from datetime import datetime from faster_whisper import WhisperModel from functools import partial from pydub import AudioSegment from whisper.normalizers import EnglishTextNormalizer from scipy.optimize import minimize from emotes_v2 import EmotesState import app_config import argparse import editdistance import keybind_event_machine import langcodes import math import numpy as np import os import osc_ctrl import pyaudio import steamvr import sys import threading import time import typing import vad import wave class ThreadControl: def __init__(self, cfg): self.cfg = cfg self.run_app = True class AudioStream(): FORMAT = pyaudio.paInt16 # Size of each frame (audio sample), in bytes. If you change FORMAT, make # sure this stays up to date! FRAME_SZ = 2 # Frames per second. FPS = 16000 CHANNELS = 1 def __init__(self): pass def getSamples(self) -> bytes: raise NotImplementedError("getSamples is not implemented!") class DiskStream(AudioStream): def __init__(self, path: str): fmt = None if path.endswith(".mp3"): fmt = "mp3" elif path.endswith(".wav"): fmt = "wav" else: raise NotImplementedError(f"Requested file type {path} " + \ "is not supported") print(f"Loading audio data", file=sys.stderr) audio = AudioSegment.from_file(path, format=fmt) audio = audio.set_channels(1) # TODO(yum) replace manual decimation code with this! audio = audio.set_frame_rate(16000) frames = np.array(audio.get_array_of_samples()) frames = np.int16(frames).tobytes() self.frames = frames print(f"Loaded data", file=sys.stderr) def getSamples(self) -> bytes: # Give out samples at a fixed rate to minimize # noise. give_s = 0.2 nframes = int(give_s * AudioStream.FPS) frames = self.frames[0:nframes * AudioStream.FRAME_SZ]; self.frames = self.frames[nframes * AudioStream.FRAME_SZ:] if len(frames) < nframes: frames += np.zeros(nframes - len(frames), dtype=np.int16).tobytes() return frames class MicStream(AudioStream): CHUNK_SZ = 1024 def __init__(self, which_mic: str): self.p = pyaudio.PyAudio() self.stream = None self.sample_rate = None # Each time pyaudio gives us audio data, it's in the form of a chunk of # samples. We keep these in a list to keep the audio callback as light # as possible. Whenever downstream layers want data, we collapse the # list into a single array of data (a bytes object). self.chunks = [] # If set, incoming frames are simply discarded. self.paused = False print(f"Finding mic {which_mic}", file=sys.stderr) self.dumpMicDevices() got_match = False device_index = -1 focusrite_str = "Focusrite" index_str = "Digital Audio Interface" if which_mic == "index": target_str = index_str elif which_mic == "focusrite": target_str = focusrite_str else: print(f"Mic {which_mic} requested, treating it as a numerical " + "device ID", file=sys.stderr) device_index = int(which_mic) got_match = True if not got_match: info = self.p.get_host_api_info_by_index(0) numdevices = info.get('deviceCount') for i in range(0, numdevices): if (self.p.get_device_info_by_host_api_device_index(0, i).get('maxInputChannels')) > 0: device_name = self.p.get_device_info_by_host_api_device_index(0, i).get('name') if target_str in device_name: print(f"Got matching mic: {device_name}", file=sys.stderr) device_index = i got_match = True break if not got_match: raise KeyError(f"Mic {which_mic} not found") info = self.p.get_device_info_by_host_api_device_index(0, device_index) print(f"Found mic {which_mic}: {info['name']}", file=sys.stderr) self.sample_rate = int(info['defaultSampleRate']) print(f"Mic sample rate: {self.sample_rate}", file=sys.stderr) self.stream = self.p.open( rate=self.sample_rate, channels=AudioStream.CHANNELS, format=AudioStream.FORMAT, input=True, frames_per_buffer=MicStream.CHUNK_SZ, input_device_index=device_index, stream_callback=self.onAudioFramesAvailable) self.stream.start_stream() AudioStream.