Connect

Runtime Configuration (Step 0 — before any processing)

Read these files to configure domain-specific behavior:

1. arscontexta/ops/derivation-manifest.md — vocabulary mapping, platform hints

   • Use vocabulary.notes for the notes folder name
   • Use vocabulary.note / vocabulary.note_plural for note type references
   • Use vocabulary.reflect for the process verb in output
   • Use vocabulary.topic_map / vocabulary.topic_map_plural for MOC references
   • Use vocabulary.cmd_reweave for the next-phase suggestion
   • Use vocabulary.inbox for the inbox folder name

2. arscontexta/ops/config.yaml — processing depth, pipeline chaining

   • processing.depth: deep | standard | quick
   • processing.chaining: manual | suggested | automatic

If these files don't exist, use universal defaults.

Link Format

All links between notes use standard markdown links, not wiki-links. This ensures links render correctly on GitHub and other markdown viewers.

Same-directory links:

[note-title](./note-title.md)

Cross-directory links (use relative paths from the source file's directory):

[note-title](./research/note-title.md)       # linking into a subdirectory
[note-title](../note-title.md)                # linking up from a subdirectory

Links with display text:

[display text](./note-title.md)

Path resolution rules:

• Always use relative paths from the source file's directory
• When linking to a file in a subdirectory, verify the path with ls before creating the link
• Filenames use hyphens, not spaces (e.g., my-note-title.md)

Processing depth adaptation:

EXECUTE NOW

Target: $ARGUMENTS

Parse immediately:

• If target contains a note name or path: find connections for that note
• If target contains --handoff: output RALPH HANDOFF block at end
• If target is empty: check for recently created notes or ask which note
• If target is "recent" or "new": find connections for all notes created today

Execute these steps:

1. Read the target note fully — understand its claim and context
2. Throughout discovery: Capture which indexes you read, which queries you ran (with scores), which candidates you evaluated. This becomes the Discovery Trace — proving methodology was followed, not reconstructed.
3. Run Phase 0 (index freshness check)
4. Use dual discovery in parallel:
   • Browse relevant index(s) for related notes
   • Run semantic search for conceptually related notes
5. Evaluate each candidate: does a genuine connection exist? Can you articulate WHY?
6. Add inline markdown links where connections pass the articulation test
7. Update relevant index(s) with this note
8. If task file in context: update the connect section
9. Report what was connected and why
10. If --handoff in target: output RALPH HANDOFF block

START NOW. Reference below explains methodology — use to guide, not as output.

Reflect

Find connections, weave the knowledge graph, update indexes. This is the forward-connection phase of the processing pipeline.

Philosophy

The network IS the knowledge.

Individual notes are less valuable than their relationships. A note with fifteen incoming links is an intersection of fifteen lines of thought. Connections create compound value as the vault grows.

This is not keyword matching. This is semantic judgment — understanding what notes MEAN to determine how they relate. A note about "friction in systems" might deeply connect to "verification approaches" even though they share no words. You are building a traversable knowledge graph, not tagging documents.

Quality over speed. Explicit over vague.

Every connection must pass the articulation test: can you say WHY these notes connect? "Related" is not a relationship. "Extends X by adding Y" or "contradicts X because Z" is a relationship.

Bad connections pollute the graph. They create noise that makes real connections harder to find. When uncertain, do not connect.

Invocation Patterns

/connect (no argument)

Check for recent additions:

1. Look for notes modified in the last session
2. If none obvious, ask user what notes to connect

/connect [note]

Focus on connecting a specific note:

1. Read the target note
2. Discover related content
3. Add connections and update indexes

/connect [topic area]

Synthesize an area:

1. Read the relevant index
2. Identify notes that should connect
3. Weave connections, update synthesis

/connect --handoff [note]

External loop mode for /ralph:

• Execute full workflow as normal
• At the end, output structured RALPH HANDOFF block
• Used when running isolated phases with fresh context per task

Workflow

Phase 0: Verify Index Freshness

Before using semantic search, verify the index is current. This is self-healing: if notes were created outside the pipeline (manual edits, other skills), reflect catches the drift before searching.

1. Try mcp__qmd__status to get the indexed document count for the target collection
2. If MCP unavailable (tool fails or returns error): fall back to bash:

   LOCKDIR="arscontexta/ops/queue/.locks/qmd.lock"
   while ! mkdir "$LOCKDIR" 2>/dev/null; do sleep 2; done
   qmd_count=$(qmd status 2>/dev/null | grep -A2 'thinking' | grep 'documents' | grep -oE '[0-9]+' | head -1)
   rm -rf "$LOCKDIR"
   

3. Count actual files:

   file_count=$(ls -1 docs/notes/*.md 2>/dev/null | wc -l | tr -d ' ')
   

4. If the counts differ, sync the index:

   qmd update && qmd embed
   

Run this check before proceeding. If stale, sync and continue. If current, proceed immediately.

