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import polars as pl |
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import numpy as np |
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import tensorflow as tf |
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import pandas as pd |
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import plotly.graph_objects as go |
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class tokenizer: |
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def __init__(self, |
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moves_index : str, |
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play_index : str, |
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positions_index : str, |
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scrimmage_index : str, |
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starts_index : str, |
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time_index : str, |
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window_size : int): |
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self.window = window_size |
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moves_index = pl.read_parquet(moves_index) |
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self.moves_index = self.convert_index_to_dict(moves_index) |
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play_index = pl.read_parquet(play_index) |
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self.play_index= self.convert_index_to_dict(play_index) |
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positions_index = pl.read_parquet(positions_index) |
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self.positions_index = self.convert_index_to_dict(positions_index) |
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scrimmage_index = pl.read_parquet(scrimmage_index) |
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self.scrimmage_index = self.convert_index_to_dict(scrimmage_index) |
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starts_index = pl.read_parquet(starts_index) |
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self.starts_index = self.convert_index_to_dict(starts_index) |
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time_index = pl.read_parquet(time_index) |
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self.time_index = self.convert_index_to_dict(time_index) |
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self.offdef_index = {0 : ["Def"], |
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1 : ["Off"]} |
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self.index = {"input_ids" : self.moves_index, |
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"PlayType" : self.play_index, |
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"position_ids" : self.positions_index, |
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"scrim_ids" : self.scrimmage_index, |
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"start_ids" : self.starts_index, |
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"pos_ids" : self.time_index, |
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"OffDef" : self.offdef_index} |
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def convert_index_to_dict(self, df : pl.DataFrame): |
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ID_col = [v for v in df.columns if "ID" in v] |
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assert len(ID_col) == 1 |
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new_id_name = ["ID"] |
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val_cols = [v for v in df.columns if v not in ID_col+["Cat"]] |
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new_val_name = ["Val_"+str(i) for i in range(1, len(val_cols)+1)] |
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past_names = ID_col + val_cols |
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new_names = new_id_name+new_val_name |
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renaming = {past_names[i]: new_names[i] for i in range(len(new_names))} |
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d = (df. |
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drop("Cat"). |
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rename(renaming). |
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select(new_names). |
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to_dict(as_series=False)) |
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final_d = {d["ID"][i] : [d[k][i] for k in new_val_name] for i in range(len(d["ID"]))} |
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return final_d |
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def base_decode(self, |
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pad_element, |
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inputs : list, |
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index : dict, |
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first : bool): |
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if first == True: |
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return [index[v][0] if v in index.keys() else pad_element for v in inputs] |
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else: |
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return [index[v] if v in index.keys() else pad_element for v in inputs] |
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def decode(self, |
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inputs : list, |
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type : str): |
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if type in ["input_ids", "start_ids"]: |
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padding = [-1000, -1000] |
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elif type in ["scrim_ids", "pos_ids"]: |
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padding = -1000 |
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else: |
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padding = "[PAD]" |
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if type in ["input_ids", "start_ids"]: |
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return self.base_decode(padding, inputs, index = self.index[type], first=False) |
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else: |
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return self.base_decode(padding, inputs, index = self.index[type], first=True) |
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def find_id_by_values(self, |
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input_dict : dict, |
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target_list : list): |
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for key, values in input_dict.items(): |
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if set(target_list) == set(values): |
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return key |
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def base_encode(self, |
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inputs : list, |
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index : dict): |
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return [self.find_id_by_values(index, [v]) for v in inputs] |
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def encode(self, |
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inputs : list, |
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type : str): |
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return self.base_encode(inputs, index = self.index[type]) |
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def decode_sequence(self, |
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input : dict): |
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return {k : self.decode(v, k) if k not in ["side_ids", "token_type_ids", "labels", "attention_mask", "ids"] else v for k,v in input.items()} |
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def encode_sequence(self, |
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input : dict): |
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return {k : self.encode(v, k) if k not in ["side_ids", "token_type_ids", "labels", "attention_mask", "ids"] else v for k,v in input.items()} |
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def truncate_to_time_t(self, |
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input : dict, |
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t : int): |
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to_keep = [i < t for i in input["pos_ids"]] |
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return {k: [v[i] for i in range(len(v)) if to_keep[i] == True] for k,v in input.items()} |
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def resize_window(self, |
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input : dict, |
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pos_id): |
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out = input.copy() |
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out["attention_mask"] = [0 if out["pos_ids"][p] <pos_id else 1 for p in range(len(out["pos_ids"]))] |
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return out |
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def prepare_for_call(self, |
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input : dict): |
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resize_limit = max([v for v in np.array(input["pos_ids"]).flatten() if v != 51]) - self.window |
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if resize_limit > 0: |
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input = self.resize_window(input, resize_limit) |
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done = {k : tf.constant(v) for k,v in input.items()} |
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if len(done["pos_ids"].shape) == 1: |
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done = {k : tf.expand_dims(v, axis=0) for k,v in input.items()} |
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return done |
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class generator: |
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def __init__(self, |
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model, |
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tokenizer, |
