Which of the following best describes a self-improving agent in AI?
Think about what makes an agent improve itself without external help.
Self-improving agents can autonomously adjust their own code or parameters to enhance their performance, unlike fixed or manually updated agents.
You want to build a self-improving agent that learns from its past decisions and adapts its strategy. Which model architecture is most suitable?
Consider models that learn from interaction and improve policies over time.
Reinforcement learning models with policy gradients allow agents to learn from feedback and improve their decision-making policies, which is essential for self-improvement.
Which metric is most appropriate to measure the improvement of a self-improving agent over multiple training episodes?
Think about a metric that reflects how well the agent performs its task over time.
Average cumulative reward per episode directly measures how well the agent is performing and improving in its environment over time.
An agent using reinforcement learning is stuck with poor performance and does not improve despite training. What is the most likely cause?
Consider why the agent might not try new actions to find better solutions.
If the exploration rate is too low, the agent mostly exploits known actions and fails to discover better strategies, causing it to get stuck in a local optimum.
Consider this Python code simulating a simple self-improving agent that updates its parameter to maximize reward. What is the output after running it?
class SelfImprovingAgent: def __init__(self): self.param = 0 def reward(self): return -(self.param - 5) ** 2 + 10 def improve(self): best_param = self.param best_reward = self.reward() for delta in [-1, 1]: candidate = self.param + delta candidate_reward = -(candidate - 5) ** 2 + 10 if candidate_reward > best_reward: best_param = candidate best_reward = candidate_reward self.param = best_param agent = SelfImprovingAgent() for _ in range(3): agent.improve() print(agent.param)
Trace the parameter updates step by step to see where it converges after 3 improvements.
The agent starts at param=0 (reward=-15). Each improve step moves to the neighbor with higher reward: 0→1 (-6 > -15), 1→2 (1 > -6), 2→3 (6 > 1). After 3 steps, param=3.
