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Context Engineering: Wetin E Mean for MCP Ecosystem

Overview

Context engineering na new idea wey dey come up for AI space. E dey look how we go fit arrange, deliver, and maintain information wey dey happen between clients and AI services. As Model Context Protocol (MCP) ecosystem dey grow, e dey important make we sabi how to manage context well. This module go introduce wetin context engineering mean and how e fit work for MCP.

Wetin You Go Learn

By the time you finish this module, you go fit:

  • Sabi wetin context engineering mean and how e fit work for MCP
  • See the wahala wey dey for context management wey MCP protocol wan solve
  • Learn techniques wey go help model perform better with good context handling
  • Think about how to measure and check how context dey work
  • Use these new ideas to make AI experience better with MCP framework

Wetin Be Context Engineering

Context engineering na new idea wey dey focus on how we go design and manage information flow between users, apps, and AI models. E no be like prompt engineering wey don already get ground; this one still dey grow as people dey try solve the wahala of giving AI models the correct information at the correct time.

As large language models (LLMs) dey improve, e don clear say context dey very important. The quality, relevance, and how we arrange the context wey we give models dey affect wetin dem go produce. Context engineering dey look this matter and wan create better ways to manage context.

"By 2025, the models wey dey go dey very smart. But even the smartest person no go fit do work well if dem no get the context of wetin dem suppose do... 'Context engineering' na the next level of prompt engineering. E dey about how to do am automatically for dynamic system." — Walden Yan, Cognition AI

Context engineering fit include:

  1. Context Selection: To know which information dey important for the task
  2. Context Structuring: To arrange information so model go understand am well
  3. Context Delivery: To make sure the information reach the model at the right time
  4. Context Maintenance: To manage how context dey change over time
  5. Context Evaluation: To measure and improve how context dey work

These things dey very important for MCP ecosystem wey dey provide standard way for apps to give context to LLMs.

The Context Journey Perspective

One way to see context engineering na to follow how information dey waka through MCP system:

graph LR
    A[User Input] --> B[Context Assembly]
    B --> C[Model Processing]
    C --> D[Response Generation]
    D --> E[State Management]
    E -->|Next Interaction| A
    
    style A fill:#A8D5BA,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style B fill:#7FB3D5,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style C fill:#F5CBA7,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style D fill:#C39BD3,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style E fill:#F9E79F,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
Loading

Key Stages for Context Journey:

  1. User Input: Raw information wey user provide (text, images, documents)
  2. Context Assembly: Join user input with system context, conversation history, and other information
  3. Model Processing: AI model go process the context wey dem gather
  4. Response Generation: Model go produce output based on the context
  5. State Management: System go update its state based on the interaction

This journey dey show how context dey change for AI systems and dey raise questions on how to manage information well for each stage.

New Principles for Context Engineering

As context engineering dey grow, some early principles don dey show wey fit help MCP:

Principle 1: Share Context Completely

Make sure say all parts of the system dey share context well, no be to scatter am everywhere. If context dey scattered, decisions wey one part make fit no match wetin another part dey do.

graph TD
    subgraph "Fragmented Context Approach"
    A1[Agent 1] --- C1[Context 1]
    A2[Agent 2] --- C2[Context 2]
    A3[Agent 3] --- C3[Context 3]
    end
    
    subgraph "Unified Context Approach"
    B1[Agent] --- D1[Shared Complete Context]
    end
    
    style A1 fill:#AED6F1,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style A2 fill:#AED6F1,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style A3 fill:#AED6F1,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style B1 fill:#A9DFBF,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style C1 fill:#F5B7B1,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style C2 fill:#F5B7B1,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style C3 fill:#F5B7B1,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style D1 fill:#D7BDE2,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
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For MCP, this mean say make systems dey designed so context go flow well through the pipeline, no be to divide am.

Principle 2: Actions Get Hidden Decisions

Every action wey model take dey carry hidden decisions about how e see the context. If different parts dey act on different contexts, e fit cause wahala.

For MCP:

  • Make complex tasks dey processed one after the other, no be to scatter am
  • Make sure all decision points dey see the same context
  • Design system wey later steps fit see wetin earlier steps don do

Principle 3: Balance Context Depth with Window Limitations

As conversations dey long, context window go full. Context engineering dey try find balance between full context and technical limits.

