agentsclimarketplace

Roadtrip skill

Skill Waybox-AI/roadtrip-skill

An AI agent skill that turns "start + days" into a road trip you can actually drive.

Install
npx -y skills add Waybox-AI/roadtrip-skill

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Generate North American road-trip itineraries as a map-first, offline-friendly single-file HTML page. Plans around daily driving segments, overnight stops, fuel/EV-charging, national-park reservations (Recreation.gov / NPS), seasonal road closures, and timezone/border crossings — for executable, decision-ready trips. Two entry modes: give a start + region/destination + days and it plans the whole route, or hand it an existing route and it verifies, fills gaps, and produces the page.

SKILL.md

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RoadTrip Navigator

Turn "start + days" or "an existing route" into a road trip you can actually drive: paced into days, with overnight stops, fuel/charging, park reservations, seasonal road risks, and a map-first single-file HTML page.

North American road trips revolve around the car, not flights: how many hours do we drive today, where do we sleep, will we make it on the fuel/charge we have, and is the road even open. That focus is what this skill adds on top of a generic "list of attractions."

When to use

Use this skill whenever the request is about driving a multi-stop trip in the US / Canada / Mexico (see read-when triggers). If the user only wants a single city guide or a flight itinerary, this is not the right skill.

Two entry modes

Detect the mode up front (see scripts/helper.py for the heuristic):

  • Light mode (plan it for me): user gives a start, a rough region or destination, day count, and party/vehicle. → Run the full 7-step workflow, designing the route yourself.
  • Heavy mode (verify my route): user pastes/links/screenshots an existing route. → Skip route invention. Parse their route into the schema, then verify and fill gaps: driving segmentation, overnight realism, fuel/charge coverage, reservation countdown, seasonal closures, and produce the page.

When unsure which mode, ask one short question. Otherwise infer and proceed.

The five things that make this more than a list

These are where pure-model answers fail and where this skill earns its keep:

  1. Daily driving segmentation (the core). Slice the whole route into days under a sane daily drive limit, place an overnight at each segment end, and validate each day: drive ≤ limit, arrive before dark, no stop hits a closed gate, fatigue buffer. This is the road-trip equivalent of connection-checking — most AI itineraries skip it.
  2. Reservation countdown. Recreation.gov campgrounds often release ~6 months out; popular timed-entry a few days out; in-park lodges up to ~13 months out. From the departure date, work backwards into a "book by" to-do list.
  3. Fuel / charge planning. Gas: flag long empty stretches ("next fuel in X mi"). EV: plan a charging corridor against the vehicle's range and note whether each leg makes it, charger power, and a backup.
  4. Seasonal road conditions & closures. Mountain passes that close in winter (Going-to-the-Sun, Tioga Pass, Trail Ridge Rd), wildfire/hurricane/snow season. If the travel date hits one, down-rank or reroute and say so.
  5. Timezones & borders. Correct arrival times across timezone lines; for border crossings, flag documents / vehicle papers / insurance / wait times.

Workflow (7 steps)

Run scripts/helper.py "<user request>" first — it parses slots, guesses the entry mode, picks the trip region (for HTML theming), and prints what's still missing. Use its output to drive the steps below.

Step 1 — Collect requirements (slot filling)

Required: start, travel date, days, party makeup, vehicle (gas/EV/RV + range). Optional: destination/region, budget, preferences (scenic vs. fast, hike intensity, loop vs. one-way, border crossing). Only ask follow-ups for missing required slots; fill the rest with sensible defaults and proceed.

Validate place names before planning. Slot presence is not slot truth: a made-up start like "ABC" parses fine and would otherwise flow straight into a fabricated route. Run every user-supplied place — start, destination, named waypoints; in heavy mode each day's from/to towns — through python3 tools/places_client.py "<name>" and branch on its verdict: match → adopt the returned canonical name + coordinates; did-you-mean → confirm the intended place with the user (one short question, same spirit as the required-slot follow-ups); no-matchstop and ask — never plan a route around a place you could not verify; unverified (offline) → use your own judgment and ask about any name you don't recognize. A match with outsideNA: true is a real place outside US/Canada/Mexico — tell the user it's beyond this skill's coverage instead of calling it fake.

Step 2 — Route / destination planning (if not given)

Decide loop vs. one-way first (affects one-way drop fees and pacing). For region-level input ("the Southwest", "Pacific Northwest"): search candidates → seasonal & closure check → shortlist. Compute rough total miles / driving days for the shortlist and drop any "can't be driven in N days" option.

Present two candidate routes before committing (light mode only). Once the shortlist is down to viable options, draft exactly two genuinely distinct routes yourself — e.g. a faster direct corridor vs. a scenic detour, or two different geographic loops — each with a short label, a one-line summary, and rough total miles/driving days. Show both to the user and ask them to pick (or say "surprise me") before moving to Step 3. This is a single short question, same spirit as the required-slot follow-up in Step 1 — don't draft a full itinerary for either option first. If the conversation is one-shot and no reply is possible, pick the better-rated option yourself, proceed, and note the alternative you didn't take. Skip this entirely in heavy mode (the user already supplied a route) or once the user has already chosen. Carry both options into scripts/helper.compare_routes() to populate routeOptions[] (Phase-3 module below) so the rendered page shows the comparison table with the chosen route flagged.

