # ERROR # no bounds over the secondary axis have been defined # can append if bad property has been selected message = 'can not find secondary axis bounds for planning view :\ No object has good start & stop properties, please check your objects \ and their corresponding properties' return [(Message(domain=None, message=message,mapping=None))] axis_dict['bound_range'] = axis_dict['bound_end']-axis_dict['bound_begin'] # now start and stop have the extreme values of the second axis bound. # this represents in fact the size of the Planning's secondary axis # can now get selection informations ( float range 0..1) axis_dict['bound_start'] = 0 axis_dict['bound_stop'] = 1 if self.selection != None: # selection is not None, trying to recover previously saved values about # secondary axis (axis start and stop bounds) try: axis_dict['bound_start'] = self.selection.getSecondaryAxisStart() axis_dict['bound_stop'] = self.selection.getSecondaryAxisStop() except AttributeError: # bounds were not defined, escaping test pass # getting secondary axis page step axis_zoom_step = axis_dict['bound_range'] / axis_dict['zoom_level'] # now setting bound_start axis_dict['bound_start'] = axis_dict['zoom_start'] * axis_zoom_step + \ axis_dict['bound_begin'] # for bound_stop just add page step axis_dict['bound_stop'] = axis_dict['bound_start'] + axis_zoom_step # saving current zoom values self.params['zoom_level'] = axis_dict['zoom_level'] self.params['zoom_start'] = axis_dict['zoom_start'] # everything is OK, returning 'true' flag return 1 def getMainAxisInfo(self, axis_dict): """ getting main axis properties (total pages, current page, groups per page) and setting selection bounds (start & stop). beware this justs calculate the position of the first group present on the page (same for the last one), applying the selection is another thing in case of report tree (if the first element is a sub group of a report for example). """ axis_dict['bound_axis_groups'] = self.field.get_value('main_axis_groups') if axis_dict['bound_axis_groups'] == None: #XXX raise exception : no group nb/page defined pass # setting begin & end bounds axis_dict['bound_begin'] = 0 axis_dict['bound_end'] = len(self.report_groups) if self.render_format == 'list': axis_dict['bound_start'] = 0 axis_dict['bound_stop'] = axis_dict['bound_end'] axis_dict['bound_page_total'] = 1 axis_dict['bound_page_current'] = 1 axis_dict['bound_page_groups'] = 1 else: # recovering first group displayed on actual page try: # trying to recover from REQUEST axis_dict['bound_start'] = self.REQUEST.get('list_start') axis_dict['bound_start'] = int(axis_dict['bound_start']) except (AttributeError, TypeError): # recovering from params is case failed with REQUEST axis_dict['bound_start'] = self.params.get('list_start',0) if type(axis_dict['bound_start']) is type([]): axis_dict['bound_start'] = axis_dict['bound_start'][0] axis_dict['bound_start'] = int(axis_dict['bound_start']) axis_dict['bound_start'] = max(axis_dict['bound_start'],0) if axis_dict['bound_start'] > axis_dict['bound_end']: # new report_group is so small that previous if after the last element axis_dict['bound_start'] = axis_dict['bound_end'] # updating start position to fit page size. axis_dict['bound_start'] -= \ (axis_dict['bound_start'] % axis_dict['bound_axis_groups']) # setting last group displayed on page axis_dict['bound_stop'] = min (axis_dict['bound_end'], axis_dict['bound_start'] + axis_dict['bound_axis_groups']) # calculating total number of pages axis_dict['bound_page_total'] = int(max(axis_dict['bound_end'] - 1,0) / \ axis_dict['bound_axis_groups']) + 1 # calculating current page number axis_dict['bound_page_current'] = int(axis_dict['bound_start'] / \ axis_dict['bound_axis_groups']) + 1 # adjusting first group displayed on current page axis_dict['bound_start'] = min(axis_dict['bound_start'], max(0, (axis_dict['bound_page_total']-1) * axis_dict['bound_axis_groups'])) self.params['list_lines'] = axis_dict['bound_axis_groups'] self.params['list_start'] = axis_dict['bound_start'] def buildGroupStructure(self): """ this procedure builds BasicGroup instances corresponding to the report_group_objects returned from the ERP5 request. """ position = 0 # iterating each element for (report_group_object, object_list, property_dict) in \ self.report_groups: stat_result = {} stat_context = report_group_object.getObject().asContext(**stat_result) stat_context.domain_url = \ report_group_object.getObject().getRelativeUrl() stat_context.absolute_url = \ lambda x: report_group_object.getObject().absolute_url() url=getattr(stat_context,'domain_url','') # updating position_informations position +=1 # recovering usefull informations title = report_group_object.getObject().getTitle() name = report_group_object.getObject().getTitle() depth = report_group_object.getDepth() is_open = report_group_object.getIsOpen() is_pure_summary = report_group_object.getIsPureSummary() # creating new group_object with all the informations collected child_group = BasicGroup(title=title, name=name, url=url, constraints=None, depth=depth, position=position, field =self.field, object=report_group_object, is_open=is_open, is_pure_summary=is_pure_summary, property_dict = property_dict) if object_list != None: child_group.setBasicActivities(object_list,self.list_error, self.secondary_axis_info) try: self.basic_group_list.append(child_group) except (AttributeError): self.basic_group_list = [] self.basic_group_list.append(child_group) return 1 class BasicGroup: """ A BasicGroup holds informations about an ERP5Object and is stored exclusively in BasicStructure. for each activity that will need to be represented in the PlanningBox, a BasicActivity is created and added to the current structure (for example BasicGroup represents an employee, and each BasicActivity represents a task the employee has). *Only one BasicGroup present while in Calendar mode. *BasicGroup instance itself can hold other BasicGroups in case of ReportTree mode to handle child groups. """ def __init__ (self, title='', name='',url='', constraints='', depth=0, position=0, field = None, object = None, is_open=0, is_pure_summary=1, property_dict = {}): self.title = title self.name = name self.url = url self.basic_group_list = None # used with ReportTree self.basic_activity_list = None # bloc activities self.constraints = constraints# global contraints applying to all group self.depth = depth # depth of the actual group (report_tree mode) self.position = position # position of current group in the selection self.field = field # field object itself. used for several purposes self.object = object # ERP5 object returned & related to the group self.is_open = is_open self.is_pure_summary = is_pure_summary # specific start and stop bound values specifiec to the current group and # used in case of calendar mode self.start = None self.stop = None # property_dict holds all information about the current axis_group # type of group, stat, etc. self.property_dict = property_dict def setBasicActivities(self,activity_list, list_error,secondary_axis_info): """ link a list of activities to the current object. *Recover group properties. Used in case activity is built from Group itself *create a BasicActivity for each activity referenced in the list if necessary *add the activity to the current group. *update secondary_axis_occurence """ info = {} # specific begin & stop property names for secondary axis object_property_begin = self.field.get_value('x_start_bloc') object_property_end = self.field.get_value('x_stop_bloc') # specific block text_information methods info_center = self.field.get_value('info_center') info_topleft = self.field.get_value('info_topleft') info_topright = self.field.get_value('info_topright') info_backleft = self.field.get_value('info_backleft') info_backright = self.field.get_value('info_backright') # getting info method from activity itself if exists info_center_method = getattr(self.object.getObject(),info_center,None) info_topright_method = getattr(self.object.getObject(),info_topright,None) info_topleft_method = getattr(self.object.getObject(),info_topleft,None) info_backleft_method = getattr(self.object.getObject(),info_backleft,None) info_backright_method = \ getattr(self.object.getObject(),info_backright,None) # if method recovered is not null, then updating if info_center_method!=None: \ info['info_center'] = str(info_center_method()) if info_topright_method!=None: \ info['info_topright'] = str(info_topright_method()) if info_topleft_method!=None: \ info['info_topleft'] = str(info_topleft_method()) if info_backleft_method!=None: \ info['info_backleft'] = str(info_backleft_method()) if info_backright_method!=None: \ info['info_backright'] = str(info_backright_method()) if activity_list not in ([],None): indic=0 # iterating each activity linked to the current group for activity_content in activity_list: # interpreting results and getting begin and end values from # previously recovered method block_begin = None block_end = None if object_property_begin !=None: block_begin = \ getattr(activity_content.getObject(),object_property_begin) else: block_begin = None if object_property_end != None: block_end = getattr(activity_content.getObject(),object_property_end) else: block_end = None # handling case where activity bound is not defined if block_begin == None: block_begin = secondary_axis_info['bound_start'] current_color='#E4CCE1' if block_end == None: block_end = secondary_axis_info['bound_stop'] current_color='#E4CCE1' # testing if activity is visible according to the current zoom # selection over the secondary_axis if block_begin > secondary_axis_info['bound_stop'] or \ block_end < secondary_axis_info['bound_start']: # activity will not be displayed, stopping process pass else: # activity is somehow displayed. checking if need to cut its bounds if block_begin < secondary_axis_info['bound_start']: # need to cut begin bound block_start = secondary_axis_info['bound_start'] else: block_start = block_begin if block_end > secondary_axis_info['bound_stop']: block_stop = secondary_axis_info['bound_stop'] else: block_stop = block_end # defining name name = "Activity_%s" % (str(indic)) error = 'false' current_color='' if self.property_dict['stat'] == 1: info = None info = {} info['info_center'] = '' info['info_topright'] = '' info['info_topleft'] = '' info['info_backleft'] = '' info['info_backright'] = '' title = '' object = activity_content url='' object_property_height = self.field.get_value('y_size_block') height = \ getattr(activity_content.getObject(),object_property_height) else: info = None info = {} # getting info text from activity itself if exists info_center_method = getattr(activity_content,info_center,None) info_topright_method = getattr(activity_content,info_topright,None) info_topleft_method = getattr(activity_content,info_topleft,None) info_backleft_method = getattr(activity_content,info_backleft,None) info_backright_method = \ getattr(activity_content,info_backright,None) # if value recovered is not null, then updating if info_center_method!=None: info['info_center']=str(info_center_method()) if info_topright_method!=None: info['info_topright']=str(info_topright_method()) if info_topleft_method!=None: info['info_topleft']=str(info_topleft_method()) if info_backleft_method!=None: info['info_backleft'] =str(info_backleft_method()) if info_backright_method!=None: info['info_backright']=str(info_backright_method()) title = info['info_center'] color_script = getattr(activity_content.getObject(), self.field.get_value('color_script'),None) # calling color script if exists to set up activity_color if color_script !=None: current_color = color_script(activity_content.getObject()) # testing if some activities have errors if list_error not in (None, []): for activity_error in list_error: if activity_error[0][0] == name: error = 'true' break stat_result = {} stat_context = \ activity_content.getObject().asContext(**stat_result) stat_context.domain_url = \ activity_content.getObject().getRelativeUrl() stat_context.absolute_url = \ lambda x: activity_content.getObject().absolute_url() object = stat_context.getObject() url = stat_context.getUrl() # XXX testing constraint result here. # if current object url in list of error constranint urls, then # colorizing the block. # XXX should define height of block here height = None # creating new activity instance activity = BasicActivity(title=title, name=name, object=object, url=url, absolute_begin=block_begin, absolute_end=block_end, absolute_start=block_start, absolute_stop=block_stop, height = height, color=current_color, info_dict=info, error=error, property_dict=self.property_dict) # adding new activity to personal group activity list try: self.basic_activity_list.append(activity) except (AttributeError): self.basic_activity_list = [] self.basic_activity_list.append(activity) # incrementing indic used for differenciating activities in the same # group (used for Activity naming) indic += 1 else: # specific color script color_script = getattr(self.object.getObject(), self.field.get_value('color_script'),None) # calling color script if exists to set up activity_color current_color='' if color_script !