Some ways wey dem dey try include:

  • Compress context but keep the important information
  • Load context small small based on wetin dey needed
  • Summarize past interactions but keep key points

Context Wahala and MCP Protocol Design

MCP dey aware of the wahala wey dey for context management. To understand these wahala go help us see why MCP dey the way e be:

Wahala 1: Context Window Limitations

Most AI models get fixed context window size, so dem no fit process too much information at once.

MCP Response:

  • Protocol dey support structured, resource-based context wey fit load small small
  • Resources fit dey paginated

Wahala 2: Relevance Determination

To know which information dey important fit hard.

MCP Response:

  • Tools dey to retrieve information dynamically
  • Structured prompts dey help organize context

Wahala 3: Context Persistence

To manage state across interactions dey require careful tracking.

MCP Response:

  • Standardized session management
  • Clear interaction patterns for context evolution

Wahala 4: Multi-Modal Context

Different data types (text, images, structured data) need different handling.

MCP Response:

  • Protocol fit handle different content types
  • Standard way to represent multi-modal information

Wahala 5: Security and Privacy

Context fit get sensitive information wey need protection.

MCP Response:

  • Clear boundary between client and server responsibilities
  • Local processing options to reduce data exposure

To sabi these wahala and how MCP dey handle dem go help us explore better context engineering techniques.

New Context Engineering Approaches

As context engineering dey grow, some new ways don dey show. These na ideas wey people dey try, e never be final solution.

1. Single-Threaded Linear Processing

Instead of multi-agent systems wey dey scatter context, some people dey see say single-threaded processing dey give better results. E dey follow the principle of unified context.

graph TD
    A[Task Start] --> B[Process Step 1]
    B --> C[Process Step 2]
    C --> D[Process Step 3]
    D --> E[Result]
    
    style A fill:#A9CCE3,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style B fill:#A3E4D7,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style C fill:#F9E79F,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style D fill:#F5CBA7,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style E fill:#D2B4DE,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
Loading

Even though e fit look slow, e dey give better and more consistent results because each step dey build on wetin don happen before.

2. Context Chunking and Prioritization

To break big context into small pieces and focus on the important ones.

# Conceptual Example: Context Chunking and Prioritization
def process_with_chunked_context(documents, query):
    # 1. Break documents into smaller chunks
    chunks = chunk_documents(documents)
    
    # 2. Calculate relevance scores for each chunk
    scored_chunks = [(chunk, calculate_relevance(chunk, query)) for chunk in chunks]
    
    # 3. Sort chunks by relevance score
    sorted_chunks = sorted(scored_chunks, key=lambda x: x[1], reverse=True)
    
    # 4. Use the most relevant chunks as context
    context = create_context_from_chunks([chunk for chunk, score in sorted_chunks[:5]])
    
    # 5. Process with the prioritized context
    return generate_response(context, query)

This idea dey help manage context window limits while still using big knowledge bases.

3. Progressive Context Loading

To load context small small as e dey needed.

sequenceDiagram
    participant User
    participant App
    participant MCP Server
    participant AI Model

    User->>App: Ask Question
    App->>MCP Server: Initial Request
    MCP Server->>AI Model: Minimal Context
    AI Model->>MCP Server: Initial Response
    
    alt Needs More Context
        MCP Server->>MCP Server: Identify Missing Context
        MCP Server->>MCP Server: Load Additional Context
        MCP Server->>AI Model: Enhanced Context
        AI Model->>MCP Server: Final Response
    end
    
    MCP Server->>App: Response
    App->>User: Answer
Loading

This method dey start with small context and go add more only when e dey necessary. E dey save tokens for simple queries.

4. Context Compression and Summarization

To reduce context size but keep the important information.

graph TD
    A[Full Context] --> B[Compression Model]
    B --> C[Compressed Context]
    C --> D[Main Processing Model]
    D --> E[Response]
    
    style A fill:#A9CCE3,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style B fill:#A3E4D7,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style C fill:#F5CBA7,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style D fill:#D2B4DE,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style E fill:#F9E79F,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
Loading

This method dey focus on:

  • Removing things wey no dey important
  • Summarizing long content
  • Keeping key facts
  • Reducing token usage

E dey useful for long conversations or big documents.