Phase 1: Understand What You Are Connecting

Before searching for connections, deeply understand the source material.

For each note you are connecting:

1. Read the full note, not just title and description
2. Identify the core claim and supporting reasoning
3. Note key concepts, mechanisms, implications
4. Ask: what questions does this answer? What questions does it raise?

What you are looking for:

• The central argument (what is being claimed?)
• The mechanism (why/how does this work?)
• The implications (what follows from this?)
• The scope (when does this apply? When not?)
• The tensions (what might contradict this?)

If a task file exists (pipeline execution): read the task file to see what the extraction phase discovered. The reduce notes, semantic neighbor field, and classification provide critical context about why this note was extracted and what it relates to.

Phase 2: Discovery (Find Candidates)

Use dual discovery: index exploration AND semantic search in parallel. These are complementary, not sequential.

Capture discovery trace as you go. Note which indexes you read, which queries you ran (with scores), which searches you tried. This becomes the Discovery Trace section in output — proving methodology was followed, not reconstructed after the fact.

Primary discovery (run in parallel):

Path 1: index Exploration — curated navigation

If you know the topic (check the note's Topics footer), start with the index:

• Read the relevant index(s)
• Follow curated links in Core Ideas — these are human/agent-curated connections
• Note what is already connected to similar concepts
• Check Tensions and Gaps for context
• What do agent notes reveal about navigation?

indexes tell you what thinking exists and how it is organized. Someone already decided what matters for this topic.

Path 2: Semantic Search — find what indexes might miss

Three-tier fallback for semantic search:

Tier 1 — MCP tools (preferred): Use mcp__qmd__query (hybrid search with expansion + reranking):

• query: "[note's core concepts and mechanisms]"
• limit: 15

Tier 2 — bash qmd with lock serialization: If MCP tools fail or are unavailable:

LOCKDIR="arscontexta/ops/queue/.locks/qmd.lock"
while ! mkdir "$LOCKDIR" 2>/dev/null; do sleep 2; done
qmd query "[note's core concepts]" --collection thinking --limit 15 2>/dev/null
rm -rf "$LOCKDIR"

The lock prevents multiple parallel workers from loading large models simultaneously.

Tier 3 — grep only: If both MCP and bash fail, log "qmd unavailable, grep-only discovery" and rely on index + keyword search only. This degrades quality but does not block work.

Evaluate results by relevance — read any result where title or snippet suggests genuine connection. Semantic search finds notes that share MEANING even when vocabulary differs. A note about "iteration cycles" might connect to "learning from friction" despite sharing no words.

Why both paths:

index = what is already curated as relevant semantic search = neighbors that have not been curated yet

Using only search misses curated structure. Using only index misses semantic neighbors outside the topic. Both together catch what either alone would miss.

Secondary discovery (after primary):

Step 3: Keyword Search

For specific terms and exact matches:

grep -r "term" docs/notes/ --include="*.md"

Use grep when:

• You know the exact words that should appear
• Searching for specific terminology or phrases
• Finding all uses of a named concept
• The vocabulary is stable and predictable

Choosing between semantic and keyword:

Step 4: Description Scan

Use ripgrep to scan note descriptions for edge cases:

• Does this extend the source note?
• Does this contradict or create tension?
• Does this provide evidence or examples?

Flag candidates with a reason (not just "related").

Step 5: Link Following

From promising candidates, follow their existing links:

• What do THEY connect to?
• Are there clusters of related notes?
• Do chains emerge that your source note should join?

This is graph traversal. You are exploring the neighborhood.

Phase 3: Evaluate Connections

For each candidate connection, apply the articulation test.

The Articulation Test:

Complete this sentence:

note A connects to note B because [specific reason]

If you cannot fill in [specific reason] with something substantive, the connection fails.

Valid Relationship Types:

Reject if:

• The connection is "related" without specifics
• You found it through keyword matching alone with no semantic depth
• Linking would confuse more than clarify
• The relationship is too obvious to be useful

Agent Traversal Check:

Ask: "If an agent follows this link, what do they gain?"

The vault is built for agent traversal. Every connection should help an agent DECIDE or UNDERSTAND something. Connections that exist only because they feel "interesting" without operational value are noise.

