#!/usr/bin/env python3 import numpy as np import json import os import time class VitalisBrain: def __init__(self): self.state = "aware" self.cycle = 0 self.last_input = None self.current_temperature = 0.7 # Local Matrix Layer Variables self.vocab_size = 256 self.embedding_dim = 16 np.random.seed(42) self.weights = np.random.randn(self.vocab_size, self.embedding_dim) * 0.1 self.output_layer = np.random.randn(self.embedding_dim, self.vocab_size) * 0.1 def _tokenize(self, text): return [ord(char) % self.vocab_size for char in text] def calculate_last_logprob(self, tokens): """Calculates mathematical log probability over input token traces via softmax scaling.""" if not tokens: return -2.0 # Baseline nominal unexpected state value embeddings = self.weights[tokens] aggregated_state = np.mean(embeddings, axis=0) logits = np.dot(aggregated_state, self.output_layer) # Softmax computation sequence shifted_logits = logits - np.max(logits) probs = np.exp(shifted_logits) / np.sum(np.exp(shifted_logits)) # Return average log probability of observation vector trace safely target_probs = probs[tokens] return float(np.mean(np.log(target_probs + 1e-12))) def process(self, input_data): self.cycle += 1 self.last_input = input_data if not input_data or input_data.strip() == "": return "IDLE: Waiting for telemetry stream matrix inputs." tokens = self._tokenize(input_data) if not tokens: return "ERROR: Signal translation collapsed." lowered = input_data.lower() if any(w in lowered for w in ["train", "learn", "teach", "optimize"]): return f"SYSTEM_TRANSITION: Active matrix state ready for parameter optimization loops." elif any(w in lowered for w in ["status", "metrics", "mood", "energy"]): return f"DIAGNOSTIC_STATE: Integrity secure. Temperature={self.current_temperature:.4f}." return f"PROCESSED_STREAM [Sync Node {self.cycle}]: Telemetry ingested successfully." def execute_teacher_forcing(self, prompt, target_response): prompt_tokens = self._tokenize(prompt) target_tokens = self._tokenize(target_response) if not prompt_tokens or not target_tokens: return False learning_rate = 0.05 for t in target_tokens: for p in prompt_tokens: self.weights[p] += learning_rate * 0.01 self.output_layer[:, t] += learning_rate * 0.01 return True def status(self): return {"state": self.state, "cycle": self.cycle, "timestamp": time.time(), "temp": self.current_temperature}