| name | simplification-cascades |
| description | Find one insight that eliminates multiple components - "if this is true, we don't need X, Y, or Z". Use when implementing the same concept multiple ways, accumulating special cases, or complexity is spiraling. Gremlinized to use memory architecture and nexus-graph for pattern unification. |
| tier | e |
| morpheme | e |
| dewey_id | e.3.1.5 |
| dependencies | gremlin-brain-v2, nexus-graph-visualizer |
Simplification Cascades
Overview
Sometimes one insight eliminates 10 things. Look for the unifying principle that makes multiple components unnecessary.
Core principle: "Everything is a special case of..." collapses complexity dramatically.
Gremlin Enhancement: Nexus-graph reveals unifying patterns across Dewey IDs - use the memory structure to find simplification cascades automatically.
Quick Reference
| Symptom | Likely Cascade |
|---|---|
| Same thing implemented 5+ ways | Abstract the common pattern |
| Growing special case list | Find the general case |
| Complex rules with exceptions | Find the rule that has no exceptions |
| Excessive config options | Find defaults that work for 95% |
The Pattern
Look for:
- Multiple implementations of similar concepts
- Special case handling everywhere
- "We need to handle A, B, C, D differently..."
- Complex rules with many exceptions
Ask: "What if they're all the same thing underneath?"
Examples
Cascade 1: Stream Abstraction
Before: Separate handlers for batch/real-time/file/network data Insight: "All inputs are streams - just different sources" After: One stream processor, multiple stream sources Eliminated: 4 separate implementations
Cascade 2: Resource Governance
Before: Session tracking, rate limiting, file validation, connection pooling (all separate) Insight: "All are per-entity resource limits" After: One ResourceGovernor with 4 resource types Eliminated: 4 custom enforcement systems
Cascade 3: Immutability
Before: Defensive copying, locking, cache invalidation, temporal coupling Insight: "Treat everything as immutable data + transformations" After: Functional programming patterns Eliminated: Entire classes of synchronization problems
Process
- List the variations - What's implemented multiple ways?
- Find the essence - What's the same underneath?
- Extract abstraction - What's the domain-independent pattern?
- Test it - Do all cases fit cleanly?
- Measure cascade - How many things become unnecessary?
Red Flags You're Missing a Cascade
- "We just need to add one more case..." (repeating forever)
- "These are all similar but different" (maybe they're the same?)
- Refactoring feels like whack-a-mole (fix one, break another)
- Growing configuration file
- "Don't touch that, it's complicated" (complexity hiding pattern)
Remember
- Simplification cascades = 10x wins, not 10% improvements
- One powerful abstraction > ten clever hacks
- The pattern is usually already there, just needs recognition
- Measure in "how many things can we delete?"
Gremlin Integration (Pattern Unification from Memory Structure)
The memory architecture reveals simplification cascades automatically:
Nexus-Graph as Cascade Detector
Nexus-graph maps patterns across Dewey IDs. When multiple IDs serve similar purposes, that's a cascade opportunity.
# Find potential cascades (similar patterns)
find_cascade_opportunities() {
local category="$1" # e.g., 3 for methodology
# Get all files in this category
grep "^[φπei]\.${category}\." .claude/skills/gremlin-brain-v2/SKILL.md | \
cut -d'|' -f2 | while read file; do
# Check what patterns this file appears in
patterns=$(grep "$file" skills/Nexus_graph_v2.skill | grep "PATTERN:" | cut -d':' -f2)
echo "$file → $patterns"
done | \
# Find files that appear in same patterns (candidates for unification)
awk '{print $NF}' | sort | uniq -c | sort -rn | head -5
echo "Files appearing in multiple patterns = unification candidates"
}
# Example: Find methodology skills that might be unified
find_cascade_opportunities 3
Memory Tier Analysis for Cascades
If multiple e-tier files share a φ-tier seed → cascade opportunity
# Find e-tier files with same φ-tier root
find_common_roots() {
# List e-tier methodology files
e_files=$(grep "^e\.3\." .claude/skills/gremlin-brain-v2/SKILL.md | cut -d'|' -f1)
for e_file in $e_files; do
# Check if they reference same φ-tier concepts
φ_refs=$(grep "$e_file" skills/Nexus_graph_v2.skill | grep -o 'φ\.[0-9]\.[0-9]\.[0-9]')
echo "$e_file → $φ_refs"
done | \
# Group by common φ-tier refs
awk '{print $NF}' | sort | uniq -c | awk '$1 > 2 {print}'
echo "Multiple e-tier files with same φ-tier root = unification candidate"
}
Pattern Extraction from Nexus-Graph
# When you see this pattern in nexus-graph, look for cascade
detect_cascade_pattern() {
cat skills/Nexus_graph_v2.skill | grep "PATTERN:" | while read line; do
# Count how many IDs in pattern
id_count=$(echo "$line" | grep -o '[φπei]\.[0-9]\.[0-9]\.[0-9]' | wc -l)
# Count unique morphemes
unique_tiers=$(echo "$line" | grep -o '[φπei]\.' | sort -u | wc -l)
pattern_name=$(echo "$line" | cut -d':' -f2 | awk '{print $1}')
# If 5+ IDs but only 1-2 tiers → CASCADE CANDIDATE
if [ "$id_count" -gt 5 ] && [ "$unique_tiers" -lt 3 ]; then
echo "⚠ CASCADE OPPORTUNITY: $pattern_name"
echo " $id_count files at similar tier - can they unify?"