Synthesis Opportunity Detection:

While evaluating connections, watch for synthesis opportunities — two or more notes that together imply a higher-order claim not yet captured.

Signs of a synthesis opportunity:

• Two notes make complementary arguments that combine into something neither says alone
• A pattern appears across three or more notes that has not been named
• A tension between two notes suggests a resolution claim

When you detect a synthesis opportunity:

1. Note it in the output report
2. Do NOT create the synthesis note during reflect — flag it for future work
3. Describe what the synthesis would argue and which notes contribute

Phase 4: Add Inline Connections

Connections live in the prose, not just footers.

Inline Links as Prose:

The markdown link IS the argument. The title works as prose when linked.

Good patterns:

Since [other note](./other-note.md), the question becomes how to structure that memory for retrieval.

The insight that [throughput matters more than accumulation](./throughput-matters-more-than-accumulation.md) suggests curation, not creation, is the real work.

This works because [good systems learn from friction](./good-systems-learn-from-friction.md) — each iteration improves the next.

Bad patterns:

This relates to [other note](./other-note.md).

See also [throughput matters more than accumulation](./throughput-matters-more-than-accumulation.md).

As discussed in [good systems learn from friction](./good-systems-learn-from-friction.md), systems improve.

If you catch yourself writing "this relates to" or "see also", STOP. Restructure so the claim does the work.

Where to add links:

1. Inline in the body where the connection naturally fits the argument
2. In the Relevant Notes footer section with context phrase
3. BOTH when the connection is strong enough

Relevant Notes Format:

Relevant Notes:
- [note title](./note-title.md) — extends this by adding the temporal dimension
- [another note](./another-note.md) — provides the mechanism this claim depends on

Context phrases use standard relationship vocabulary: extends, grounds, contradicts, exemplifies, synthesizes, enables.

Bidirectional Consideration:

When adding a link from A to B, ask: should B also link to A?

Not always. Relationships are not always symmetric:

• "extends" often is not bidirectional
• "exemplifies" usually goes one direction
• "contradicts" is often bidirectional
• "synthesizes" might reference both sources

Add the reverse link only if following that path would be useful for agent traversal.

Reweave Task Filtering (when adding bidirectional links):

When you edit an older note to add a reverse link, you MAY flag it for full reconsideration via reweave. But SKIP reweave flagging if ANY of these apply:

Check incoming links:

grep -r '\[.*\](.*note-name\.md)' docs/notes/ --include="*.md" | wc -l

If >= 5, skip reweave flagging.

Phase 5: Update indexes

indexes are synthesis hubs, not just indexes.

When to update a index:

• New note belongs in Core Ideas
• New tension discovered
• Gap has been filled
• Synthesis insight emerged
• Navigation path worth documenting

index Size Check:

After updating Core Ideas, count the links:

grep -c '^\- \[' "docs/notes/[moc-name].md"

If approaching the split threshold (configurable, default ~40): note in output "index approaching split threshold (N links)" If exceeding: warn "index exceeds recommended size — consider splitting"

Splitting is a human decision (architectural judgment required), but /connect should surface the signal.

index Structure:

# [Topic Name]

[Opening synthesis: Claims about the topic. Not "this index collects notes" but "the core insight is Y because Z." This IS thinking, not meta-description.]

## Core Ideas

- [claim note](./claim-note.md) — what it contributes to understanding
- [another claim](./another-claim.md) — how it fits or challenges existing ideas

## Tensions

- [claim A](./claim-a.md) and [claim B](./claim-b.md) conflict because... [genuine unresolved tension]

## Gaps

- nothing about X aspect yet
- need concrete examples of Y
- missing: comparison with Z approach

---

Agent Notes:
- YYYY-MM-DD: [what was explored]. [the insight or dead end].

Updating Core Ideas:

Add new notes with context phrase explaining contribution:

- [new note](./new-note.md) — extends the quality argument by showing how friction teaches you what to check

Order matters. Place notes where they fit the logical flow, not alphabetically.

Updating Tensions:

If the new note creates or resolves tension:

## Tensions

- [composability](./composability.md) demands small notes, but [context limits](./context-limits.md) means traversal has overhead. [new note](./new-note.md) suggests the tradeoff depends on expected traversal depth.

Document genuine conflicts. Tensions are valuable, not bugs.

Updating Gaps:

Remove gaps that are now filled. Add new gaps discovered during reflection.

Phase 6: Add Agent Notes

Agent notes are breadcrumbs for future navigation.

Add agent notes when:

• Non-obvious navigation path discovered
• Dead end worth documenting
• Productive note combination found
• Insight about topic cluster emerged

Format:

Agent Notes:
- YYYY-MM-DD: [what was explored]. [the insight or finding].

