npx agentspec-cli install d699a2b0-6b27-4fc0-ac6f-eca5b7b23e77 --framework ClaudeCode→ .claude/skills/ralph/SKILL.md
# Ralph Planning Skill (Claude)
Generate specs, implementation plans, and loop infrastructure for iterative AI-driven development.
## Entry
**Usage:** `/skill ralph [optional/path/to/plan.md]`
- If path provided: Read that `.md` file as the source specification
- If no path: Use the current conversation context
---
## Step 1: Interview the User
Use the `AskUserQuestion` tool to gather requirements. Present questions with lettered options for quick responses.
**Interview approach:**
1. Present 3-5 questions covering scope, constraints, and validation
2. Use A/B/C/D multiple choice format for quick answers
3. Allow the user to respond with shorthand like "1A, 2C, 3B"
4. Ask follow-up questions if answers are unclear
**Example questions to ask:**
1. **Scope** - How broad is this change?
- A) Single file/module
- B) Multiple related files
- C) Cross-cutting (many parts of codebase)
- D) Greenfield (new feature from scratch)
2. **Risk tolerance** - How aggressive should changes be?
- A) Conservative - minimal changes
- B) Balanced - reasonable refactoring OK
- C) Aggressive - significant refactoring acceptable
3. **Validation** - How should we verify the implementation?
- A) Existing test suite
- B) Add new tests
- C) Manual testing sufficient
**WAIT for user response before proceeding.**
---
## Step 2: Discover Project Context
Read these files to understand the project:
- `AGENTS.md` or `CLAUDE.md` - project rules and commands
- `package.json`, `Cargo.toml`, `go.mod`, or equivalent - build system
- Existing `specs/` if any - current state
Extract:
- **Validation command** (e.g., `npm test`, `cargo test`, `go test ./...`)
- **Code patterns** to follow
- **Path conventions**
---
## Step 3: Generate Files
**Always overwrite existing files** — never add suffixes like `-v2`, `-new`, or `_backup`. These files are ephemeral and meant to be regenerated. Use the exact filenames specified below.
### 1. `specs/<feature-slug>.md`
Technical specification:
- **Overview**: What the feature does (1-2 sentences)
- **Requirements**: Numbered list of functional requirements (R1, R2, R3...)
- **Constraints**: Technical limitations, performance targets, compatibility requirements
- **Edge cases**: Error conditions and expected behavior
- **Out of scope**: Explicitly excluded functionality
### 2. `IMPLEMENTATION_PLAN.md`
Format:
```markdown
# Implementation Plan: <Feature Name>
> **Scope**: <scope choice> | **Risk**: <risk choice> | **Constraints**: <constraint choice>
## Summary
<2-3 sentence overview of the implementation approach>
## Tasks
- [ ] Task 1: Description with enough context for implementation
- [ ] Task 2: Description with enough context for implementation
- [ ] Task 3: Description with enough context for implementation
...
```
Tasks should be:
- Ordered by priority/dependency
- Small enough for single iteration
- Include file paths when known
- Self-contained with sufficient context
### 3. `PROMPT_plan.md`
Generate with this content (replace `[DIRECTORIES]` with relevant source directories):
```markdown
# Planning Mode
You are in PLANNING mode. Analyze specifications against existing code and generate a prioritized implementation plan.
## Phase 0: Orient
### 0a. Study specifications
Read all files in `specs/` directory using parallel subagents.
### 0b. Study existing implementation
Use parallel subagents to analyze relevant source directories:
[DIRECTORIES]
### 0c. Study the current plan
Read `IMPLEMENTATION_PLAN.md` if it exists.
## Phase 1: Gap Analysis
Compare specs against implementation:
- What's already implemented?
- What's missing?
- What's partially done?