Things to Think About for Context Engineering

As we dey explore context engineering, some things dey important to think about for MCP:

Know Your Context Goals

Before you start, ask yourself:

  • Wetin the model need to work well?
  • Which information dey important and which one no too matter?
  • Wetin be your performance limits (speed, token size, cost)?

Try Layered Context

Some people dey arrange context in layers:

  • Core Layer: Important information wey model always need
  • Situational Layer: Context for the current interaction
  • Supporting Layer: Extra information wey fit help
  • Fallback Layer: Information wey go only show when needed

Check Retrieval Strategies

How you dey find information fit affect your context:

  • Semantic search for relevant information
  • Keyword search for specific details
  • Hybrid methods wey join different ways
  • Metadata filtering to narrow down information

Work on Context Coherence

How you arrange your context fit affect how model go understand am:

  • Group related information together
  • Use consistent format
  • Arrange things logically or by time
  • Avoid conflicting information

Think About Multi-Agent Wahala

Multi-agent systems fit scatter context:

  • Fragmented context fit cause inconsistent decisions
  • Parallel processing fit bring conflicts
  • Communication between agents fit slow things down
  • Managing state go hard

Sometimes, single-agent systems with good context management dey work better.

Develop Ways to Measure

To improve context engineering, you need to measure:

  • Test different context structures
  • Check token usage and response time
  • Look at user satisfaction and task success
  • Study why context strategies fail

These ideas dey help us explore context engineering better.

How to Measure Context Effectiveness

Context engineering still dey grow, but people don dey think of ways to measure am. No standard way dey yet, but these metrics fit help:

Possible Metrics

1. Input Efficiency

  • Context-to-Response Ratio: How much context you need for the response?
  • Token Utilization: How many context tokens dey affect the response?
  • Context Reduction: How well you fit compress information?

2. Performance

  • Latency Impact: How context management dey affect response time?
  • Token Economy: Are we using tokens well?
  • Retrieval Precision: How relevant the information be?
  • Resource Use: How much resources e dey take?

3. Quality

  • Response Relevance: How well the response fit the query?
  • Factual Accuracy: E dey improve correctness?
  • Consistency: Responses dey consistent?
  • Hallucination Rate: E dey reduce model hallucinations?

4. User Experience

  • Follow-up Rate: How often users dey ask for clarification?
  • Task Completion: Users dey achieve their goals?
  • Satisfaction: How users dey rate the experience?

How to Measure

  1. Baseline Comparisons: Start with simple context before trying advanced methods
  2. Incremental Changes: Change one thing at a time
  3. User Feedback: Combine numbers with user opinions
  4. Failure Analysis: Study why context fail
  5. Multi-Dimensional Check: Balance efficiency, quality, and user experience

This way of measuring go help us understand context engineering better.

Final Thoughts

Context engineering na new area wey fit help MCP work better. If we manage information well, we fit make AI more efficient, accurate, and useful.

The ideas wey dey here na early thoughts, no be final solution. As AI dey improve, context engineering go grow. For now, make we dey experiment and measure well.

Wetin Fit Happen for Future

Context engineering still dey start, but some things fit happen:

  • E fit improve model performance, efficiency, and user experience
  • Single-threaded systems with good context fit work better than multi-agent systems
  • Models for context compression fit become normal
  • The problem of context size and token limits go bring new ideas
  • As models dey improve, multi-agent collaboration fit work better
  • MCP fit grow to standardize context management patterns
graph TD
    A[Early Explorations] -->|Experimentation| B[Emerging Patterns]
    B -->|Validation| C[Established Practices]
    C -->|Application| D[New Challenges]
    D -->|Innovation| A
    
    style A fill:#AED6F1,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style B fill:#A9DFBF,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style C fill:#F4D03F,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
    style D fill:#F5B7B1,stroke:#000000,stroke-width:2px,color:#000000,font-weight:bold
Loading

Resources

Official MCP Resources

Context Engineering Articles

Related Research

Additional Resources

Wetin dey next


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