Good agent notes:

- 2026-02-15: tried connecting via "learning" — too generic. better path: friction -> verification -> quality. the mechanism chain is tighter.
- 2026-02-15: [claim A](./claim-a.md) and [claim B](./claim-b.md) form a tight pair. A sets the standard, B teaches the method.

Bad agent notes:

- 2026-02-15: read the index and added some links.
- 2026-02-15: connected [note A](./note-a.md) to [note B](./note-b.md).

The test: would this help a future agent navigate more effectively?

Quality Gates

Gate 1: Articulation Test

For every connection added, can you complete:

A connects to B because [specific reason]

If any connection fails this test, remove it.

Gate 2: Prose Test

For every inline link, read the sentence aloud. Does it flow naturally? Would you say this to a friend explaining the idea?

Bad: "this is related to note" Good: "since note, the implication is..."

Gate 3: Bidirectional Check

For every A -> B link, explicitly decide: should B -> A exist? Document your reasoning if the relationship is asymmetric.

Gate 4: index Coherence

After updating a index, read the opening synthesis. Does it still hold? Do new notes extend or challenge it?

If the synthesis is now wrong or incomplete, update it.

Gate 5: Link Verification

Verify every markdown link target exists. Never create links to non-existent files.

# Check that a link target exists
ls docs/notes/"target-name.md" 2>/dev/null

Gate 6: Areas-Topics Consistency

Run the sync script on notes you've modified to ensure Topics: footer matches areas: frontmatter:

python3 scripts/sync_topic_links.py docs/notes/target-note.md

This is deterministic — areas: is the single source of truth. The script generates/replaces the Topics: footer section. Notes with no areas: field get no Topics section. Accepts files or directories.

Handling Edge Cases

No Connections Found

Sometimes a note genuinely does not connect yet. That is fine.

1. Ensure it is linked to at least one index via Topics footer
2. Note in index Gaps that this area needs development
3. Do not force connections that are not there

Too Many Connections (Split Detection)

If a note connects to 5+ notes across different domains, it might be too broad.

Split detection criteria:

1. Domain spread: Connections span 3+ distinct indexes/topic areas
2. Multiple claims: The note makes more than one assertion that could stand alone
3. Linking drag: You would want to link to part of the note but not all of it

How to evaluate:

Ask: "If I link to this note from context X, does irrelevant content Y come along?"

If yes, the note bundles multiple ideas that should be separate.

Split detection output:

### Split Candidate: [broad note](./broad-note.md)

**Indicators:**
- Connects to 7 notes across 3 domains
- Makes distinct claims about: (1) capture workflows, (2) synthesis patterns, (3) tool selection
- Linking from [note A](./note-a.md) would drag in unrelated content about tool selection

**Proposed split:**
- [capture workflows matter less than synthesis](./capture-workflows-matter-less-than-synthesis.md) — the first claim
- [tool selection follows from workflow needs](./tool-selection-follows-from-workflow-needs.md) — the third claim
- Keep original note focused on synthesis patterns

**Action:** Flag for human decision, do not auto-split

When NOT to split:

• note is genuinely about one thing that touches many areas
• Connections are all variations of the same relationship
• Splitting would create notes too thin to stand alone

Conflicting Notes

When new content contradicts existing notes:

1. Document the tension in both notes
2. Add to index Tensions section
3. Do not auto-resolve — flag for judgment

Orphan Discovery

If you find notes with no connections:

1. Flag them in your output
2. Attempt to connect them
3. If genuinely orphaned, note in relevant index Gaps

Output Format

After reflecting, report:

## Reflection Complete

### Discovery Trace

**Why this matters:** Shows methodology was followed. Blind delegation hides whether dual discovery happened. Trace enables verification.

**index exploration:**
- Read [moc-name](./moc-name.md) — found candidates: [note A](./note-a.md), [note B](./note-b.md), [note C](./note-c.md)
- Followed link from [note A](./note-a.md) to [note D](./note-d.md)

**Semantic search:** (via MCP | bash fallback | grep-only)
- query "[core concept from note]" — top hits:
  - [note E](./note-e.md) (0.74) — evaluated: strong match, mechanism overlap
  - [note F](./note-f.md) (0.61) — evaluated: weak, only surface vocabulary
  - [note G](./note-g.md) (0.58) — evaluated: skip, different domain