__init__(self) def pause(self, state: bool = True): self.paused = state def dumpMicDevices(self): info = self.p.get_host_api_info_by_index(0) numdevices = info.get('deviceCount') for i in range(0, numdevices): if (self.p.get_device_info_by_host_api_device_index(0, i).get('maxInputChannels')) > 0: device_name = self.p.get_device_info_by_host_api_device_index(0, i).get('name') print("Input Device id ", i, " - ", device_name, file=sys.stderr) def onAudioFramesAvailable(self, frames, frame_count, time_info, status_flags): if self.paused: # Don't literally pause, just start returning silence. This allows # the `min_segment_age_s` check to work while paused. n_frames = int(frame_count * AudioStream.FPS / float(self.sample_rate)) self.chunks.append(np.zeros(n_frames, dtype=np.int16).tobytes()) return (frames, pyaudio.paContinue) decimated = b'' # In pyaudio, a `frame` is a single sample of audio data. frame_len = AudioStream.FRAME_SZ next_frame = 0.0 # The mic probably has a higher sample rate than Whisper wants, so # decrease the sample rate by dropping samples. Note that this # algorithm only works if the mic's rate is higher than whisper's # expected rate. keep_every = float(self.sample_rate) / AudioStream.FPS for i in range(frame_count): if i >= next_frame: decimated += frames[i*frame_len:(i+1)*frame_len] next_frame += keep_every self.chunks.append(decimated) return (frames, pyaudio.paContinue) # Get audio data and the corresponding timestamp. def getSamples(self) -> bytes: chunks = self.chunks self.chunks = [] result = b''.join(chunks) return result class AudioCollector: def __init__(self, stream: AudioStream): self.stream = stream self.frames = b'' # Note: by design, this is the only spot where we anchor our timestamps # against the real world. This is done to make it possible to profile # test cases which read from disk (at much faster than real speed) in # the same way that we profile real-time data. self.wall_ts = time.time() def getAudio(self) -> bytes: frames = self.stream.getSamples() if frames: self.frames += frames return self.frames def dropAudioPrefix(self, dur_s: float) -> bytes: n_bytes = int(dur_s * self.stream.FPS) * self.stream.FRAME_SZ n_bytes = min(n_bytes, len(self.frames)) cut_portion = self.frames[:n_bytes] self.frames = self.frames[n_bytes:] self.wall_ts = self.wall_ts + self.duration() return cut_portion def dropAudioPrefixByFrames(self, dur_frames: int) -> bytes: n_bytes = dur_frames * self.stream.FRAME_SZ n_bytes = min(n_bytes, len(self.frames)) cut_portion = self.frames[:n_bytes] self.frames = self.frames[n_bytes:] self.wall_ts = self.wall_ts + self.duration() return cut_portion def keepLast(self, dur_s: float) -> bytes: drop_len = max(0, self.duration() - dur_s) return self.dropAudioPrefix(drop_len) def dropAudio(self): self.wall_ts += self.duration() cut_portion = self.frames self.frames = b'' return cut_portion def duration(self): return len(self.frames) / (self.stream.FPS * self.stream.FRAME_SZ) def begin(self): return self.wall_ts def now(self): return self.begin() + self.duration() class AudioCollectorFilter: def __init__(self, parent: AudioCollector): self.parent = parent def getAudio(self) -> bytes: return self.parent.getAudio() def dropAudioPrefix(self, dur_s: float): return self.parent.dropAudioPrefix(dur_s) def dropAudioPrefixByFrames(self, dur_frames: int): return self.parent.dropAudioPrefixByFrames(dur_frames) def keepLast(self, dur_s): return self.parent.keepLast(dur_s) def dropAudio(self): return self.parent.dropAudio() def duration(self): return self.parent.duration() def begin(self): return self.parent.begin() def now(self): return self.parent.now() # Audio collector that enforces a minimum length on its audio data. class LengthEnforcingAudioCollector(AudioCollectorFilter): def __init__(self, parent: AudioCollector, min_duration_s: float): AudioCollectorFilter.