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temp, |
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n_select): |
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self.QBGPT = model |
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self.tokenizer = tokenizer |
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self.temperature = temp |
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self.n_select = n_select |
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def get_unique_lists(self, |
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l_of_ls : list): |
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list_of_tuples = [tuple(inner_list) for inner_list in l_of_ls] |
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unique_tuples = set(list_of_tuples) |
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unique_lists = [list(unique_tuple) for unique_tuple in unique_tuples] |
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return unique_lists |
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def cut(self, l, ref): |
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splitted = [] |
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cutted = [] |
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for i in range(len(l)): |
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if ref[i] == True: |
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cutted.append(l[i]) |
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else: |
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splitted.append(cutted) |
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cutted = [] |
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cutted.append(l[i]) |
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if i == len(l)-1: |
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splitted.append(cutted) |
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return splitted |
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def get_last_preds(self, |
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logits, |
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input : dict): |
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to_keep = [i == max(input["pos_ids"]) for i in input["pos_ids"]] |
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return np.array([logits[i] for i in range(len(logits)) if to_keep[i] == True]) |
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def get_logits(self, |
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input : dict): |
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x = self.tokenizer.prepare_for_call(input) |
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return self.QBGPT(x) |
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def convert_to_preds(self, |
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logits): |
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preds = tf.squeeze(logits, axis=0) |
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return preds |
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def set_temperature(self, |
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x): |
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if x < 5: |
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return self.temperature |
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elif x < 10 and x >= 5: |
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return self.temperature/2 |
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elif x <20 and x >= 10: |
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return self.temperature/5 |
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else: |
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return 1.0 |
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def select_and_temp(self, |
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tensor, |
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n, |
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temp): |
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probas = tf.nn.softmax(tf.sort(tensor/temp, axis = -1)[:,:,-n:], axis = 2) |
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indices = tf.argsort(tensor, axis = -1)[:,:,-n:] |
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return probas, indices |
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def draw_random(self, |
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probas): |
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drawn = np.vstack([np.random.multinomial(1, p.numpy(), 1) for p in probas[0]]) |
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drawn = tf.expand_dims(drawn, axis = 0) |
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return tf.cast(drawn, dtype="int32") |
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def get_indices(self, |
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drawn, |
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ind): |
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return tf.reduce_sum(drawn*ind, axis = 2) |
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def process_logits(self, |
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logits, |
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temp, |
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n): |
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probas, indices = self.select_and_temp(logits, n, temp) |
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drawn = self.draw_random(probas) |
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results = self.get_indices(drawn, indices) |
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return results |
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def generate(self, |
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input : dict): |
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logits = self.get_logits(input) |
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temperature_parameter = self.set_temperature(max(input["pos_ids"])) |
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processed_logits = self.process_logits(logits, n=self.n_select, temp=temperature_parameter) |
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preds = self.convert_to_preds(processed_logits) |
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return self.get_last_preds(preds, input) |
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def slice_inputs(self, |
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input : dict): |
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flags = [True] + [input["pos_ids"][i+1] > input["pos_ids"][i] for i in range(len(input["pos_ids"])-1)] |
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cutted_inputs = {k : self.cut(v, flags) for k,v in input.items()} |
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return cutted_inputs |
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def continue_by_token(self, |
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arr, |
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token :str): |
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if token == "input_ids": |
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return arr |
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if token == "pos_ids": |
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insert = max(arr)+1 |
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return np.concatenate([arr, np.array([insert])]) |
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elif token == "token_type_ids": |
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return np.concatenate([arr, np.array([1])]) |
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else: |
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return np.concatenate([arr, [arr[-1]]]) |
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def append_prediction(self, |
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arr, |
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pred): |
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return np.concatenate([arr, [pred]]) |
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def append_predictions(self, |
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d : dict, |
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preds): |
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new = d.copy() |
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new["input_ids"] = [self.append_prediction(new["input_ids"][i], preds[i]) for i in range(len(preds))] |
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return new |
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def merge_cuts(self, |
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input : dict): |
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return {k : np.concatenate(v) for k,v in input.items()} |
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def update_inputs(self, |
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input, |
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preds): |
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sliced = self.slice_inputs(input) |
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appended = self.append_predictions(sliced, preds) |
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continued = {k : [self.continue_by_token(e, k) for e in v] for k,v in appended.items()} |
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merged = self.merge_cuts(continued) |
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return merged |
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def generate_sequence(self, |
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input, |
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t): |
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new_input = input.copy() |
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for i in range(t): |
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generated = self.generate(new_input) |
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new_input = self.update_inputs(new_input, generated) |
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return new_input |
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def convert_list(self, |
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d, |
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keep_original): |
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new_df = d.copy() |