=None: current_color = color_script(self.object.getObject()) # getting begin and end values from previously recovered method if object_property_begin !=None: block_begin = \ self.object.getObject().getProperty(object_property_begin) else: block_begin = None if object_property_end != None: block_end = self.object.getObject().getProperty(object_property_end) else: block_end = None # testing if activity is visible according to the current zoom selection # over the secondary_axis if block_begin == None: block_begin = secondary_axis_info['bound_start'] current_color='#E4CCE1' if block_end == None: block_end = secondary_axis_info['bound_stop'] current_color='#E4CCE1' if (block_begin > secondary_axis_info['bound_stop'] or \ block_end < secondary_axis_info['bound_start']): # activity will not be displayed, stopping process pass else: # activity is somehow displayed. checking if need to cut its bounds if block_begin < secondary_axis_info['bound_start']: # need to cut begin bound block_start = secondary_axis_info['bound_start'] else: block_start = block_begin if block_end > secondary_axis_info['bound_stop']: block_stop = secondary_axis_info['bound_stop'] else: block_stop = block_end # testing if some activities have errors error = 'false' if list_error not in (None,[]): for activity_error in list_error: if activity_error[0][0] == name: error = 'true' break # XXX testing constraint result here. # if current object url in list of error constranint urls, then # colorizing the block. # defining name name = "Activity_%s" % (self.object.getObject().getTitle()) # height should be implemented here height = None # creating new activity instance activity=BasicActivity(title=info['info_center'], name=name, object=self.object.object, url=self.url, absolute_begin=block_begin, absolute_end=block_end, absolute_start=block_start, absolute_stop=block_stop, height=height, color=current_color, info_dict=info, error=error, property_dict=self.property_dict) # adding new activity to personal group activity list try: self.basic_activity_list.append(activity) except (AttributeError): self.basic_activity_list = [] self.basic_activity_list.append(activity) class BasicActivity: """ Represents an activity, a task, in the group it belongs to. Beware nothing about multitask rendering. """ def __init__ (self, title='', name='',object = None, url='', absolute_begin=None, absolute_end=None, absolute_start=None, absolute_stop=None, height=None, constraints='', color=None, error='false', info_dict= None, property_dict = {}): self.title = title self.name = name self.object = object self.url = url self.absolute_begin = absolute_begin # absolute values independant of any # hypothetic zoom self.absolute_end = absolute_end self.absolute_start = absolute_start self.absolute_stop = absolute_stop self.height = height self.constraints = constraints self.color = color self.info_dict = info_dict self.error = error self.property_dict = property_dict # dict containing specific properties class PlanningStructure: """ class aimed to generate the Planning final structure, including : - activities with their blocs (so contains Activity structure) - Axis informations (contains Axis Structure). The zoom properties on secondary axis are applied to this structure. """ def __init__ (self): self.main_axis = '' self.secondary_axis = '' self.content = [] self.content_delimiters = None def build(self,basic_structure=None, field=None, REQUEST=None): """ main procedure for building Planning Structure do all the necessary process to construct a full Structure compliant with all expectations (axis, zoom, colors, report_tree, multi_lines, etc.). From this final structure just need to run a PageTemplate to get an HTML output, or any other script to get the Planning result in the format you like... """ # recovering render format ('1'== calendar view, otherwise '0') self.calendar_view = field.get_value('calendar_view') # declaring main axis self.main_axis = Axis(title='main axis', name='axis', unit='', axis_order=1,axis_group=[]) # declaring secondary axis self.secondary_axis = Axis(title='sec axis', name='axis', unit='', axis_order=2, axis_group=[]) # linking axis objects to their corresponding accessor, i.e X or Y # this allows the planning to be generic. if self.calendar_view == 0: self.Y = self.main_axis self.X = self.secondary_axis else: self.Y = self.secondary_axis self.X = self.main_axis # initializing axis properties self.X.name = 'axis_x' self.Y.name = 'axis_y' # recovering secondary_axis_ bounds self.secondary_axis.start = \ basic_structure.secondary_axis_info['bound_start'] self.secondary_axis.stop = \ basic_structure.secondary_axis_info['bound_stop'] self.main_axis.size = self.buildGroups(basic_structure=basic_structure) # call method to build secondary axis structure # need start_bound, stop_bound and number of groups to build status = self.buildSecondaryAxis(basic_structure,field) if status != 1: # ERROR while building secondary axis return status # completing axisgroup informations according to their bounds status = self.completeAxis() if status != 1: # ERROR while completing axis return status # the whole structure is almost completed : axis_groups are defined, as # axis_elements with their activities. Just need to create blocks related # to the activities (special process only for Calendar mode) with their # BlockPosition status = self.buildBlocs(REQUEST = REQUEST) if status != 1: # ERROR while building blocks return status # everything is fine, returning 'true' flag. return 1 def buildSecondaryAxis(self,basic_structure, field): """ build secondary axis structure """ # defining min and max delimiter number delimiter_min_number = basic_structure.field.get_value('delimiter') axis_stop = (self.secondary_axis.stop) axis_start = (self.secondary_axis.start) axis_script=getattr(basic_structure.here, basic_structure.field.get_value('sec_axis_script'),None) if axis_script == None: # ERROR message = 'unable to find secondary axis generation script : "%s" does \ not exist' % basic_structure.field.get_value('sec_axis_script') return [(Message(domain=None, message=message, mapping=None))] # calling script to get list of delimiters to implement # just need to pass start, stop, and the minimum number of