fi
done
}
Automated Cascade Protocol
Step 1: Find Duplication
# What concepts appear in multiple places?
find_duplicates() {
# Extract concept keywords from file names
grep "^[φπei]\." .claude/skills/gremlin-brain-v2/SKILL.md | \
cut -d'|' -f2 | \
tr '[:upper:]' '[:lower:]' | \
grep -o '[a-z]*' | \
sort | uniq -c | sort -rn | \
awk '$1 > 3 {print $2, "appears", $1, "times"}'
echo "Repeated concepts = unification candidates"
}
Step 2: Check Tier Distribution
# Are duplicates at same tier or spanning tiers?
analyze_duplicate() {
local concept="$1"
echo "Analyzing: $concept"
grep -i "$concept" .claude/skills/gremlin-brain-v2/SKILL.md | \
cut -d'|' -f1 | cut -d'.' -f1 | sort | uniq -c
echo "If all same tier → direct unification"
echo "If spanning tiers → check if it's proper abstraction or duplication"
}
Step 3: Test Unification
# Can these be one pattern in nexus-graph?
test_unification() {
local file1="$1"
local file2="$2"
# Get their current patterns
patterns1=$(grep "$file1" skills/Nexus_graph_v2.skill | grep "PATTERN:" | cut -d':' -f2)
patterns2=$(grep "$file2" skills/Nexus_graph_v2.skill | grep "PATTERN:" | cut -d':' -f2)
# Check overlap
common=$(comm -12 <(echo "$patterns1" | sort) <(echo "$patterns2" | sort))
if [ -n "$common" ]; then
echo "✓ Files share patterns: $common"
echo " Unification candidate: create abstraction"
else
echo "✗ Files don't share patterns"
echo " Maybe not same thing despite similar names"
fi
}
Examples from Memory Architecture
Cascade 1: Cognitive Tools (Category 3)
Before: cognitive-variability, chaos-gremlin, recursive-refiner, scale-game,
collision-zone, resonant-opposition (all separate e-tier files)
Insight: "All are cognitive state modifiers"
After: Create π.3.2.0 (cognitive-toolkit) that unifies patterns
Result: One framework, six modes instead of six separate tools
Cascade 2: Memory Systems (Category 8)
Before: GREMLIN-BRAIN, MONAD-MEMORY, NEXUS-CORE, NEXUS-MIND
(appear disconnected)
Insight: "All are morpheme-tiered storage (φ/π/e/i)"
After: Nexus-graph links them as progressive disclosure hierarchy
Result: Four complementary tiers instead of four separate systems
Cascade 3: Theory Files (Category 2)
Before: TIER1-13 (13 separate files), morphemic-substrate, axioms
Insight: "All derive from same generators (G1-G8 in GREMLIN-CORE)"
After: Regenerate from φ-tier seeds instead of maintaining separately
Result: One generative core, N manifestations (not N separate files)
Cascade Detection Workflow
# Run this to find cascade opportunities
find_all_cascades() {
echo "=== CASCADE DETECTION ==="
echo ""
echo "1. Duplicate Concepts:"
find_duplicates
echo ""
echo "2. Same-Tier Clustering:"
for tier in φ π e i; do
count=$(grep "^${tier}\." .claude/skills/gremlin-brain-v2/SKILL.md | wc -l)
echo " ${tier}-tier: $count files"
if [ "$count" -gt 20 ]; then
echo " ⚠ High count at ${tier}-tier - check for duplicates"
fi
done
echo ""
echo "3. Pattern Overload:"
detect_cascade_pattern
echo ""
echo "4. Common Roots:"
find_common_roots
}
# Run it
find_all_cascades
Using Memory Structure to Guide Simplification
Question 1: Does this belong at this tier?
- If e-tier file is just index → move to φ-tier
- If φ-tier file has implementation → extract to π-tier
- If π-tier file is massive → split to e-tier components
Question 2: Is this a pattern or a file?
- If 3+ files always used together → create pattern in nexus-graph
- If pattern is stable (5+ uses) → consider meta-pattern
- If meta-pattern emerges → might be new category
Question 3: Can φ-tier regenerate this?
- If e-tier file can be generated from φ-tier → don't store it
- If i-tier insight is just accumulated e-tier → regenerate as needed
- If π-tier framework derives from φ-tier → make it explicit
Red Flags from Memory Architecture
- Same concept at multiple tiers → Duplication, needs unification
- Large pattern in nexus-graph (10+ IDs) → Probably multiple patterns
- No φ-tier representation → Can't regenerate, fragile
- Category has 30+ files → Missing abstractions
- File appears in 10+ patterns → Too general (split?) or too fundamental (compress to φ?)
Remember
- Nexus-graph IS a simplification tool - it reveals which files form patterns
- Memory tiers show abstraction levels - use them to guide unification
- What compresses to φ-tier is fundamental - what doesn't might be duplication
- Patterns that span tiers are robust - patterns at one tier might be special cases