**Keyword search:**
- grep "specific term" — found [note H](./note-h.md) (already in index candidates)

### Connections Added

**[source note](./source-note.md)**
- -> [target](./target.md) — [relationship type]: [why]
- <- [incoming](./incoming.md) — [relationship type]: [why]
- inline: added link to [note](./note.md) in paragraph about X

### index Updates

**[moc-name](./moc-name.md)**
- Added [note](./note.md) to Core Ideas — [contribution]
- Updated Tensions: [A](./a.md) vs [B](./b.md) now includes [C](./c.md)
- Removed from Gaps: [what was filled]
- Agent note: [what was learned]

### Synthesis Opportunities

[notes that could be combined into higher-order insights, with proposed claim]

### Flagged for Attention

- [orphan note](./orphan-note.md) — could not find connections
- [broad note](./broad-note.md) — might benefit from splitting
- Tension between [X](./x.md) and [Y](./y.md) needs resolution

What Success Looks Like

Successful reflection:

• Every connection passes the articulation test
• Inline links read as natural prose
• indexes gain synthesis, not just entries
• Agent notes reveal non-obvious paths
• The knowledge graph becomes more traversable
• Future agents will navigate more effectively

The test: if someone follows the links you added, do they find genuinely useful context? Does the path illuminate understanding?

Critical Constraints

Never:

• Create links to non-existent files
• Add "related" connections without specific reasoning
• Force connections that are not there
• Auto-generate without semantic judgment
• Skip the articulation test

Always:

• Verify link targets exist
• Explain WHY connections exist
• Consider bidirectionality
• Update relevant indexes
• Add agent notes when navigation insights emerge
• Capture discovery trace as you work

The Network Grows Through Judgment

This skill is about building a knowledge graph that compounds in value. Every connection you add is a traversal path that future thinking can follow. Every connection you do not add keeps the graph clean.

Quality beats quantity. One genuine connection is worth more than ten vague ones.

The graph is not just storage. It is an external thinking structure. Build it with care.

Handoff Mode (--handoff flag)

When invoked with --handoff, output this structured format at the END of the session. This enables external loops (/ralph) to parse results and update the task queue.

Detection: Check if $ARGUMENTS contains --handoff. If yes, append this block after completing normal workflow.

Handoff format:

=== RALPH HANDOFF: connect ===
Target: [note name](./note-name.md)

Work Done:
- Discovery: index [moc-name](./moc-name.md), query "[query]" (MCP|bash|grep-only), grep "[term]"
- Connections added: N (articulation test: PASS)
- index updates: [moc-name](./moc-name.md) Core Ideas section
- Synthesis opportunities: [count or NONE]

Files Modified:
- docs/notes/[note name].md (inline links added)
- docs/notes/[moc-name].md (Core Ideas updated)
- [task file path] (connect section)

Learnings:
- [Friction]: [description] | NONE
- [Surprise]: [description] | NONE
- [Methodology]: [description] | NONE
- [Process gap]: [description] | NONE

Queue Updates:
- Advance phase: connect -> revisit
- Reweave candidates (if any pass filter): [note](./note.md) | NONE (filtered: hub/tension/recent)
=== END HANDOFF ===

Task File Update (when invoked via ralph loop)

When running in handoff mode via /ralph, the prompt includes the task file path. After completing the workflow, update the ## connect section of that task file with:

• Connections added and why
• index updates made
• Articulation test results
• Discovery trace summary

Critical: The handoff block is OUTPUT, not a replacement for the workflow. Do the full reflect workflow first, update task file, then format results as handoff.

Queue Update (interactive execution)

When running interactively (NOT via /ralph), YOU must advance the phase in the queue. /ralph handles this automatically, but interactive sessions do not.

After completing the workflow, advance the phase:

# get timestamp
TIMESTAMP=$(date -u +"%Y-%m-%dT%H:%M:%SZ")

# advance phase (current_phase -> next, append to completed_phases)
jq '(.tasks[] | select(.id=="TASK_ID")).current_phase = "revisit" |
    (.tasks[] | select(.id=="TASK_ID")).completed_phases += ["connect"]' \
    arscontexta/ops/queue/queue.json > tmp.json && mv tmp.json arscontexta/ops/queue/queue.json

The handoff block's "Queue Updates" section is not just output — it is your own todo list when running interactively.

Pipeline Chaining

After connection finding completes, output the next step based on arscontexta/ops/config.yaml pipeline.chaining mode:

• manual: Output "Next: /revisit [note]" — user decides when to proceed
• suggested: Output next step AND advance task queue entry to current_phase: "revisit"
• automatic: Queue entry advanced and backward pass proceeds immediately

The chaining output uses domain-native command names from the derivation manifest.