Step 3 — Daily driving segmentation (core; see five-things #1)

  1. Split by a daily drive limit (default: relaxed adults ≤ 4–5h; with kids/seniors ≤ 3–4h; user-adjustable).
  2. Put an overnight at each segment end (has lodging, supplies, good for the next morning).
  3. Validate: arrive before dark, no stop hits a closed gate, long legs have a fuel/charge point mid-way.
  4. If infeasible: cut miles / add a night / pick a closer overnight town.
  5. Surface risks explicitly in the day, e.g. "no fast charger for 180 mi on this leg — charge to full before leaving."

Rule of thumb: plan by daylight, not by odometer — a day that ends after dark fails at the trailhead, not on the map.

Step 4 — Parallel research (sub-agents)

Fan out (one concern per sub-agent, run concurrently): weather (per day), lodging/campgrounds (price + booking difficulty), fuel/charging points, attractions & tickets/permits, food, scenic byways & hikes, Reddit real-world gotchas. Delegation rule: instruct each sub-agent to hit official APIs first (NPS / NWS / Recreation.gov / Open Charge Map) and fall back to web search only on failure. See reference.md for the tool routing table and tools/.

Step 5 — Reservation countdown (see five-things #2)

From the departure date, generate a "book by" to-do list: campgrounds (Recreation.gov, ~T-6 months), timed-entry / wilderness permits (per park rule, T-X days), popular in-park lodges (up to ~T-13 months), one-way car/RV rental (lock price early). Render as a ⚠️ checklist at the top of the page + a timeline. Populate bookingCountdown[].

Step 6 — Budget (with reliability grading)

Tag every line verified / reference(~) / estimate(≈). Road-trip specifics: fuel = total miles ÷ MPG × gas price (or EV charging cost); tolls; park entry or the America the Beautiful annual pass; one-way drop fee; campground; lodging; food. Force a bottom disclaimer: prices are dynamic, confirm before departure.

Step 7 — Generate the single-file HTML (map-first)

  1. Write the data to tripData.json first (data/view separation — editable, re-renderable).
  2. Render: python3 assets/generate.py tripData.json -o trip.html → Leaflet map (numbered stops + ordered polyline) + one-tap mobile nav (Google/Apple deep links) + daily timeline + reservation to-do + budget. Responsive (mobile single-column / desktop multi-column) + print friendly.
  3. Validate before delivering (plan §9): the generator already does a light schema check and a JSON parse of the injected data. Optionally syntax-check the inline JS, then open/preview.
  4. Full-page disclaimer: AI-assembled, may be out of date, verify with official sources.

Output contract

  • Always produce both tripData.json and the rendered trip.html.
  • Units: miles, °F, MPG, USD by default; switch to km/°C/local currency on Canadian/Mexican legs and note the change. A trip entirely within China prices its budget in CNY (¥) — never converted into USD.
  • Never invent a precise reservation availability, live charger occupancy, or minute-level traffic — point to the official app / Recreation.gov / nav.

Honesty boundaries (Phase 1)

Do not promise: exact live fuel/electricity prices, live charger occupancy, minute-level traffic, live campground availability, or replacing turn-by-turn navigation. For these, tell the user to confirm via the official app / Recreation.gov / their navigation app in real time. The page's job is to be right the morning you leave, not merely impressive the night it was generated.

Files

  • reference.md — tripData schema, reliability grading, tool routing table.
  • AGENTS.md ("Worked examples") — typical prompts and expected outputs.
  • assets/generate.pytripData.json → single-file HTML.
  • assets/template.html — the HTML/JS renderer (Leaflet map + timeline).
  • assets/tripData.example.json / assets/preview.html — Southwest 7-day demo.
  • assets/tripData.tahoe.json / assets/preview-tahoe.html — Sunnyvale→Tahoe 3-day demo (mountain theme, state-park reservations, Sierra snow risk).
  • assets/tripData.pnw.json / assets/preview-pnw.html — Seattle→Vancouver→ Whistler EV cross-border demo (exercises all three Phase-3 modules below).

Phase-3 modules (implemented)

These render as extra sections when their data is present (see reference.md):

  • Multi-route comparisonscripts/helper.compare_routes(options, party)routeOptions[]. Feeds from the Step 2 two-route pick above; it auto-rates drive intensity and renders a comparison table with the chosen route flagged.
  • Cross-bordertools/border_client.trip_section([("US","CA",rental),...])crossBorder. Per-crossing documents / insurance / customs / unit-switch checklist for US↔CA↔MX. Note the key asymmetry it encodes: US insurance is usually valid in Canada but never in Mexico (buy Mexican insurance).
  • Duty-free exemptiontools/customs_client.personal_exemption(residence, hours_abroad, used_within_30_days=False) → the per-person allowance quoted in crossBorder customs notes. Encodes the 24h/48h tiers (US: USD 800 at 48h+, once per 30 days, else USD 200; CA: 0 / CAD 200 / CAD 800; MX land: USD 300) with EN + 中文 note strings — quote the tool, never recall these amounts.
  • EV charging corridortools/charging_client.corridor(legs, usableRange, winter_derate=...)evPlan. Simulates state-of-charge leg by leg, sets a recommended charge-to at each stop, and flags legs that won't make the buffer. Pass winter_derate (e.g. 0.25) for cold-weather range loss.
  • scripts/helper.py — input parsing, entry-mode + region detection, slot check.
  • tools/*.py — per-source clients, each with a web-search fallback (incl. border_client.py and charging_client.corridor()).

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