244 lines
9.5 KiB
Python
244 lines
9.5 KiB
Python
from datetime import datetime, date, timedelta
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import json
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def get_workouts(topsets):
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# Get all unique workout_ids (No duplicates)
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workout_ids = list(set([t['WorkoutId']
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for t in topsets if t['WorkoutId'] is not None]))
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# Group topsets into workouts
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workouts = []
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for workout_id in reversed(workout_ids):
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topsets_in_workout = [
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t for t in topsets if t['WorkoutId'] == workout_id]
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workouts.append({
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'WorkoutId': workout_id,
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'StartDate': topsets_in_workout[0]['StartDate'],
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'TopSets': [{"TopSetId": t['TopSetId'], "ExerciseId": t['ExerciseId'], "ExerciseName": t['ExerciseName'], "Weight": t['Weight'], "Repetitions": t['Repetitions'], "Estimated1RM": t['Estimated1RM']} for t in topsets_in_workout if t['TopSetId'] is not None]
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})
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workouts.sort(key=lambda x: x['StartDate'], reverse=True)
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return workouts
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def get_all_exercises_from_topsets(topsets):
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exercise_ids = set([t['ExerciseId']
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for t in topsets if t['ExerciseId'] is not None])
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exercises = []
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for exercise_id in exercise_ids:
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exercises.append({
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'ExerciseId': exercise_id,
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'ExerciseName': next((t['ExerciseName'] for t in topsets if t['ExerciseId'] == exercise_id), 'Unknown')
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})
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return exercises
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def get_rep_maxes_for_person(person_topsets):
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person_exercises = get_all_exercises_from_topsets(person_topsets)
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rep_maxes_in_exercises = []
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for e in person_exercises:
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exercise_topsets = [
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t for t in person_topsets if t['ExerciseId'] == e['ExerciseId']]
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set_reps = set([t['Repetitions'] for t in exercise_topsets])
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topsets_for_exercise = []
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for rep in set_reps:
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reps = [t for t in exercise_topsets if t['Repetitions'] == rep]
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max_weight = max([t['Weight'] for t in reps])
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max_topset_for_rep = [t for t in reps if t['Weight'] == max_weight]
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topsets_for_exercise.append({
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'StartDate': max_topset_for_rep[0]['StartDate'].strftime("%b %d %Y"),
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'Repetitions': rep,
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'Weight': max_weight,
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'Estimated1RM': max_topset_for_rep[0]['Estimated1RM'],
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})
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# datetime.strptime(x['StartDate'], "%Y-%m-%d")
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topsets_for_exercise.sort(
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key=lambda x: x['Repetitions'], reverse=True)
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rep_maxes_in_exercises.append({
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'ExerciseId': e['ExerciseId'],
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'ExerciseName': e['ExerciseName'],
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'RepMaxes': topsets_for_exercise
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})
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return rep_maxes_in_exercises
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def get_people_and_exercise_rep_maxes(topsets, selected_person_ids, selected_exercise_ids, min_date, max_date):
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# Get all unique workout_ids (No duplicates)
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people_ids = set([t['PersonId']
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for t in topsets])
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filtered_people_ids = [p for p in people_ids if p in selected_person_ids]
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# Group topsets into workouts
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people = []
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for person_id in filtered_people_ids:
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workouts_for_person = [
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t for t in topsets if t['PersonId'] == person_id and t['ExerciseId'] in selected_exercise_ids and t['StartDate'] >= min_date and t['StartDate'] <= max_date]
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if workouts_for_person:
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people.append({
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'PersonId': person_id,
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'PersonName': workouts_for_person[0]['PersonName'],
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'NumberOfWorkouts': len(list(set([t['WorkoutId'] for t in workouts_for_person if t['WorkoutId'] is not None]))),
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'Exercises': get_rep_maxes_for_person(workouts_for_person)
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})
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return {"People": people, "Stats": get_stats_from_topsets(topsets)}
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def get_stats_from_topsets(topsets):
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workout_count = len(set([t['WorkoutId']
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for t in topsets if t['WorkoutId'] is not None]))
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people_count = len(set([t['PersonId']
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for t in topsets if t['PersonId'] is not None]))
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workout_start_dates = [t['StartDate']
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for t in topsets if t['StartDate'] is not None]
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stats = [{"Text": "Total Workouts", "Value": workout_count},
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{"Text": "Total Sets", "Value": len(topsets)}]
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if people_count > 1:
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stats.append({"Text": "People tracked", "Value": people_count})
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if workout_count > 0:
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first_workout_date = min(workout_start_dates)
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last_workout_date = max(workout_start_dates)
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stats.append({"Text": "Days Since First Workout", "Value": (
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date.today() - first_workout_date).days})
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if workout_count >= 2:
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stats.append({"Text": "Days Since Last Workout",
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"Value": (
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date.today() - last_workout_date).days})
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average_number_sets_per_workout = round(
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len(topsets) / workout_count, 1)
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stats.append({"Text": "Average sets per workout",