**CRITICAL**: Don't assume something isn't implemented. Search the codebase first.
## Phase 2: Generate Plan
Update `IMPLEMENTATION_PLAN.md` with:
- Tasks sorted by priority (P0 → P1 → P2)
- Clear descriptions with file locations
- Dependencies noted where relevant
- Discoveries from gap analysis
**CRITICAL: ALL tasks MUST use checkbox format:**
- `- [ ] **Task Name**` for pending tasks
- `- [x] **Task Name**` for completed tasks
Do NOT use other formats like `#### P1.1: Task Name` or `**Task Name**` without checkboxes. The build loop relies on `grep -c "^\- \[ \]"` to count remaining tasks.
Capture the WHY, not just the WHAT.
## Guardrails
999. NEVER implement code in planning mode
1000. Use up to 10 parallel subagents for analysis
1001. Each task must be completable in ONE loop iteration
1002. **ALWAYS use checkbox format `- [ ]` or `- [x]` for tasks in IMPLEMENTATION_PLAN.md** - The build loop relies on `grep -c "^\- \[ \]"` to count remaining tasks. Never use `####` headers or bold text without checkboxes.
```
### 4. `PROMPT_build.md`
Generate with this content (replace `[VALIDATION_COMMAND]` with actual command):
```markdown
# Build Mode
Implement ONE task from the plan, validate, commit, exit.
## Phase 0: Orient
Study with subagents:
- @AGENTS.md or @CLAUDE.md (how to build/test)
- @specs/* (requirements)
- @IMPLEMENTATION_PLAN.md (current state)
### Check for completion
```bash
grep -c "^\- \[ \]" IMPLEMENTATION_PLAN.md || echo 0
```
- If 0: Run validation → commit → output **RALPH_COMPLETE** → exit
- If > 0: Continue to Phase 1
## Phase 1: Implement
1. **Study the plan** — Choose the most important task from @IMPLEMENTATION_PLAN.md
2. **Search first** — Don't assume not implemented. Verify behavior doesn't already exist
3. **Implement** — ONE task only. Implement completely — no placeholders or stubs
4. **Validate** — Run `[VALIDATION_COMMAND]`, must pass before continuing
If stuck, use extended thinking to debug. Add extra logging if needed.
## Phase 2: Update & Learn
**Update IMPLEMENTATION_PLAN.md:**
- Mark task `- [x] Completed`
- Add discovered bugs or issues (even if unrelated to current task)
- Note any new tasks discovered
- Periodically clean out completed items when file gets large
**Update AGENTS.md** (if you learned something new):
- Add correct commands discovered through trial and error
- Keep it brief and operational only — no status updates or progress notes
## Phase 3: Commit & Exit
```bash
git add -A && git commit -m "feat([scope]): [description]"
```
Check remaining:
```bash
grep -c "^\- \[ \]" IMPLEMENTATION_PLAN.md || echo 0
```
- If > 0: Say "X tasks remaining" and EXIT
- If = 0: Output **RALPH_COMPLETE**
## Guardrails
99999. When authoring documentation, capture the why — tests and implementation importance.
999999. Single sources of truth, no migrations/adapters. If tests unrelated to your work fail, resolve them as part of the increment.
9999999. Implement functionality completely. Placeholders and stubs waste time redoing the same work.
99999999. Keep @IMPLEMENTATION_PLAN.md current with learnings — future iterations depend on this to avoid duplicating efforts.
999999999. Keep @AGENTS.md operational only — status updates and progress notes pollute every future loop's context.
9999999999. For any bugs you notice, resolve them or document them in @IMPLEMENTATION_PLAN.md even if unrelated to current work.
99999999999. ONE task per iteration. Search before implementing. Validation MUST pass. Never output RALPH_COMPLETE if tasks remain.