delimiter # wanted. a structure is returned : list of delimiters, each delimiter # defined by a list [ relative position, title, tooltip , delimiter_type] try: delimiter_list = axis_script(axis_start,axis_stop,delimiter_min_number) except (ArithmeticError, LookupError, AttributeError, TypeError): message = 'error raised in secondary axis generation script : please \ check "%s"'% basic_structure.field.get_value('sec_axis_script') return [(Message(domain=None, message=message,mapping=None))] axis_stop = int(axis_stop) axis_start = int(axis_start) axis_range = axis_stop - axis_start # axis_element_number is used to fix the group size self.secondary_axis.axis_size = axis_range # axis_group_number is used to differenciate groups axis_group_number = 0 # now iterating list of delimiters and building group list # group position and size informations are saved in position_secondary # using relative coordinates for delimiter in delimiter_list: axis_group = AxisGroup(name='Group_sec_' + str(axis_group_number), title=delimiter[1], delimiter_type=delimiter[3]) axis_group.tooltip = delimiter[2] axis_group.position_secondary.relative_begin = \ int(delimiter[0]) - int(axis_start) # set defaut stop bound and size axis_group.position_secondary.relative_end = int(axis_stop) axis_group.position_secondary.relative_range = \ int(axis_stop) - int(delimiter[0]) if delimiter == delimiter_list[0]: # actual delimiter is the first delimiter entered # do not need to update previous delimiter informations pass else: # actual delimiter info has a previous delimiter # update its informations self.secondary_axis.axis_group[-1].position_secondary.relative_end = \ axis_group.position_secondary.relative_begin self.secondary_axis.axis_group[-1].position_secondary.relative_range =\ axis_group.position_secondary.relative_begin - \ self.secondary_axis.axis_group[-1].position_secondary.relative_begin # add current axis_group to axis_group list self.secondary_axis.axis_group.append(axis_group) axis_group_number += 1 return 1 def completeAxis (self): """ complete axis infomations (and more precisely axis position objects) thanks to the actual planning structure """ # processing main axis for axis_group_element in self.main_axis.axis_group: axis_group_element.position_main.absolute_begin = ( float(axis_group_element.axis_element_start - 1) / float(self.main_axis.size)) axis_group_element.position_main.absolute_end = ( float(axis_group_element.axis_element_stop) / float(self.main_axis.size)) axis_group_element.position_main.absolute_range = ( float(axis_group_element.axis_element_number) / float(self.main_axis.size)) axis_group_element.position_secondary.absolute_begin = 0 axis_group_element.position_secondary.absolute_end = 1 axis_group_element.position_secondary.absolute_range= 1 for axis_group_element in self.secondary_axis.axis_group: position = axis_group_element.position_secondary axis_group_element.position_secondary.absolute_begin = ( float(axis_group_element.position_secondary.relative_begin) / self.secondary_axis.axis_size) axis_group_element.position_secondary.absolute_end = ( float(axis_group_element.position_secondary.relative_end) / self.secondary_axis.axis_size) axis_group_element.position_secondary.absolute_range = ( float(axis_group_element.position_secondary.relative_range) / self.secondary_axis.axis_size) axis_group_element.position_main.absolute_begin = 0 axis_group_element.position_main.absolute_end = 1 axis_group_element.position_main.absolute_range = 1 # returning 'true' flag at the end of the process return 1 def buildGroups (self, basic_structure=None): """ build groups from activities saved in the structure groups. """ axis_group_number = 0 #pdb.set_trace() axis_element_already_present=0 for basic_group_object in basic_structure.basic_group_list: axis_group_number += 1 axis_group= AxisGroup(name='Group_' + str(axis_group_number), title=basic_group_object.title, object=basic_group_object.object, axis_group_number = axis_group_number, is_open=basic_group_object.is_open, is_pure_summary=basic_group_object.is_pure_summary, url = basic_group_object.url, depth=basic_group_object.depth, secondary_axis_start= self.secondary_axis.start, secondary_axis_stop= self.secondary_axis.stop, property_dict = basic_group_object.property_dict) if self.calendar_view == 0: axis_group.position_y = axis_group.position_main axis_group.position_x = axis_group.position_secondary else: axis_group.position_y = axis_group.position_secondary axis_group.position_x = axis_group.position_main # init absolute position over the axis axis_group.position_secondary.absolute_begin = 0 axis_group.position_secondary.absolute_end= 1 axis_group.position_secondary.absolute_range = 1 # updating axis_group properties axis_group.fixProperties(form_id = basic_structure.form.id, selection_name = basic_structure.selection_name) # updating start value axis_group.axis_element_start = axis_element_already_present + 1 activity_number = 0 if basic_group_object.basic_activity_list != None: # need to check if activity list is not empty : possible in case zoom # selection is used over the secondary axis if axis_group.property_dict['stat'] == 0: # case group is task group. Using default method that # generates automatically the necessary axis elements for basic_activity_object in basic_group_object.basic_activity_list: activity_number += 1 # create new activity in the PlanningStructure activity=Activity(name='Group_%s_Activity_%s' %( str(axis_group_number), str(activity_number)), title=basic_activity_object.title, object=basic_activity_object.object, color=basic_activity_object.color, link=basic_activity_object.url, secondary_axis_begin= \ basic_activity_object.absolute_begin, secondary_axis_end= \ basic_activity_object.absolute_end, secondary_axis_start= \ basic_activity_object.absolute_start, secondary_axis_stop= \ basic_activity_object.absolute_stop, primary_axis_block=self, info=basic_activity_object.info_dict, calendar_view=self.calendar_view, property_dict=basic_group_object.property_dict) # adding activity to the current group axis_group.addActivity(activity,axis_element_already_present) else: # case group is stat group. Using special method that prevent # from generating more than 1 axis element and divide tasks size if # necessary axis_group.addStatActivities( basic_activity_list=basic_group_object.basic_activity_list, axis_group_number=axis_group_number, axis_element_already_present=axis_element_already_present, calendar_view=self.calendar_view, primary_axis_block=self, property_dict=basic_group_object.property_dict) else: # basic_activity_list is empty : need to add a empty axis_element to # prevent bug or crash axis_group.axis_element_number = 1 new_axis_element=AxisElement(name='Group_%s_AxisElement_1' % str(axis_group_number), relative_number= 1, absolute_number=axis_group.axis_element_start, parent_axis_group=axis_group) # add new activity to this brand new axis_element new_axis_element.activity_list = [] axis_group.axis_element_list = [] axis_group.axis_element_list.append(new_axis_element) axis_group.axis_element_stop = (axis_element_already_present + axis_group.axis_element_number) axis_element_already_present = axis_group.axis_element_stop try: self.main_axis.axis_group.append(axis_group) except AttributeError: self.main_axis.axis_group = [] self.main_axis.axis_group.append(axis_group) return axis_element_already_present def buildBlocs(self,REQUEST): """ iterate the whole planning structure to get various activities and build their related blocs. """ # recover activity and block error lists warning_activity_list = REQUEST.get('warning_activity_list',[]) error_block_list = REQUEST.get('error_block_list',[]) error_info_dict = REQUEST.get('error_info_dict',{}) for axis_group_object in self.main_axis.axis_group: for axis_element_object in axis_group_object.axis_element_list: for activity in axis_element_object.activity_list: if activity.name in warning_activity_list: warning = 1 else: warning = 0 # generate activity_info status = activity.addBlocs(main_axis_start=0, main_axis_stop=self.main_axis.size, secondary_axis_start=self.secondary_axis.start, secondary_axis_stop=self.secondary_axis.stop, planning=self, warning=warning, error_block_list=error_block_list, error_info_dict=error_info_dict) if status !=1: return status if axis_group_object.property_dict['stat'] == 1: # case stat group_object, need to update block size to display # stats informations status = axis_group_object.updateStatBlocks() if status !=1: return status # no problem during process, returning 'true' flag return 1 class Activity: """ Class representing a task in the Planning, for example an appointment or a duration. Can be divided in several blocs for being rendered correctly (contains Bloc Structure). Activity instance are not rendered but only their blocs. This Activity structure is used for rebuilding tasks from bloc positions when validating the Planning. """ def __init__ (self,name=None, title=None, object=None, types=None, color=None, link=None, height=None, secondary_axis_begin=None, secondary_axis_end=None, secondary_axis_start=None, secondary_axis_stop=None, primary_axis_block=None, info=None, calendar_view=0, property_dict={} ): self.name = name # internal activity_name self.id = self.name self.title = title # displayed activity_name self.object = object self.types = types # activity, activity_error, info self.color = color # color used to render all Blocs self.link = link # link to the ERP5 object self.height = height # self.constraints = constraints self.block_list = None # contains all the blocs used to render the activity self.secondary_axis_begin =secondary_axis_begin self.secondary_axis_end=secondary_axis_end self.secondary_axis_start=secondary_axis_start self.secondary_axis_stop=secondary_axis_stop self.primary_axis_block = primary_axis_block self.block_bounds = None self.info = info self.parent_axis_element = None self.calendar_view= calendar_view self.property_dict = property_dict def get_error_message (self, Error): # need to update the error message return 'task %s (%s)not validated' % (self.name, self.title) def isValidPosition(self, bound_begin, bound_end): """ can check if actual activity can fit within the bounds, returns : - 0 if not - 1 if partially ( need to cut the activity bounds to make it fit) - 2 definitely """ if (self.secondary_axis_begin > bound_end) or \ (self.secondary_axis_end < bound_begin): return 0 elif (self.secondary_axis_begin > bound_begin) and \ (self.secondary_axis_end < bound_end): return 1 else: return 2 def addBlocs(self, main_axis_start=None, main_axis_stop=None, secondary_axis_start=None, secondary_axis_stop=None,planning=None, warning=0, error_block_list=[], error_info_dict={}): """ define list of (begin & stop) values for blocs representing the actual activity (can have several blocs if necessary). """ # recover list of bounds if self.secondary_axis_start != None or self.secondary_axis_stop != None: #split_method_name = field.get_value('split_method',None) #split_method = getattr(self.object,split_method_name, None) #if split_method != None: secondary_block_bounds = self.splitActivity() #secondary_block_bounds = split_method(self.secondary_axis_start, # self.secondary_axis_stop) else: secondary_block_bounds = \ [[self.secondary_axis_start,self.secondary_axis_stop,1]] block_number = 0 # iterating resulting list for (start,stop,zone) in secondary_block_bounds: block_number += 1 block_name = self.name + '_Block_' + str(block_number) # create new block instance if block_name in error_block_list: error = 1 error_text= error_info_dict[block_name] else: error = 0 error_text='' # zone property is used to check if block is an active (main activity # block) block or a passive one (just a display block) if zone == 1: # active block_color = self.color block_link = self.link else: # passive block_color = '#D1E8FF' block_link = '' new_block = Bloc(name= block_name,color=block_color,link=block_link, number = block_number, calendar_view=self.calendar_view, parent_activity=self, warning=warning, error=error, error_text=error_text,zone=zone, property_dict=self.property_dict) new_block.buildInfoDict(info_dict = self.info) # updating secondary_axis block position if self.secondary_axis_start != None: new_block.position_secondary.absolute_begin = start else: new_block.position_secondary.absolute_begin = secondary_axis_start if self.secondary_axis_stop != None: new_block.position_secondary.absolute_end = stop else: new_block.position_secondary.absolute_end = secondary_axis_stop new_block.position_secondary.absolute_range = stop - start # updating main_axis block position new_block.position_main.absolute_begin = \ self.parent_axis_element.absolute_number - 1 new_block.position_main.absolute_end = \ self.parent_axis_element.absolute_number new_block.position_main.absolute_range = ( new_block.position_main.absolute_end - new_block.position_main.absolute_begin) # now absolute positions are