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new_df["start_ids_x"] = [v[0] for v in new_df["start_ids"]] |
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new_df["start_ids_y"] = [v[1] for v in new_df["start_ids"]] |
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new_df["input_ids_x"] = [v[0] for v in new_df["input_ids"]] |
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new_df["input_ids_y"] = [v[1] for v in new_df["input_ids"]] |
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if keep_original == True: |
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return new_df |
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else: |
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return {k : v for k,v in new_df.items() if k not in ["start_ids", "input_ids"]} |
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def remove_pad(self, |
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seq): |
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df = pd.DataFrame(seq) |
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filtered = df[df["start_ids_x"] != -1000].reset_index(drop=True) |
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filtered = df[df["input_ids_x"] != -1000].reset_index(drop=True) |
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return filtered.to_dict(orient = "list") |
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def _compute_true_sequence(self, |
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scrimmage_line, |
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start : list, |
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moves : list): |
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scrimmage = np.array([scrimmage_line, 26.5]) |
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updated_moves = np.array([np.array(start) + np.array(v) for v in moves]) |
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appended = np.concatenate([np.expand_dims(start, axis = 0), updated_moves]) |
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final = appended + scrimmage |
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return final |
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def compute_true_sequence(self, |
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scrims, |
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starts, |
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moves): |
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return self._compute_true_sequence(np.unique(scrims)[0], self.get_unique_lists(starts)[0], moves) |
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def _resize_variable(self, |
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x, |
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ref: str): |
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if ref in ["pos_ids", "token_type_ids"]: |
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return np.concatenate([[0], x]) |
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elif ref in ["input_ids", "start_ids"]: |
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return np.vstack([self.get_unique_lists(x)[0], x]) |
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else: |
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return np.concatenate([np.unique(x), x]) |
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def prepare_for_plot(self, |
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seq): |
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sequence = seq.copy() |
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sequence = self.convert_list(sequence, keep_original = True) |
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sequence = self.remove_pad(sequence) |
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cutted = self.slice_inputs(sequence) |
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moves_updated = [self.compute_true_sequence(cutted["scrim_ids"][i], cutted["start_ids"][i], cutted["input_ids"][i]) for i in range(len(cutted["input_ids"]))] |
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cutted["input_ids"] = moves_updated |
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cutted = {k : [self._resize_variable(e, k) if k != "input_ids" else e for e in v] for k,v in cutted.items()} |
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cutted["ids"] = [[i for e in range(len(cutted["input_ids"][i]))] for i in range(len(cutted["input_ids"]))] |
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merged = self.merge_cuts(cutted) |
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converted = self.convert_list(merged, keep_original = False) |
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structured = {k:v for k,v in converted.items() if k != "labels"} |
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return structured |
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def insert_ids(self, |
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input): |
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cutted = self.slice_inputs(input) |
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cutted["ids"] = [[i for e in range(len(cutted["input_ids"][i]))] for i in range(len(cutted["input_ids"]))] |
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merged = self.merge_cuts(cutted) |
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return merged |
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def get_plot(df, n_frames, name): |
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fig = go.Figure( |
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layout=go.Layout( |
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updatemenus=[dict(type="buttons", direction="right", x=0.9, y=1.16), ], |
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xaxis=dict(range=[0, 120], |
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autorange=False, tickwidth=2, |
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title_text="X"), |
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yaxis=dict(range=[0, 60], |
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autorange=False, |
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title_text="Y") |
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)) |
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i = 1 |
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frames = {i: [] for i in df["pos_ids"].unique() if i !=0} |
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for id in df["ids"].unique(): |
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spec = df[df["ids"] == id].reset_index(drop = True) |
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fig.add_trace( |
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go.Scatter(x=spec.input_ids_x[:i], |
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y=spec.input_ids_y[:i], |
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name= spec.position_ids.unique()[0], |
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text= spec.position_ids.unique()[0], |
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visible=True, |
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line=dict(color="#f47738", dash="solid"))) |
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for k in range(i, spec.shape[0]): |
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current_frame = spec["pos_ids"][k] |
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frames[current_frame].append(go.Scatter(x=spec.input_ids_x[:k], y=spec.input_ids_y[:k])) |
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frames = list(frames.values()) |
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frames = [go.Frame(data = v) for v in frames] |
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fig.update(frames=frames) |
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fig.update_xaxes(ticks="outside", tickwidth=2, tickcolor='white', ticklen=10) |
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fig.update_yaxes(ticks="outside", tickwidth=2, tickcolor='white', ticklen=1) |
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fig.update_layout(yaxis_tickformat=',') |
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fig.update_layout(legend=dict(x=0, y=1.1), legend_orientation="h") |
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fig.update_layout(title=f"{name} play", |
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xaxis_title="X", |
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yaxis_title="Y", |
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legend_title="Legend Title", |
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showlegend=False, |
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font=dict( |
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family="Arial", |
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size=14 |
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), |
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hovermode="x", |
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updatemenus=[ |
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dict( |
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buttons=list( |
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[ |
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dict(label="Play", |
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method="animate", |
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args=[None, {"frame": {"duration": n_frames}}]) |
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] |
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), |
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type = "buttons", |
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direction="right", |
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pad={"r": 50, "t": 50}, |
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showactive=False, |
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x=0.5, |
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yanchor="top") |
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]) |
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fig.update_layout(template='plotly_dark' |
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) |
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fig.update_layout(width=1200, height=600) |
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return fig |