```
### 5. `loop.sh`
Generate the dual-mode build loop script:
```bash
#!/bin/bash
# Ralph Wiggum Build Loop (Claude)
# Usage:
# ./loop.sh # Auto mode: plan first, then build (default)
# ./loop.sh plan # Planning mode only
# ./loop.sh build # Build mode only
# ./loop.sh 10 # Auto mode, max 10 build iterations
# ./loop.sh build 5 # Build mode, max 5 iterations
set -e
MODE="plan"
AUTO_MODE=true
PLAN_MAX_ITERATIONS=5
MAX_ITERATIONS=0
ITERATION=0
CONSECUTIVE_FAILURES=0
# Colors
RED='\033[0;31m'
YELLOW='\033[1;33m'
GREEN='\033[0;32m'
CYAN='\033[0;36m'
NC='\033[0m'
for arg in "$@"; do
if [[ "$arg" == "plan" ]]; then
MODE="plan"
AUTO_MODE=false
elif [[ "$arg" == "build" ]]; then
MODE="build"
AUTO_MODE=false
elif [[ "$arg" =~ ^[0-9]+$ ]]; then
MAX_ITERATIONS=$arg
fi
done
PROMPT_FILE="PROMPT_${MODE}.md"
if [[ ! -f "$PROMPT_FILE" ]]; then
echo -e "${RED}Error: $PROMPT_FILE not found${NC}"
echo "Run the ralph-claude skill first to generate the required files."
exit 1
fi
switch_to_build_mode() {
echo ""
echo -e "${CYAN}=== Switching to Build Mode ===${NC}"
echo ""
MODE="build"
PROMPT_FILE="PROMPT_${MODE}.md"
ITERATION=0
}
seconds_until_next_hour() {
local now=$(date +%s)
local current_minute=$(date +%M)
local current_second=$(date +%S)
local seconds_past_hour=$((10#$current_minute * 60 + 10#$current_second))
local seconds_until=$((3600 - seconds_past_hour))
echo $seconds_until
}
seconds_until_daily_reset() {
local reset_hour=5
local now=$(date +%s)
local today_reset=$(date -v${reset_hour}H -v0M -v0S +%s 2>/dev/null || date -d "today ${reset_hour}:00:00" +%s)
if [[ $now -ge $today_reset ]]; then
local tomorrow_reset=$((today_reset + 86400))
echo $((tomorrow_reset - now))
else
echo $((today_reset - now))
fi
}
countdown() {
local seconds=$1
local message=$2
while [[ $seconds -gt 0 ]]; do
local hours=$((seconds / 3600))
local minutes=$(((seconds % 3600) / 60))
local secs=$((seconds % 60))
printf "\r${CYAN}%s${NC} Time remaining: %02d:%02d:%02d " "$message" $hours $minutes $secs
sleep 1
((seconds--))
done
printf "\r%-80s\r" " "
}
is_usage_limit_error() {
local output="$1"
local exit_code="$2"
# Only check for usage limits if there was an error
[[ "$exit_code" -eq 0 ]] && return 1
# Check the result JSON for error subtypes first (most reliable)
if echo "$output" | grep '^{' | jq -e 'select(.type == "result") | select(.subtype | test("error.*limit|rate_limit"))' &>/dev/null; then
return 0
fi
# Fallback to text patterns in stderr/error messages (not in assistant text)
local error_text
error_text=$(echo "$output" | grep -v '^{' || true)
error_text+=$(echo "$output" | grep '^{' | jq -r 'select(.type == "result" and .is_error == true) | .result // empty' 2>/dev/null || true)
if [[ "$error_text" =~ "You've hit your limit" ]] || [[ "$error_text" =~ "You have hit your limit" ]]; then
return 0
fi
if [[ "$error_text" =~ Error:\ 429 ]] || [[ "$error_text" =~ Error:\ 529 ]]; then
return 0
fi
if [[ "$error_text" =~ rate.?limit ]] || [[ "$error_text" =~ usage.?limit ]]; then