updated, and the axis values are known # (as parameters), processing relative values new_block.position_secondary.relative_begin = ( float(new_block.position_secondary.absolute_begin - secondary_axis_start) / float(secondary_axis_stop - secondary_axis_start)) new_block.position_secondary.relative_end = ( float(new_block.position_secondary.absolute_end - secondary_axis_start) / float(secondary_axis_stop - secondary_axis_start)) new_block.position_secondary.relative_range = ( new_block.position_secondary.relative_end - new_block.position_secondary.relative_begin) new_block.position_main.relative_begin = ( float(new_block.position_main.absolute_begin - main_axis_start) / float(main_axis_stop - main_axis_start)) new_block.position_main.relative_end = ( float(new_block.position_main.absolute_end - main_axis_start) / float(main_axis_stop - main_axis_start)) new_block.position_main.relative_range = ( new_block.position_main.relative_end - new_block.position_main.relative_begin) try: self.block_list.append(new_block) except AttributeError: # in case this is the first add # need to initialize the list self.block_list = [] self.block_list.append(new_block) try: planning.content.append(new_block) except AttributeError: planning.content = [] planning.content.append(new_block) return 1 def splitActivity(self): """ Used for splitting an activity in multiple bloc. [EDIT] will not be used to split Calendar axis (by date time depending on the axis size), but will certainly be used afterwards in all cases to split activity in multiple blocs according to some external constraints (do not work sat & sun, or for a dayly planning do not work from 18P.M to 9A.M). will use an external script to do so. """ # XXX not implemented yet return [(self.secondary_axis_start,self.secondary_axis_stop,1)] returned_list = [] start_date = self.secondary_axis_start stop_date = self.secondary_axis_stop temp_start = start_date temp_stop = temp_start # defining usefull list of data break_list = ['Saturday','Sunday'] worked_list = ['Monday','Tuesday','Wednesday','Thursday','Friday'] if temp_start.Day() in break_list: # temp_start is in weekend, # getting first worked day while temp_start.Day() in break_list and temp_start < stop_date: temp_start += 1 returned_list.append([temp_stop,temp_start,0]) else: # temp_stop is in week, getting first weekend while temp_stop.Day() in worked_list and temp_stop < stop_date: temp_stop += 1 if temp_stop > stop_date: temp_stop = stop_date # testing if current activity is not too small to create blocks while temp_start < stop_date: returned_list.append([temp_start,temp_stop,1]) temp_start = temp_stop # going to next start_date while temp_start.Day() in break_list and temp_start < stop_date: temp_start += 1 # adding new start date to list if temp_start >= stop_date: returned_list.append([temp_stop,stop_date,0]) elif temp_start != temp_stop: returned_list.append([temp_stop,temp_start,0]) # next temp_start has been found # now processing new temp_stop temp_stop = temp_start while temp_stop.Day() in worked_list and temp_stop < stop_date: temp_stop += 1 if temp_stop > stop_date: temp_stop = stop_date # return new list return returned_list class Bloc: """ structure that will be rendered as a bloc, a task element. Blocs are referenced in the Activity they belong to (logical structure), but are also referenced in their relative AxisElement (to be able to calculate the number of lines required for rendering when having multi-tasking in parallel). Contains Bloc Structure for position informations. """ def __init__ (self, name=None, types=None, color=None, info=None, link=None, number=0, constraints=None, secondary_start=None, secondary_stop=None, calendar_view=0, parent_activity = None, warning=0, error=0, error_text='', zone=1, property_dict ={} ): """ creates a Bloc object """ self.name = name # internal name self.types = types # activity, activity_error, info self.color = color self.info = info # dict containing text with their position self.link = link # on clic link self.number = number self.title='' self.zone = zone # 1 = usefull area : 0 = useless one self.parent_activity = parent_activity self.constraints = constraints # setting warning and error flags in case parent_activity or block itself # have not been validated self.warning = warning self.error = error self.error_text = error_text # list of all the groups the bloc belongs to (reportTree) #self.container_axis_group = container_AxisGroup # integer pointing to the AxisElement containing the bloc (multitasking) #self.container_axis_element = container_AxisElement self.position_main = Position() self.position_secondary = \ Position(absolute_begin=secondary_start,absolute_end=secondary_stop) if calendar_view == 0: self.position_y = self.position_main self.position_x = self.position_secondary else: self.position_y = self.position_secondary self.position_x = self.position_main self.render_dict = None self.property_dict = property_dict # dict containing internal properties def buildInfoDict (self, info_dict=[]): """ create Info objects to display text & images, then link them to the current object """ # updating title if self.property_dict['stat'] == 1: self.title = str(self.parent_activity.height) self.info = None else: self.info = {} title_list = [] title_list.append( self.buildInfo(info_dict=info_dict, area='info_topleft')) title_list.append( self.buildInfo(info_dict=info_dict, area='info_topright')) title_list.append( self.buildInfo(info_dict=info_dict, area='info_center')) title_list.append( self.buildInfo(info_dict=info_dict, area='info_botleft')) title_list.append( self.buildInfo(info_dict=info_dict, area='info_botright')) self.title = " | ".join(title_list) if self.error != 0: # field has error # adding text_error self.info['info_error'] = Info(info=self.error_text, link='') def buildInfo(self,info_dict=[],area=None): if area in info_dict: # creating new object info = Info(info = info_dict[area], link = self.link) # saving new object to block dict self.info[area] = info # recovering text information return info_dict[area] else: return '' class Position: """ gives a bloc [/or an area] informations about it's position on the X or Y axis. can specify position in every kind of axis : continuous or listed with lower and upper bound. """ def __init__ (self, absolute_begin=None, absolute_end=None, absolute_range=None, relative_begin=None, relative_end=None, relative_range=None): # absolute size takes the bloc size in the original