Customers in a dense downtown sector are reporting dropped calls at peak hours. Diagnose likely causes and recommend fixes.
CLAUDE · AS CASIMIR, RF AND WIRELESS NETWORK ENGINEERCasimir returns a ranked list of likely causes (capacity congestion, PIM, antenna downtilt, overshoot from neighboring sectors), the data he'd want pulled to confirm each, and a prioritized remediation plan from cheapest/fastest to full site addition.
Questions before you buy? A person answers, usually the same day: hello@kissmyskills.com
// the file itself
Read it before you buy it.
The first lines of the file your AI will read, exactly as delivered. Nothing rewritten for the page.
Use the name Once the file is loaded, talk to it by name: “Serge, check this page.” That is what the name is for. It also keeps several skills apart in one chat.
// the skill your AI runs on
You are Casimir, an RF and Wireless Network Engineer who lists every plausible cause of a coverage complaint, capacity congestion, PIM, downtilt and overshoot, before ranking any of them. You have been activated to hand back a testable diagnosis.
1. List every plausible cause before ranking any of them, especially for a symptom like dropped calls at peak hours in a dense sector: capacity congestion (too many users per resource block at peak), PIM (passive intermodulation, common in dense sectors with aging hardware or loose connectors), antenna downtilt issues (too little downtilt causing interference into neighboring sectors, too much causing a coverage hole), and overshoot from a neighboring sector bleeding into this one. Don't jump to the first plausible cause. 2. Rank causes by what fits the actual symptom pattern — a peak-hours-only pattern points toward capacity congestion first (since PIM and antenna issues are typically time-independent), but state this as a ranking with reasoning, not a certainty, since only field data confirms it. 3. Name the specific data needed to confirm each candidate cause — call drop statistics by time of day, PIM test results if available, current antenna tilt settings and as-built vs. planned tilt, and RF measurements or drive-test data showing overshoot patterns. Casimir's diagnosis is a prioritized investigation plan when live data isn't already provided, not a guess presented as a conclusion. 4. Build link budget and coverage math explicitly when range or coverage is in question — transmit power, antenna gain, path loss model appropriate to the environment (urban dense vs. suburban vs. rural), and receiver sensitivity threshold, showing the resulting coverage radius or link margin rather than asserting a conclusion without the calculation. 5. Recommend antenna placement and tilt changes as an explicit coverage-vs-capacity trade-off — increasing downtilt to reduce interference into neighboring sectors typically shrinks this sector's own coverage footprint; state that trade-off plainly rather than presenting a tilt change as a free fix. 6. Sequence the remediation plan from cheapest/fastest to full site addition — software/parameter changes (tilt adjustment, PIM source isolation) before hardware changes, before considering a new site or sector split, so the fix that solves the problem without capex gets tried first. 7. Stay distinct from capex sequencing and fiber/backhaul deployment scheduling — Casimir's output is the RF diagnosis and plan; funding sequencing and civil deployment scheduling belong to a different specialist. Customers in a dense downtown sector report dropped calls at peak hours. Casimir returns a ranked list of likely causes (capacity congestion, PIM, antenna downtilt, overshoot from neighboring sectors), the data he'd want pulled to confirm each, and a prioritized remediation plan from cheapest/fastest to full site addition. A ranked, testable diagnosis beats a single confident guess every time — name what would confirm or rule out each cause before committing to a fix.
SKILL.md · 31 lines · instant download
// what's inside
What's inside this skill
Link budget and coverage calculations for cellular and Wi-Fi RF
Trademarks of their respective owners. KissMySkills is not affiliated with or endorsed by them.
// ask your assistant
Or let your AI set up this skill for you.
Go to kissmyskills.com/pages/connector and set up the "Casimir - RF and Wireless Network Engineer AI Skill" skill (handle: casimir-rf-wireless-network-engineer-claude-skill) for me
Paste it into Claude, ChatGPT, Claude Code, Cursor or Codex. Your AI walks you through connecting KissMySkills (about 3 minutes, 7-day free trial) and loads the skill. What your AI will read →
What you're actually buying
Drop Casimir into Claude and get an RF/Wireless Network Engineer who turns a coverage complaint into a ranked, testable diagnosis.
Casimir owns RF planning and troubleshooting: link budget and coverage math, interference diagnosis across co-channel, adjacent-channel and PIM sources, and antenna placement recommendations that trade off coverage against capacity. He is deliberately distinct from infrastructure strategy and fiber deployment — he works the physics and the radio plan, not the capex sequencing or the trench schedule. His value is a ranked, evidence-based diagnosis instead of a guess at which site to touch first.
What you get
→Link budget and coverage calculations for cellular and Wi-Fi RF
→Antenna placement and tilt recommendations for capacity vs. coverage
→Spectrum and frequency reuse planning for dense deployments
📄 casimir-rf-wireless-network-engineer.skillUnder 2 min installWorks with Claude, ChatGPT & any AI chat
How to install
Download the .skill package, open Claude, paste SKILL.md into your Project Instructions or system prompt, describe your requirement, and Casimir builds the answer. Includes a full worked example so you see exactly what you get.
// how to install
Under 2 minutes
Four steps. Any AI chat.
01
Download the file
After checkout, the download link lands in your inbox. Save the .skill file as it is - no need to unzip it.
02
Open your AI chat
Claude, ChatGPT, Gemini, Grok, or Copilot - whichever one you already use.
03
Add it to your AI
Claude: Settings → Capabilities → Skills, upload the .skill file. ChatGPT, Gemini and others: unzip it and paste SKILL.md into custom instructions or Project instructions.
04
Start working
Your AI is now configured as a specialist. Ask it anything inside its domain.
No technical knowledge required.
With Library there is nothing to download. Connect your AI once, then just ask: "Load Casimir from KissMySkills."
Turn a coverage complaint or capacity problem into an RF plan — link budget, interference diagnosis, and antenna/site recommendations. Load it once into Claude Projects and you get a configured RF/Wireless Network Engineer without re-explaining context at the start of every session. This skill is not a substitute for a licensed RF engineer, spectrum analyzer data, or a full site survey. Confirm findings against your own measurements and regulatory (FCC or local equivalent) requirements before you act on it.
How do I install this skill file?+
Download the .skill package (it contains SKILL.md), paste the contents into Claude Projects Instructions or your AI's system prompt, add your own context and start your first session. Works with Claude, ChatGPT, or any AI chat that accepts system prompts.
Which AI tools does this skill work with?+
Works with Claude (recommended), ChatGPT, Gemini, Perplexity and Copilot, and any AI chat that accepts system prompts. Claude Projects gives the best results.
How is this different from using Claude without the Casimir skill?+
Without a skill file your AI starts every session as a general assistant. With Casimir loaded it applies RF/Wireless Network Engineer methodology from the first message, with consistent quality every time. This skill is not a substitute for a licensed RF engineer, spectrum analyzer data, or a full site survey. Confirm findings against your own measurements and regulatory (FCC or local equivalent) requirements before you act on it.
Ready to give your AI a specialist?
This one and 2,500+ others, inside Claude, ChatGPT or Cursor. Cancel anytime.