__init__(self, parent) self.min_duration_s = min_duration_s def getAudio(self) -> bytes: audio = self.parent.getAudio() min_duration_frames = int(self.min_duration_s * AudioStream.FPS) pad_len_frames = max(0, min_duration_frames - int(len(audio) / AudioStream.FRAME_SZ)) pad = np.zeros(pad_len_frames, dtype=np.int16).tobytes() return pad + audio class NormalizingAudioCollector(AudioCollectorFilter): def __init__(self, parent: AudioCollector): AudioCollectorFilter.__init__(self, parent) def getAudio(self) -> bytes: audio = self.parent.getAudio() audio = AudioSegment(audio, sample_width=AudioStream.FRAME_SZ, frame_rate=AudioStream.FPS, channels=AudioStream.CHANNELS) audio = audio.normalize() frames = np.array(audio.get_array_of_samples()) frames = np.int16(frames).tobytes() return frames class CompressingAudioCollector(AudioCollectorFilter): def __init__(self, parent: AudioCollector): AudioCollectorFilter.__init__(self, parent) def getAudio(self) -> bytes: audio = self.parent.getAudio() audio = AudioSegment(audio, sample_width=AudioStream.FRAME_SZ, frame_rate=AudioStream.FPS, channels=AudioStream.CHANNELS) # subtle compression has a slight positive effect on my benchmark audio = audio.compress_dynamic_range(threshold=-10, ratio=2.0) frames = np.array(audio.get_array_of_samples()) frames = np.int16(frames).tobytes() return frames class AudioSegmenter: def __init__(self, min_silence_ms=250): self.vad_options = vad.VadOptions( min_silence_duration_ms=min_silence_ms) pass def segmentAudio(self, audio: bytes): audio = np.frombuffer(audio, dtype=np.int16).flatten().astype(np.float32) / 32768.0 return vad.get_speech_timestamps(audio, vad_options=self.vad_options) # Returns the stable cutoff (if any) and whether there are any segments. def getStableCutoff(self, audio: bytes) -> typing.Tuple[int, bool]: min_delta_frames = int((self.vad_options.min_silence_duration_ms * AudioStream.FPS) / 1000) cutoff = None last_end = None segments = self.segmentAudio(audio) for i in range(len(segments)): s = segments[i] #print(f"s: {s}") #print(f"last_end: {last_end}") if last_end: delta_frames = s['start'] - last_end #print(f"delta frames: {delta_frames}") if delta_frames > min_delta_frames: cutoff = s['start'] else: last_end = s['end'] if i == len(segments) - 1: now = int(len(audio) / AudioStream.FRAME_SZ) #print(f"now: {now}") #print(f"min d: {min_delta_frames}") if now - s['end'] > min_delta_frames: cutoff = now - int(min_delta_frames / 2) return (cutoff, len(segments) > 0) # A segment of transcribed audio. `start_ts` and `end_ts` are floating point # number of seconds since the beginning of audio data. class Segment: def __init__(self, transcript: str, start_ts: float, end_ts: float, wall_ts: float, avg_logprob: float, no_speech_prob: float): self.transcript = transcript # start_ts, end_ts are timestamps in seconds relative to `wall_ts`. self.start_ts = start_ts self.end_ts = end_ts # wall_ts is the time.time() at which the oldest audio sample leading # to this transcript was collected. self.wall_ts = wall_ts self.avg_logprob = avg_logprob self.no_speech_prob = no_speech_prob def __str__(self): ts = f"(ts: {self.start_ts}-{self.end_ts}) " wall_ts_start = datetime.utcfromtimestamp(self.start_ts + self.wall_ts).strftime('%H:%M:%S') wall_ts_end = datetime.utcfromtimestamp(self.end_ts + self.wall_ts).strftime('%H:%M:%S') wall_ts = f"(wall ts: {wall_ts_start}-{wall_ts_end}) " no_speech = f"(no_speech: {self.no_speech_prob}) " avg_logprob = f"(avg_logprob: {self.avg_logprob}) " return f"{self.transcript} " + ts + wall_ts + no_speech + avg_logprob class Whisper: def __init__(self, collector: AudioCollector, cfg: typing.Dict): self.collector = collector self.model = None self.cfg = cfg abspath = os.path.abspath(__file__) my_dir = os.path.dirname(abspath) parent_dir = os.path.dirname(my_dir) model_root = os.path.join(parent_dir, "Models", cfg["model"]) print(f"Model {cfg['model']} will be saved to {model_root}", file=sys.stderr) model_device = "cuda" if cfg["use_cpu"]: model_device = "cpu" download_it = os.path.exists(model_root) model_str = cfg["model"] if download_it: model_str = model_root self.model = WhisperModel(model_str, device = model_device, device_index = cfg["gpu_idx"], compute_type = "int8", download_root = model_root, local_files_only = download_it) def transcribe(self, frames: bytes = None) -> typing.List[Segment]: if frames is None: frames = self.collector.getAudio() # Convert from signed 16-bit int [-32768, 32767] to signed 32-bit float on # [-1, 1]. audio = np.frombuffer(frames, dtype=np.int16).flatten().astype(np.float32) / 32768.0 segments, info = self.model.transcribe( audio, language = langcodes.find(self.cfg["language"]).language, vad_filter = True, temperature=0.0, without_timestamps = False) res = [] for s in segments: # Manual touchup. I see a decent number of hallucinations sneaking # in with high `no_speech_prob` and modest `avg_logprob`. if s.no_speech_prob > 0.8 and s.avg_logprob < -0.5: continue res.append(Segment(s.text, s.start, s.end, self.collector.begin(), s.avg_logprob, s.no_speech_prob)) return res class TranscriptCommit: def __init__(self, delta: str, preview: str, latency_s: int = None, thresh_at_commit: int = None, audio: bytes = None): self.delta = delta self.preview = preview self.latency_s = latency_s self.thresh_at_commit = thresh_at_commit self.audio = audio def saveAudio(audio: bytes, path: str): with wave.open(path, 'wb') as wf: print(f"Saving audio to {path}", file=sys.stderr) wf.setnchannels(AudioStream.CHANNELS) wf.setsampwidth(AudioStream.FRAME_SZ) wf.setframerate(AudioStream.FPS) wf.writeframes(audio) class VadCommitter: def __init__(self, cfg: typing.Dict, collector: AudioCollector, whisper: Whisper, segmenter: AudioSegmenter): self.cfg = cfg self.collector = collector self.whisper = whisper self.segmenter = segmenter def getDelta(self) -> TranscriptCommit: audio = self.collector.getAudio() stable_cutoff, has_audio = self.segmenter.getStableCutoff(audio) delta = "" commit_audio = None latency_s = None if stable_cutoff: #print(f"stable cutoff get: {stable_cutoff}", file=sys.stderr) latency_s = self.collector.now() - self.collector.begin() commit_audio = self.collector.dropAudioPrefixByFrames(stable_cutoff) segments = self.whisper.transcribe(commit_audio) for s in segments: print(f"commit segment: {s}", file=sys.stderr) delta = ''.join(s.transcript for s in segments) print(f"delta get: {delta}", file=sys.stderr) audio = self.collector.getAudio() #ts = datetime.fromtimestamp(self.collector.now() - latency_s) #filename = str(ts.strftime('%Y_%m_%d__%H-%M-%S')) + ".wav" #saveAudio(commit_audio, filename) preview = "" if self.cfg["enable_previews"]: if has_audio: segments = self.whisper.transcribe(audio) preview = "".join(s.transcript for s in segments) else: #print("VAD detects no audio, skip transcription", file=sys.stderr) self.collector.keepLast(1.0) return TranscriptCommit( delta, preview, latency_s, audio=audio) class OscPager: def __init__(self, cfg): self.osc_state = osc_ctrl.OscState(cfg["chars_per_sync"], cfg["rows"], cfg["cols"], cfg["bytes_per_char"]) self.cfg = cfg self.next_sync_window = time.time() def page(self, text): if self.cfg["use_builtin"]: osc_ctrl.pageMessageBuiltin(self.osc_state, text) self.bumpSyncWindow(amount_s=1.5) else: osc_ctrl.pageMessage(self.osc_state, text, EmotesState()) self.bumpSyncWindow() def bumpSyncWindow(self, amount_s=osc_ctrl.SYNC_DELAY_S): self.next_sync_window = time.time() + amount_s def getSyncWindow(self): while time.time() < self.next_sync_window: time.sleep(0.01) def clear(self): osc_ctrl.clear(self.osc_state) self.bumpSyncWindow() def toggleBoard(self, state: bool): osc_ctrl.toggleBoard(self.osc_state.client, state) self.bumpSyncWindow() def lockWorld(self, state: bool): osc_ctrl.lockWorld(self.osc_state.client, state) self.bumpSyncWindow() def ellipsis(self, state: bool): osc_ctrl.ellipsis(self.osc_state.client, state) self.bumpSyncWindow() def evaluate(cfg, audio_path: str, control_path: str): stream = DiskStream(audio_path) collector = AudioCollector(stream) collector = CompressingAudioCollector(collector) whisper = Whisper(collector, cfg) segmenter = AudioSegmenter(min_silence_ms=250) committer = VadCommitter(cfg, collector, whisper, segmenter) transcript = "" commits = [] last_commit_ts = None while True: commit = committer.getDelta() if last_commit_ts != None and collector.now() - last_commit_ts > 30: break if len(commit.delta) > 0: print(f"Commit latency: {commit.latency_s}", file=sys.stderr) commits.append(commit) last_commit_ts = collector.now() transcript += commit.delta preview = commit.preview if False and len(commit.delta): print(f"transcript: {transcript}", file=sys.stderr) print(f"commit latency: {commit.latency_s}", file=sys.stderr) print(f"commit thresh: {commit.thresh_at_commit}", file=sys.stderr) with open(control_path, "r") as f: control = f.read() normalizer = EnglishTextNormalizer() control = normalizer(control) experiment = normalizer(transcript) sum_latency = 0 for commit in commits: sum_latency += commit.latency_s avg_latency = sum_latency / len(commits) dist = editdistance.eval(control, experiment) print(f"RESULTS", file=sys.stderr) print(f"edit distance: {dist}", file=sys.stderr) print(f"avg latency: {avg_latency}", file=sys.stderr) print(f"num commits: {len(commits)}", file=sys.stderr) print(f"final transcript: {transcript}", file=sys.stderr) score = (3 + (dist/len(control)) * 100) * avg_latency print(f"score: {score}", file=sys.stderr) return score def optimize(cfg, experiments: typing.List[typing.Tuple[str, str]]): def wrapper_to_optimize(x): s = 0 for audio_path, control_path in experiments: s += evaluate( cfg, audio_path, control_path, int(x[0]), # last_n_must_match 2**x[1], # edit_thresh_min (2**x[2])-1,# edit_thresh_grow_begin_s x[3], # edit_thresh_grow_halflife_s x[4] # min_segment_age_s ) return s initial_guess = [2.3, 1, 1.75, 1.5, 0.5] bounds = [ (2, 3), # last_n_must_match (1, 4), # edit_thresh_min (0, 2.5), # edit_thresh_grow_begin_s (0.1, 2), # edit_thresh_grow_halflife_s (0, 3) # min_segment_age_s ] result = minimize( wrapper_to_optimize, initial_guess, bounds=bounds, method='L-BFGS-B', options={"maxfun": int((60/.5)*12), "eps": 0.2}, ) optimized_params = result.x print("Optimized Parameters:", file=sys.stderr) print(f"last_n_must_match: {int(optimized_params[0])}", file=sys.stderr) print(f"edit_thresh_min: {optimized_params[1]}", file=sys.stderr) print(f"edit_thresh_grow_begin_s: {optimized_params[2]}", file=sys.stderr) print(f"edit_thresh_grow_halflife_s: {optimized_params[3]}", file=sys.stderr) print(f"min_segment_age_s: {optimized_params[4]}", file=sys.stderr) return optimized_params def transcriptionThread(ctrl: ThreadControl): while ctrl.run_app: op = None commit = ctrl.committer.getDelta() if len(commit.delta) > 0 or len(commit.preview) > 0: print(f"Transcript: {ctrl.transcript}{commit.delta}{commit.preview}") if cfg["enable_debug_mode"]: print(f"commit latency: {commit.latency_s}", file=sys.stderr) print(f"commit thresh: {commit.thresh_at_commit}", file=sys.stderr) if len(commit.preview) > 0: print("Finalized: 0") else: print("Finalized: 1") ctrl.transcript += commit.delta ctrl.preview = ctrl.transcript + commit.preview