unit for the axis self.absolute_begin = absolute_begin self.absolute_end = absolute_end self.absolute_range = absolute_range # selative size in % of the current axis size self.relative_begin = relative_begin self.relative_end = relative_end self.relative_range = relative_range class Axis: """ Structure holding informations about a specified axis.Can be X or Y axis. Is aimed to handle axis with any kind of unit : continuous or listed ( including possibly a listed ReportTree). Two of them are needed in a PlanningStructure to have X and Y axis. In case of listed axis, holds AxisGroup Structure. """ def __init__(self, title=None, unit=None, types=None, axis_order=None, name=None, axis_group=None): self.title = title # axis title self.unit = unit # unit kind (time, nb... person, task, etc.) self.types = types # continuous / listed (incl. ReportTree) self.name = name self.size = 0 # value # axis group is a single group that contain the axis structure. # defined to be able to use a generic and recursive method to self.axis_group = axis_group # specify if axis is primary or secondary. # - if primary axis in Planning, zoom selection is applied thanks to # a cut over the basic structure objects (based on their position and # their length). # - if secondary axis in Planning, then need to apply the second zoom # bounds (application will be based on two bounds : start & stop) self.axis_order = axis_order # dict containing all class properties with their values self.render_dict=None class AxisGroup: """ Class representing an item, that can have the following properties : - one or several rendered lines (multiTasking) : contains AxisElement structure to hold this. - one or several sub groups (ReportTree) : contains AxisGroup structure to hold sub groups elements. """ def __init__ (self, name='', title='', object = None, axis_group_list=None, axis_group_number=0, axis_element_list=None, axis_element_number=0, delimiter_type=0, is_open=0, is_pure_summary=1,depth=0, url=None, axis_element_already_insered= 0, secondary_axis_start=None, secondary_axis_stop=None, property_dict={}): self.name = name self.title = title self.link = None # link to fold or unfold report in report-tree mode self.info_title = Info(info=self.title, link=self.link, title=self.title) self.tooltip = '' # tooltip used when cursor pass over the group self.object = object # ZODB object used to validate modifications self.axis_group_list = axis_group_list # ReportTree self.axis_group_number = axis_group_number self.axis_element_list = axis_element_list # Multitasking self.axis_element_number = axis_element_number self.axis_element_start = None self.axis_element_stop = None self.delimiter_type = delimiter_type # define the kind of separator used in graphic rendering # 0 for standard, 1 for bold, 2 for 2x bold # dict containing all class properties with their values self.render_dict=None self.is_open = is_open self.is_pure_summary = is_pure_summary self.depth = depth self.url = url # url to the object self.position_main = Position() self.position_secondary = Position() self.position_x = None self.position_y = None # UPDATE secondary axis_bounds are now linked to each axis_group to support # calendar output( were each axis_group has its own start and stop) self.secondary_axis_start = secondary_axis_start self.secondary_axis_stop = secondary_axis_stop self.property_dict = property_dict security = ClassSecurityInfo() security.declarePublic('setTitle') def setTitle(self,new_title = None): self.title = new_title def fixProperties(self, form_id=None, selection_name=None): """ using actual AxisGroup properties to define some special comportement that the axisGroup should have, especially in case of report-tree """ if self.is_open: # current report is unfold, action 'fold' self.info_title.link = 'portal_selections/foldReport?report_url=' + \ '%s&form_id=%s&list_selection_name=%s' %( self.url, form_id, selection_name) self.info_title.info = '[-] ' + self.info_title.info else: # current report is fold, action 'unfold' self.info_title.link = 'portal_selections/unfoldReport?report_url=' + \ '%s&form_id=%s&list_selection_name=%s' %( self.url, form_id, selection_name) self.info_title.info = '[+] ' + self.info_title.info #for i in range(self.depth): # self.title = '| ' + self.title self.info_title.title = self.info_title.info self.tooltip = self.info_title.info def addActivity(self, activity=None, axis_element_already_insered= 0): """ procedure that permits to add activity to the corresponding AxisElement in an AxisGroup. can create new Axis Element in the actual Axisgroup if necessary. Permits representation of MULTITASKING """ # declaring variable used to check if activity has already been added added = 0 try: # iterating each axis_element of the axis_group for axis_element in self.axis_element_list: can_add = 1 # recovering all activity properties of the actual axis_element and # iterating through them to check if one of them crosses the new one for activity_statement in axis_element.activity_list: if activity_statement.isValidPosition(activity.secondary_axis_begin, activity.secondary_axis_end) != 0: # isValidPosition returned 1 or 2, this means the activity already # present does prevent from adding the new activity as there is # coverage on the current axis_element. # stop iterating actual axis_element and try with the next one can_add = 0 break if can_add: # the whole activity_statements in actual axis have been succesfully # tested without problem. # can add new activity to the actual axis_element added = 1 axis_element.activity_list.append(activity) # updating activity properties activity.parent_axis_element = axis_element # no need to check the next axis_elements to know if they can hold # the new activity as it is already added to an axis_element break if not added: # all axis_elements of the current group have been tested and no one # can contain the new activity. self.axis_element_number += 1 # Need to create a new axis_element to hold the new activity new_axis_element=AxisElement(name='Group_%s_AxisElement_%s'% (str(self.axis_group_number), str(self.axis_element_number)), relative_number=self.axis_element_number, absolute_number=self.axis_element_number+ axis_element_already_insered) # add new activity to this brand new axis_element new_axis_element.activity_list = [] new_axis_element.activity_list.append(activity) # updating activity properties activity.parent_axis_element = new_axis_element # register the axis_element