return 0
fi
return 1
}
get_sleep_duration() {
local output="$1"
if [[ "$output" =~ "try again in "([0-9]+)" minute" ]]; then
echo $(( ${BASH_REMATCH[1]} * 60 + 60 ))
return
fi
if [[ "$output" =~ "try again in "([0-9]+)" hour" ]]; then
echo $(( ${BASH_REMATCH[1]} * 3600 + 60 ))
return
fi
if [[ "$output" =~ (daily|day|24.?hour) ]]; then
seconds_until_daily_reset
return
fi
if [[ "$output" =~ resets[[:space:]]+([0-9]+)(am|pm) ]]; then
local reset_hour="${BASH_REMATCH[1]}"
local ampm="${BASH_REMATCH[2]}"
local tz="UTC"
if [[ "$output" =~ \(([A-Za-z_/]+)\) ]]; then
tz="${BASH_REMATCH[1]}"
fi
if [[ "$ampm" == "pm" && "$reset_hour" -ne 12 ]]; then
reset_hour=$((reset_hour + 12))
elif [[ "$ampm" == "am" && "$reset_hour" -eq 12 ]]; then
reset_hour=0
fi
local now=$(date +%s)
local target=$(TZ="$tz" date -v${reset_hour}H -v0M -v0S +%s 2>/dev/null || TZ="$tz" date -d "today ${reset_hour}:00:00" +%s)
if [[ $now -ge $target ]]; then
target=$((target + 86400))
fi
echo $((target - now + 60))
return
fi
# Default: wait until next hour
local wait_time=$(seconds_until_next_hour)
[[ $wait_time -lt 300 ]] && wait_time=300
echo $wait_time
}
handle_usage_limit() {
local output="$1"
local sleep_duration=$(get_sleep_duration "$output")
echo ""
echo -e "${YELLOW}=== Usage Limit Detected ===${NC}"
echo -e "${YELLOW}Waiting for reset...${NC}"
echo ""
local tz="UTC"
if [[ "$output" =~ \(([A-Za-z_/]+)\) ]]; then
tz="${BASH_REMATCH[1]}"
fi
local resume_time=$(TZ="$tz" date -v+${sleep_duration}S "+%Y-%m-%d %H:%M:%S" 2>/dev/null || TZ="$tz" date -d "+${sleep_duration} seconds" "+%Y-%m-%d %H:%M:%S")
echo -e "Expected resume: ${CYAN}${resume_time}${NC}"
echo ""
countdown $sleep_duration "Waiting..."
echo ""
echo -e "${GREEN}Resuming...${NC}"
echo ""
CONSECUTIVE_FAILURES=0
}
if [[ "$AUTO_MODE" == true ]]; then
echo -e "${GREEN}Ralph loop: AUTO mode (plan ×${PLAN_MAX_ITERATIONS} → build)${NC}"
[[ $MAX_ITERATIONS -gt 0 ]] && echo "Max build iterations: $MAX_ITERATIONS"
else
echo -e "${GREEN}Ralph loop: $(echo "$MODE" | tr '[:lower:]' '[:upper:]') mode${NC}"
[[ $MAX_ITERATIONS -gt 0 ]] && echo "Max iterations: $MAX_ITERATIONS"
fi
echo "Press Ctrl+C to stop"
echo "---"
while true; do
ITERATION=$((ITERATION + 1))
echo ""
MODE_DISPLAY=$(echo "$MODE" | tr '[:lower:]' '[:upper:]')
if [[ "$AUTO_MODE" == true ]]; then
echo -e "${GREEN}=== ${MODE_DISPLAY} Iteration $ITERATION ===${NC}"
else
echo -e "${GREEN}=== Iteration $ITERATION ===${NC}"
fi
echo ""
TEMP_OUTPUT=$(mktemp)
set +e
claude --print \
--verbose \
--output-format stream-json \
--dangerously-skip-permissions \
< "$PROMPT_FILE" 2>&1 | tee "$TEMP_OUTPUT" | sed 's/\x1b\[[0-9;]*m//g' | grep --line-buffered '^{' | jq --unbuffered -r '
def tool_info:
if .name == "Edit" or .name == "Write" or .name == "Read" then
(.input.file_path // .input.path | split("/") | last | .[0:60])
elif .name == "TodoWrite" then
((.input.todos // []) | map(.content) | join(", ") | if contains("\n") then .[0:60] else . end)
elif .name == "Bash" then
