Ascent AI Agent Monitoring
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The guide will enable monitoring, analyzing, and optimizing the performance, cost, security, and quality of your AI-driven applications. Unlike traditional observability, which focuses on infrastructure and application performance, AI observability with Ascent extends to:
Model Performance – Tracking inference latency, response times, and failure rates.
Full Workflow Tracing – Understanding how data flows through AI pipelines using distributed tracing.
Cost & Resource Efficiency – Optimizing GPU/CPU usage, API call expenses, and token consumption.
Security & Compliance – Detecting data leakage, unauthorized access, and enforcing privacy policies.
Response Quality – Evaluating model accuracy, bias, hallucinations, and user engagement.
With AI models becoming core to modern applications, observability ensures reliability, efficiency, and trust in AI-driven decision-making.
The primary Ascent use cases for AI and LLM observability include the following:
1. Service Health & Performance Monitoring – Similar to traditional APM solutions but tailored for AI workloads, ensuring model inference times and API performance are stable.
2. Full Application Workflow Tracing – Distributed tracing helps identify bottlenecks across AI pipelines, which is crucial for debugging complex LLM applications.
3. LLM Stack Cost Analysis – A key differentiator, focusing on managing compute, API, and infrastructure costs related to AI workloads.
4. Safeguarding LLM and User Data – Likely involves monitoring data leakage, security policies, and compliance.
5. AI Response Quality – A major area of concern in AI observability, ensuring that model responses are accurate, relevant, and unbiased.
Metrics for each of Apica Ascent’s AI & LLM Observability use cases are as follows:
1. Service Health & Performance Monitoring - Ensuring AI services are running efficiently and reliably. Key Metrics:
Latency (P50, P90, P99 response times)
Throughput (Requests per second)
Error Rates (HTTP 4xx/5xx, model failures)
Infrastructure Utilization (CPU, GPU, memory usage)
Model Load & Inference Time
2. Full Application Workflow Tracing (via Distributed Tracing) - Tracing LLM interactions across different system components. Key Metrics:
Trace Duration (End-to-end execution time)
Span Latencies (Delays in different parts of the pipeline)
Dependency Health (Performance of databases, APIs, vector stores)
Failure Points (Where requests drop in the workflow)
Token Flow Analysis (How tokens are processed across requests)
3. LLM Stack Cost Analysis - Optimizing costs for model inference and resource consumption. Key Metrics:
Compute Costs (GPU/CPU usage per request)
API Call Costs (Cost per token for third-party LLMs)
Memory Utilization Efficiency
Cost Per Query (Total cost per processed request)
Idle vs. Active Compute Utilization
4. Safeguarding LLM and User Data - Ensuring compliance, security, and privacy. Key Metrics:
Personally Identifiable Information (PII) Detection Rate
Unauthorized Access Attempts
Data Leakage Incidents
Compliance Adherence (SOC2, GDPR, HIPAA)
Input/Output Sanitization Effectiveness
5. AI Response Quality - Evaluating the accuracy, relevance, and fairness of AI-generated responses. Key Metrics:
Response Accuracy (Ground Truth Comparison)
Toxicity Score (Bias/Fairness Evaluation)
Response Consistency (Same input = Same output?)
Hallucination Rate (Fact-checking %)
User Engagement & Satisfaction Scores
Each of these aligns well with AI and LLM observability trends.