to the actual group. self.axis_element_list.append(new_axis_element) except TypeError: # in case axis_element_list is Empty (first activity to the group) # Need to create a new axis_element to hold the new activity self.axis_element_number += 1 new_axis_element = AxisElement(name='Group_%s_AxisElement_1' % str(self.axis_group_number), relative_number=\ self.axis_element_number, absolute_number =\ axis_element_already_insered + self.axis_element_number, parent_axis_group=self) # add new activity to this brand new axis_element new_axis_element.activity_list = [] new_axis_element.activity_list.append(activity) # updating activity properties activity.parent_axis_element = new_axis_element # register the axis_element to the actual group. self.axis_element_list = [] self.axis_element_list.append(new_axis_element) def addStatActivities(self, basic_activity_list=None, axis_group_number=0, axis_element_already_present= 0, calendar_view=0, primary_axis_block=None, property_dict={}): """ Permits to add stat block to the current AxisGroup. In this way use the single AxisElement present to fit the blocks """ # first adding axis_element to the current group self.axis_element_number += 1 new_axis_element=AxisElement(name='Group_%s_AxisElement_1' % str(self.axis_group_number), relative_number=self.axis_element_number, absolute_number=axis_element_already_present+ self.axis_element_number, parent_axis_group=self) new_axis_element.activity_list = [] self.axis_element_list = [] self.axis_element_list.append(new_axis_element) activity_number = 0 # add all activities to the same axis_element for basic_activity_object in basic_activity_list: # defining Activity from basic_activity_object activity = Activity(name= 'Group_%s_Activity_%s' %(str(axis_group_number), str(activity_number)), title=basic_activity_object.title, object=basic_activity_object.object, color=basic_activity_object.color, link=basic_activity_object.url, secondary_axis_begin=\ basic_activity_object.absolute_begin, secondary_axis_end=\ basic_activity_object.absolute_end, secondary_axis_start=\ basic_activity_object.absolute_start, secondary_axis_stop=\ basic_activity_object.absolute_stop, height=basic_activity_object.height, primary_axis_block=primary_axis_block, info=basic_activity_object.info_dict, calendar_view=calendar_view, property_dict = property_dict) activity.parent_axis_element = new_axis_element # append activity to current axis_element new_axis_element.activity_list.append(activity) activity_number +=1 def updateStatBlocks(self): """ called once the blocks have been defined on all activities if the current group is stat group, then this method is called process : - find the largest element to display - update size of all other elements """ # usually should get only 1 axis_element : all stats are displayed on the # same line. max_activity_height = 0 for activity in self.axis_element_list[0].activity_list: if activity.height > max_activity_height: max_activity_height = activity.height # now max height is known, just need to adapt size of all the blocks # composing the activities for activity in self.axis_element_list[0].activity_list: if activity.height in (0,None): relative_size = 1 else: relative_size = float(activity.height) / max_activity_height for block in activity.block_list: # recovering original values block_range = block.position_main.relative_range block_begin = block.position_main.relative_begin block_end = block.position_main.relative_end # calculating values final_range = relative_size * block_range final_loss = block_range - final_range final_begin = block_begin + final_loss # saving new values block.position_main.relative_begin = final_begin block.position_main.relative_range = final_range return 1 class AxisElement: """ Represents a line in an item. In most cases, an AxisGroup element will hold ony one AxisElement (simple listed axis), but sometimes more AxisElements are required (multi, simultaneous tasking). AxisElement is linked with the blocs displayed in it : this is only usefull when doing multitasking to check if a new bloc can be added to an existing AxisElement or if it is needed to create a new AxisElement in the AxisGroup to hold it. """ def __init__ (self,name='', relative_number=0, absolute_number=0, activity_list=None, parent_axis_group = None): self.name = name self.relative_number = relative_number # relative number / AxisGroup self.absolute_number = absolute_number # id in the current rendering self.activity_list = activity_list # dict containing all class properties with their values self.render_dict=None self.parent_axis_group = parent_axis_group class Info: """ Class holding all informations to display an info text div inside of a block or AxisGroup or whatever """ security = ClassSecurityInfo() def __init__(self, info=None, link=None, title=None): self.info = info self.link = link self.title = title security.declarePublic('edit') def edit(self, info=None): """ special method allowing to update Info content from an external script """ self.info = info # declaring validator instance PlanningBoxValidatorInstance = PlanningBoxValidator() class PlanningBox(ZMIField): meta_type = "PlanningBox" widget = PlanningBoxWidgetInstance validator = PlanningBoxValidatorInstance security = ClassSecurityInfo() security.declareProtected('Access contents information', 'get_value') def get_value(self, id, **kw): if id == 'default' and kw.get('render_format') in ('list', ): return self.widget.render(self, self.generate_field_key() , None , kw.get('REQUEST'), render_format=kw.get('render_format')) else: #pdb.set_trace() #return self.widget.render(self, self.generate_field_key() , None , # kw.get('REQUEST'), # render_format=kw.get('render_format')) return ZMIField.get_value(self, id, **kw) def render_css(self, value=None, REQUEST=None): return self.widget.render_css(self,'',value,REQUEST) InitializeClass(PlanningBoxWidget) allow_class(PlanningBoxWidget) InitializeClass(BasicStructure) allow_class(BasicStructure) InitializeClass(BasicGroup) allow_class(BasicGroup) InitializeClass(BasicActivity) allow_class(BasicActivity) InitializeClass(PlanningStructure) allow_class(PlanningStructure) InitializeClass(Activity) allow_class(Activity) InitializeClass(Bloc) allow_class(Bloc) InitializeClass(Position) allow_class(Position) InitializeClass(Axis) allow_class(Axis) InitializeClass(AxisGroup) allow_class(AxisGroup) InitializeClass(AxisElement) allow_class(AxisElement) InitializeClass(Info) allow_class(Info)