(.input.command // .input.cmd | if contains("\n") then split("\n") | first | .[0:50] else .[0:80] end)
elif .name == "Grep" then
(.input.pattern | .[0:40])
elif .name == "Glob" then
(.input.pattern // .input.filePattern | .[0:40])
elif .name == "WebFetch" then
(.input.url | .[0:60])
elif .name == "Task" then
(.input.description // .input.prompt | if contains("\n") then .[0:40] else .[0:80] end)
else null end;
if .type == "assistant" then
.message.content[] |
if .type == "text" then
if (.text | split("\n") | length) <= 3 then .text else empty end
elif .type == "tool_use" then
" [" + .name + "]" + (tool_info | if . then " " + . else "" end)
else empty end
elif .type == "result" then
"--- " + ((.duration_ms / 1000 * 10 | floor / 10) | tostring) + "s, " + (.num_turns | tostring) + " turns ---"
else empty end
' 2>/dev/null
EXIT_CODE=${PIPESTATUS[0]}
OUTPUT=$(cat "$TEMP_OUTPUT")
RESULT_MSG=$(sed 's/\x1b\[[0-9;]*m//g' "$TEMP_OUTPUT" | grep '^{' | jq -r 'select(.type == "result") | .result // empty' 2>/dev/null | tail -1)
rm -f "$TEMP_OUTPUT"
set -e
if is_usage_limit_error "$OUTPUT" "$EXIT_CODE"; then
handle_usage_limit "$OUTPUT"
ITERATION=$((ITERATION - 1))
continue
fi
if [[ $EXIT_CODE -ne 0 ]]; then
CONSECUTIVE_FAILURES=$((CONSECUTIVE_FAILURES + 1))
echo ""
echo -e "${RED}=== Error (exit code: $EXIT_CODE) ===${NC}"
echo -e "${RED}Output:${NC}"
echo "$OUTPUT" | tail -20
echo ""
BACKOFF=$((30 * (2 ** (CONSECUTIVE_FAILURES - 1))))
[[ $BACKOFF -gt 300 ]] && BACKOFF=300
echo -e "${YELLOW}Retrying in ${BACKOFF}s... (consecutive failures: $CONSECUTIVE_FAILURES)${NC}"
countdown $BACKOFF "Waiting..."
ITERATION=$((ITERATION - 1))
continue
fi
CONSECUTIVE_FAILURES=0
# In auto mode, switch from plan to build after hitting plan cap
if [[ "$AUTO_MODE" == true && "$MODE" == "plan" && $ITERATION -ge $PLAN_MAX_ITERATIONS ]]; then
switch_to_build_mode
continue
fi
if [[ "$RESULT_MSG" =~ RALPH_COMPLETE ]]; then
echo ""
echo -e "${GREEN}=== Ralph Complete ===${NC}"
echo -e "${GREEN}All tasks finished.${NC}"
break
fi
if [[ $MAX_ITERATIONS -gt 0 && $ITERATION -ge $MAX_ITERATIONS ]]; then
echo ""
echo -e "${GREEN}Reached max iterations ($MAX_ITERATIONS).${NC}"
break
fi
sleep 2
done
echo ""
echo -e "${GREEN}Ralph loop complete. Iterations: $ITERATION${NC}"
```
Make the script executable:
```bash
chmod +x loop.sh
```
---
## Step 4: Next Steps
After generating all files, tell the user:
> **Files generated:**
> - `specs/<feature-slug>.md` - Requirements specification
> - `IMPLEMENTATION_PLAN.md` - Task list with checkboxes
> - `PROMPT_plan.md` - Planning mode instructions
> - `PROMPT_build.md` - Build mode instructions
> - `loop.sh` - Dual-mode build loop script
>
> **Usage:**
> - `./loop.sh` - Auto mode: plan first, then build
> - `./loop.sh plan` - Planning mode only
> - `./loop.sh build` - Build mode only
> - `./loop.sh build 10` - Build mode, max 10 iterations
>
> **Next step:** Run `./loop.sh` to start the loop.
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