def vrInputThread(ctrl: ThreadControl): RECORD_STATE = 0 PAUSE_STATE = 1 state = PAUSE_STATE hand_id = ctrl.cfg["button"].split()[0] button_id = ctrl.cfg["button"].split()[1] # Rough description of state machine: # Single short press: toggle transcription # Medium press: dismiss custom chatbox # Long press: update chatbox in place # Medium press + long press: type transcription last_rising = time.time() last_medium_press_end = 0 button_generator = steamvr.pollButtonPress(hand=hand_id, button=button_id, ctrl=ctrl) while ctrl.run_app: time.sleep(0.01) try: event = next(button_generator) except StopIteration: break if event.opcode == steamvr.EVENT_RISING_EDGE: last_rising = time.time() if state == PAUSE_STATE: ctrl.stream.pause(False) ctrl.stream.getSamples() elif event.opcode == steamvr.EVENT_FALLING_EDGE: now = time.time() if now - last_rising > 1.5: # Long press: treat as the end of transcription. state = PAUSE_STATE ctrl.stream.pause(True) if last_rising - last_medium_press_end < 1.0: # Type transcription if ctrl.cfg["enable_local_beep"]: #audio_state.audio_events.append(audio_state.AUDIO_EVENT_UPDATE) pass #keyboard.write(audio_state.filtered_text) else: if ctrl.cfg["enable_local_beep"]: #audio_state.audio_events.append(audio_state.AUDIO_EVENT_TOGGLE_OFF) pass elif now - last_rising > 0.5: # Medium press print("CLEARING", file=sys.stderr) last_medium_press_end = now state = PAUSE_STATE if ctrl.cfg["enable_local_beep"]: #audio_state.audio_events.append(audio_state.AUDIO_EVENT_DISMISS) pass if not ctrl.cfg["use_builtin"]: ctrl.pager.getSyncWindow() ctrl.pager.toggleBoard(False) # Flush the *entire* pipeline. ctrl.stream.pause(True) ctrl.stream.getSamples() ctrl.collector.dropAudio() ctrl.pager.clear() if ctrl.cfg["enable_lock_at_spawn"]: # Give the board 0.5 seconds to disappear before unlocking from # world space. time.sleep(0.5) ctrl.pager.lockWorld(False) else: # Short hold if state == RECORD_STATE: print("PAUSED", file=sys.stderr) state = PAUSE_STATE if not ctrl.cfg["use_builtin"] and not ctrl.cfg["enable_lock_at_spawn"]: ctrl.pager.getSyncWindow() ctrl.pager.lockWorld(True) ctrl.stream.pause(True) if ctrl.cfg["enable_local_beep"]: #audio_state.audio_events.append(audio_state.AUDIO_EVENT_TOGGLE_OFF) pass elif state == PAUSE_STATE: print("RECORDING", file=sys.stderr) state = RECORD_STATE if not ctrl.cfg["use_builtin"]: ctrl.pager.getSyncWindow() ctrl.pager.toggleBoard(True) ctrl.pager.lockWorld(ctrl.cfg["enable_lock_at_spawn"]) ctrl.pager.ellipsis(True) if ctrl.cfg["reset_on_toggle"]: if ctrl.cfg["enable_debug_mode"]: print("Toggle detected, dropping transcript (3)", file=sys.stderr) ctrl.transcript = "" ctrl.preview = "" #audio_state.drop_transcription = True else: if ctrl.cfg["enable_debug_mode"]: print("Toggle detected, committing preview text (3)", file=sys.stderr) #audio_state.text += audio_state.preview_text ctrl.stream.pause(False) ctrl.pager.clear() if ctrl.cfg["enable_local_beep"]: #audio_state.audio_events.append(audio_state.AUDIO_EVENT_TOGGLE_ON) pass def kbInputThread(ctrl: ThreadControl): machine = keybind_event_machine.KeybindEventMachine(ctrl.cfg["keybind"]) last_press_time = 0 # double pressing the keybind double_press_timeout = 0.5 RECORD_STATE = 0 PAUSE_STATE = 1 state = PAUSE_STATE while ctrl.run_app: time.sleep(0.01) cur_press_time = machine.getNextPressTime() if cur_press_time == 0: continue EVENT_SINGLE_PRESS = 0 EVENT_DOUBLE_PRESS = 1 if last_press_time == 0: event = EVENT_SINGLE_PRESS elif cur_press_time - last_press_time < double_press_timeout: event = EVENT_DOUBLE_PRESS else: event = EVENT_SINGLE_PRESS last_press_time = cur_press_time if event == EVENT_DOUBLE_PRESS: print("CLEARING", file=sys.stderr) state = PAUSE_STATE if ctrl.cfg["enable_local_beep"]: #audio_state.audio_events.append(audio_state.AUDIO_EVENT_DISMISS) pass