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# Clair V3.3 Simple Technical Overview
Clair V3.3 is a private-core cognitive AI prototype built around a layered reasoning architecture.
The system is designed to process input, understand task shape, use memory, verify information, reason through answers, use tools when needed, and reflect on results.
The core source code is currently private. This overview describes the system at a high level without exposing implementation details.
---
## 1. System Goal
Clair is designed to be a governed cognitive reasoner.
The goal is not only to produce answers, but to manage the process behind answers:
```text
What is being asked?
What information is available?
What is missing?
Can memory help?
Is a document or source needed?
Does the answer need verification?
Is the response safe and supported?
Should anything be learned from this?
2. High-Level Flow
Clair’s intended processing flow is:
Input
→ Perception
→ Context
→ Memory
→ Retrieval
→ Reasoning
→ Tool Support
→ Verification
→ Calibration
→ Answer Gate
→ Response
→ Reflection
→ Learning
Each layer is meant to handle one kind of cognitive responsibility.
3. Main Layers
Input Layer
The input layer receives raw user input, files, documents, or task packets.
Its job is to:
collect input
normalize text
package information into a system packet
pass the packet forward
It should not perform reasoning or make truth decisions.
Perception Layer
The perception layer identifies the shape of the input.
It helps detect:
whether the input is a question, command, document, memory request, or task
whether the input contains uncertainty
whether the input appears document-scoped
whether information should be treated as temporary context or possible memory
The perception layer prepares structure, but does not decide final truth.
Context Layer
The context layer manages active information for the current task.
Examples:
inline document text
uploaded document text
current conversation context
temporary task-specific facts
source scope
This layer helps Clair avoid confusing temporary context with long-term memory.
Memory Layer
Clair uses multiple memory concepts:
Working Memory
→ short-term active context
Episodic Memory
→ recent experiences and events
Semantic Memory
→ extracted facts, claims, concepts, and summaries
Long-Term Memory
→ durable stored knowledge
The memory system is designed to support correction, reinforcement, contradiction handling, and promotion from temporary memory into durable memory.
Important rule:
Not everything should become long-term memory.
Raw pasted text and inline documents should usually remain temporary unless explicitly saved or promoted.
Retrieval Layer
The retrieval layer selects relevant memories for the current task.
It should prevent unrelated memories from hijacking answers.
A key rule:
Relevance must come before confidence.
A high-confidence memory should not be used if it is unrelated to the question.
Reasoning Layer
The reasoning layer interprets the task and builds a candidate answer.
It may use:
current context
relevant memory
document support
tool results
fallback reasoning
bounded solver modules
The reasoning layer should not blindly answer if support is weak.
Tool Support Layer
The tool layer gives Clair access to external or specialized capabilities.
Examples of tool-supported tasks include:
source lookup
reference lookup
document reading
audio metadata
table or chart extraction
external evidence gathering
The long-term goal is capability-based tool use:
NeedDetector
→ CapabilityPlanner
→ ToolSelector
→ ToolRunner
→ ToolResultInterpreter
This means Clair should choose tools because of what is missing, not because a benchmark phrase matched.
Verification Layer
The verification layer checks whether information is supported.
It helps classify claims as:
supported
contradicted
mixed
insufficient
unknown
Verification is important before trusting factual claims or promoting information into long-term memory.
Calibration Layer
The calibration layer manages confidence and truth-state behavior.
It helps decide whether information should be:
trusted
questioned
corrected
marked provisional
sent for verification
blocked from final answer use
Calibration prevents the system from treating all memories or answers as equally reliable.
Answer Gate
The answer gate decides whether a final response is allowed.
It checks:
support level
confidence
relevance
safety
contradiction
source grounding
If the answer is not supported, Clair should say what is missing instead of guessing.
Response Layer
The response layer formats the final output.
It should communicate:
the answer
uncertainty when needed
source or support status when relevant
refusal or insufficiency when required
The response layer should not create new reasoning by itself.
Reflection Layer
The reflection layer records outcomes and lessons from completed tasks.
It helps Clair learn from:
corrections
failures
successful actions
unsupported answers
routing mistakes
tool failures
Reflection supports gradual improvement.
Learning Loop
Clair’s learning process is intended to work like this:
Experience
→ memory candidate
→ verification/calibration
→ correction or confirmation
→ promotion decision
→ future recall behavior changes
This makes learning governed rather than automatic.
4. Core Loop Design
Clair is built around multiple loops.
Reasoning Loop
Used to understand the task and build a possible answer.
understand → reason → detect weak spots → revise
Verification Loop
Used to check whether the answer is supported.
claim → evidence → support/conflict/insufficient
Memory / Reflection Loop
Used to learn from outcomes.
experience → record → review → update future behavior
Resourcefulness Loop
Used when information is missing.
detect missing need → select capability → use tool/fallback → evaluate result
5. Current Capabilities
Clair V3.3 has demonstrated progress in:
structured input handling
task classification
memory storage and recall
correction-aware memory behavior
answer gating
document/context reasoning
inline document question answering
bounded solver modules
source/reference lookup support
GAIA-style stress testing
reflection and evaluation loops
6. Recent Improvements
Recent work improved several core behaviors.
Memory Relevance Gate
Clair now rejects unrelated memory candidates before confidence scoring.
This prevents unrelated but high-confidence memories from being selected.
Inline Document Reasoning
Clair can detect inline document prompts, extract the document body, identify the question, and answer from the supplied text.
Bare Labeled Document Support
Clair can handle text structured like:
Project:
Known risk:
Required behavior:
Question:
without needing a special wrapper.
Multi-Line Section Selection
Clair can select the correct line from a multi-line labeled section.
Benchmark Reframing
GAIA-style testing is now treated as a stress test, not as Clair’s identity.
7. Current Weak Points
Clair V3.3 is still experimental.
Known weak points include:
tool use needs stronger capability planning
explicit memory persistence needs further verification
memory promotion needs cleanup
memory/document comparison needs stronger support
some solver paths are too benchmark-shaped
some major files are bloat risks
stronger regression testing is needed
8. GAIA-Style Testing
Clair V3.3 was tested against a private GAIA-style 50-task runner.
Latest internal stress-test baseline:
Behavior passed : 50/50
Answer-quality passed : 50/50
Average behavior : 1.00
Average answer score : 1.00
Generic responses : 0
Unrelated memories : 0
This is not a public leaderboard claim.
It is an internal stress-test result used to expose strengths and weaknesses.
The main lesson:
Clair should use GAIA as a stress test, not become a GAIA solver.
9. Current Roadmap
The next development phase is focused on core cognition restoration.
Priority order:
1. Memory truth
2. Context/document reasoning
3. Action from uncertainty
4. Capability-based tool use
5. Verification-aware learning
6. Regression and GAIA retesting
10. Design Direction
Clair V3.3 remains the active proof branch.
Future V4 planning will likely use a cleaner hierarchy with stricter one-job modules, but V3 will continue to be used to prove which cognitive behaviors are real, reusable, and worth migrating.
Design direction:
V3 teaches.
V4 crystallizes.
11. Summary
Clair V3.3 is a private experimental cognitive AI system.
It is designed to:
reason
remember
verify
correct
act
recover
learn
under governance.
The project is still in active development, but it has reached a serious prototype stage with validated stress-test progress and a clear restoration roadmap.