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"Value": average_number_sets_per_workout})
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training_duration = last_workout_date - first_workout_date
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if training_duration > timedelta(days=0):
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average_workouts_per_week = round(
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workout_count / (training_duration.days / 7), 1)
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stats.append({"Text": "Average Workouts Per Week",
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"Value": average_workouts_per_week})
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return stats
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def convert_str_to_date(date_str, format='%Y-%m-%d'):
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try:
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return datetime.strptime(date_str, format).date()
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except ValueError:
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return None
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except TypeError:
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return None
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def get_earliest_and_latest_workout_date(person):
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if len(person['Workouts']) > 0:
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return (min(person['Workouts'], key=lambda x: x['StartDate'])['StartDate'], max(person['Workouts'], key=lambda x: x['StartDate'])['StartDate'])
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return (datetime.now().date(), datetime.now().date())
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def filter_workout_topsets(workout, selected_exercise_ids):
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workout['TopSets'] = [topset for topset in workout['TopSets']
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if topset['ExerciseId'] in selected_exercise_ids]
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return workout
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def get_exercise_ids_from_workouts(workouts):
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return list(set(flatten_list(list(map(lambda x: list(
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map(lambda y: y['ExerciseId'], x['TopSets'])), workouts)))))
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def flatten_list(list_of_lists):
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return [item for sublist in list_of_lists for item in sublist]
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def first_and_last_visible_days_in_month(first_day_of_month, last_day_of_month):
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start = dict([(6, 0), (0, 1), (1, 2), (2, 3), (3, 4), (4, 5), (5, 6)])
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start_date = first_day_of_month - \
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timedelta(days=start[first_day_of_month.weekday()])
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end = dict([(6, 6), (0, 5), (1, 4), (2, 3), (3, 2), (4, 1), (5, 0)])
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end_date = last_day_of_month + \
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timedelta(days=end[last_day_of_month.weekday()])
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return (start_date, end_date)
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def flatten(lst):
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"""
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Flatten a list of lists.
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"""
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result = []
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for item in lst:
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if isinstance(item, list):
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result.extend(flatten(item))
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else:
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result.append(item)
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return result
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def get_date_info(input_date, selected_view):
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if selected_view not in ['month', 'year']:
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raise ValueError(
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'selected_view must be either "month" or "year"')
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# First day of the month
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first_day_of_month = input_date.replace(day=1)
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# Last day of the month
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if input_date.month == 12:
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last_day_of_month = input_date.replace(
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year=input_date.year+1, month=1, day=1) - timedelta(days=1)
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else:
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last_day_of_month = input_date.replace(
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month=input_date.month+1, day=1) - timedelta(days=1)
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# First and last day of the year
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first_day_of_year = input_date.replace(month=1, day=1)
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last_day_of_year = input_date.replace(
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year=input_date.year+1, month=1, day=1) - timedelta(days=1)
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# Next/previous week
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next_week = input_date + timedelta(weeks=1)
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prev_week = input_date - timedelta(weeks=1)
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# Next/previous month
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year, month = divmod(input_date.year * 12 + input_date.month, 12)
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next_month = date(year, month + 1, 1)
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prev_month_last_day = first_day_of_month - timedelta(days=1)
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prev_month = prev_month_last_day.replace(day=1)
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# Next/previous year
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next_year = input_date.replace(year=input_date.year+1)
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prev_year = input_date.replace(year=input_date.year-1)
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# Business logic, should move above to a separate function
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if selected_view == 'month':
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# Step 1: Find the first Sunday before or on the first day of the month
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days_to_subtract = (first_day_of_month.weekday() + 1) % 7
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start_date = first_day_of_month - timedelta(days=days_to_subtract)
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# Step 2: Calculate the last day to display, based on the number of weeks
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end_date = start_date + timedelta(days=6 * 7 - 1)
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return {
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'next_date': next_month,
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'previous_date': prev_month,
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'first_date_of_view': first_day_of_month,
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'last_date_of_view': last_day_of_month,
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'start_date': start_date,
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'end_date': end_date,
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}
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elif selected_view == 'year':
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return {
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'next_date': next_year,
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'previous_date': prev_year,
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'first_date_of_view': first_day_of_year,
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'last_date_of_view': last_day_of_year,
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'start_date': first_day_of_year,
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'end_date': last_day_of_year,
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}
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