if not ctrl.cfg["use_builtin"]: ctrl.pager.getSyncWindow() ctrl.pager.toggleBoard(False) # Flush the *entire* pipeline. ctrl.stream.pause(True) ctrl.stream.getSamples() ctrl.collector.dropAudio() ctrl.pager.clear() if ctrl.cfg["enable_lock_at_spawn"]: # Give the board 0.5 seconds to disappear before unlocking from # world space. time.sleep(0.5) ctrl.pager.lockWorld(False) continue # Short hold if state == RECORD_STATE: print("PAUSED", file=sys.stderr) state = PAUSE_STATE if not ctrl.cfg["use_builtin"] and not ctrl.cfg["enable_lock_at_spawn"]: ctrl.pager.getSyncWindow() ctrl.pager.lockWorld(True) ctrl.stream.pause(True) if ctrl.cfg["enable_local_beep"]: #audio_state.audio_events.append(audio_state.AUDIO_EVENT_TOGGLE_OFF) pass elif state == PAUSE_STATE: print("RECORDING", file=sys.stderr) state = RECORD_STATE if not ctrl.cfg["use_builtin"]: ctrl.pager.getSyncWindow() ctrl.pager.toggleBoard(True) ctrl.pager.lockWorld(ctrl.cfg["enable_lock_at_spawn"]) ctrl.pager.ellipsis(True) if ctrl.cfg["reset_on_toggle"]: if ctrl.cfg["enable_debug_mode"]: print("Toggle detected, dropping transcript (2)", file=sys.stderr) ctrl.transcript = "" ctrl.preview = "" else: if ctrl.cfg["enable_debug_mode"]: print("Toggle detected, committing preview text (2)", file=sys.stderr) #audio_state.text += audio_state.preview_text ctrl.stream.pause(False) ctrl.pager.clear() if ctrl.cfg["enable_local_beep"]: #audio_state.audio_events.append(audio_state.AUDIO_EVENT_TOGGLE_ON) pass def oscThread(ctrl: ThreadControl): while ctrl.run_app: ctrl.pager.getSyncWindow() ctrl.pager.page(ctrl.preview) time.sleep(0.01) def run(cfg): stream = MicStream(cfg["microphone"]) collector = AudioCollector(stream) #collector = LengthEnforcingAudioCollector(collector, 5.0) #collector = NormalizingAudioCollector(collector) collector = CompressingAudioCollector(collector) whisper = Whisper(collector, cfg) segmenter = AudioSegmenter(min_silence_ms=250) committer = VadCommitter(cfg, collector, whisper, segmenter) pager = OscPager(cfg) ctrl = ThreadControl(cfg) ctrl.stream = stream ctrl.collector = collector ctrl.whisper = whisper ctrl.committer = committer ctrl.pager = pager ctrl.transcript = "" ctrl.preview = "" transcribe_audio_thd = threading.Thread(target=transcriptionThread, args=[ctrl]) transcribe_audio_thd.daemon = True transcribe_audio_thd.start() vr_input_thd = threading.Thread(target=vrInputThread, args=[ctrl]) vr_input_thd.daemon = True vr_input_thd.start() kb_input_thd = threading.Thread(target=kbInputThread, args=[ctrl]) kb_input_thd.daemon = True kb_input_thd.start() osc_thd = threading.Thread(target=oscThread, args=[ctrl]) osc_thd.daemon = True osc_thd.start() for line in sys.stdin: if "exit" in line or "quit" in line: print("Exit requested", file=sys.stderr) break ctrl.run_app = False print("Join transcription thread", file=sys.stderr) transcribe_audio_thd.join() print("Join vr input thread", file=sys.stderr) vr_input_thd.join() print("Join kb input thread", file=sys.stderr) kb_input_thd.join() print("Join osc thread", file=sys.stderr) osc_thd.join() print("Done", file=sys.stderr) if __name__ == "__main__": parser = argparse.ArgumentParser() parser.add_argument("--config", type=str, help="Path to app config YAML file.") args = parser.parse_args() cfg = app_config.getConfig(args.config) experiments = [ ("Evaluate/declaration_short/audio.mp3", "Evaluate/declaration_short/control.txt"), ("Evaluate/moist/audio.mp3", "Evaluate/moist/control.txt"), ("Evaluate/vei/audio.mp3", "Evaluate/vei/control.txt"), ] if False: sum = 0 for audio, control in experiments: print(f"Run experiment {audio} :: {control}", file=sys.stderr) sum += evaluate(cfg, audio, control) print(f"Total score: {sum}", file=sys.stderr) else: #optimize(cfg, experiments) run(cfg)