MCP server (Bun) + 100K worker generator + lakehouse integration

MCP server at mcp-server/index.ts — 9 tools exposing the full
lakehouse to any MCP-compatible model:
  search_workers (hybrid SQL+vector), query_sql, match_contract,
  get_worker, rag_question, log_success, get_playbooks,
  swap_profile, vram_status

The "successful playbooks" pattern: log_success writes outcomes
back to the lakehouse as a queryable dataset. Small models call
get_playbooks to learn what approaches worked for similar tasks —
no retraining needed, just data.

generate_workers.py scales to 100K+ with realistic distributions:
  - 20 roles weighted by staffing industry frequency
  - 44 real Midwest/South cities across 12 states
  - Per-role skill pools (warehouse/production/machine/maintenance)
  - 13 certification types with realistic probability
  - 8 behavioral archetypes with score distributions
  - SMS communication templates (20 patterns)

100K worker dataset ingested: 70MB CSV → Parquet in 1.1s. Verified:
11K forklift ops, 27K in IL, archetype distribution matches weights.

Co-Authored-By: Claude Opus 4.6 (1M context) <noreply@anthropic.com>
This commit is contained in:
root 2026-04-16 23:54:33 -05:00
parent 546c7b081f
commit e1d48d3c8f
4 changed files with 521 additions and 0 deletions

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.mcp.json Normal file
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{
"mcpServers": {
"lakehouse": {
"command": "bun",
"args": ["run", "/home/profit/lakehouse/mcp-server/index.ts"],
"env": {
"LAKEHOUSE_URL": "http://localhost:3100"
}
}
}
}

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/**
* Lakehouse MCP Server bridges local LLMs to the data substrate.
*
* Tools:
* - search_workers: hybrid SQL+vector (the core fix)
* - query_sql: analytical SQL on any dataset
* - match_contract: find workers for a job order
* - get_worker: single worker by ID
* - rag_question: full RAG pipeline
* - log_success: record what worked playbook DB
* - get_playbooks: retrieve past successes
* - swap_profile: hot-swap model + data context
* - vram_status: GPU introspection
*/
import { McpServer } from "@modelcontextprotocol/sdk/server/mcp.js";
import { StdioServerTransport } from "@modelcontextprotocol/sdk/server/stdio.js";
import { z } from "zod";
const BASE = process.env.LAKEHOUSE_URL || "http://localhost:3100";
async function api(method: string, path: string, body?: any) {
const resp = await fetch(`${BASE}${path}`, {
method,
headers: body ? { "Content-Type": "application/json" } : {},
body: body ? JSON.stringify(body) : undefined,
});
const text = await resp.text();
try { return JSON.parse(text); } catch { return { raw: text, status: resp.status }; }
}
const server = new McpServer({ name: "lakehouse", version: "1.0.0" });
server.tool(
"search_workers",
"Hybrid SQL+vector search. SQL ensures structural accuracy (role, state, reliability), vector ranks by semantic relevance. Every result is verified against the golden dataset.",
{
question: z.string().describe("Natural language question about workers"),
sql_filter: z.string().optional().describe("SQL WHERE clause, e.g. \"role = 'Forklift Operator' AND state = 'IL' AND reliability > 0.8\""),
dataset: z.string().default("ethereal_workers"),
id_column: z.string().default("worker_id"),
top_k: z.number().default(5),
},
async ({ question, sql_filter, dataset, id_column, top_k }) => {
const body: any = { question, index_name: "ethereal_workers_v1", filter_dataset: dataset, id_column, top_k, generate: true };
if (sql_filter) body.sql_filter = sql_filter;
const r = await api("POST", "/vectors/hybrid", body);
return { content: [{ type: "text" as const, text: JSON.stringify(r, null, 2) }] };
},
);
server.tool(
"query_sql",
"Run SQL against any lakehouse dataset. Tables: ethereal_workers (10K), candidates (100K), timesheets (1M), call_log (800K), email_log (500K), placements (50K), job_orders (15K), clients (2K).",
{ sql: z.string().describe("SQL query") },
async ({ sql }) => {
const r = await api("POST", "/query/sql", { sql });
if (r.error) return { content: [{ type: "text" as const, text: `SQL Error: ${r.error}` }] };
return { content: [{ type: "text" as const, text: `${r.row_count} rows:\n${JSON.stringify(r.rows?.slice(0, 20), null, 2)}` }] };
},
);
server.tool(
"match_contract",
"Find qualified workers for a staffing contract. SQL-verified matches ranked by semantic fit.",
{
role: z.string(), state: z.string(), city: z.string().optional(),
min_reliability: z.number().default(0.7),
required_certs: z.array(z.string()).default([]),
headcount: z.number().default(5),
},
async ({ role, state, city, min_reliability, required_certs, headcount }) => {
let filter = `role = '${role}' AND state = '${state}' AND reliability >= ${min_reliability}`;
if (city) filter += ` AND city = '${city}'`;
const r = await api("POST", "/vectors/hybrid", {
question: `Find the best ${role} workers with relevant skills and certifications`,
index_name: "ethereal_workers_v1", sql_filter: filter,
filter_dataset: "ethereal_workers", id_column: "worker_id",
top_k: headcount * 2, generate: false,
});
let matches = r.sources || [];
if (required_certs.length > 0) {
const req = new Set(required_certs.map((c: string) => c.toLowerCase()));
matches = matches.filter((m: any) => {
const certs = (m.chunk_text || "").toLowerCase();
return [...req].every(c => certs.includes(c));
});
}
return { content: [{ type: "text" as const, text: JSON.stringify({
contract: { role, state, city, min_reliability, required_certs },
matches: matches.slice(0, headcount), total_sql: r.sql_matches, method: r.method,
}, null, 2) }] };
},
);
server.tool(
"get_worker",
"Fetch one worker profile by ID — all fields including scores and comms.",
{ worker_id: z.number() },
async ({ worker_id }) => {
const r = await api("POST", "/query/sql", { sql: `SELECT * FROM ethereal_workers WHERE worker_id = ${worker_id}` });
if (!r.rows?.length) return { content: [{ type: "text" as const, text: `Worker ${worker_id} not found` }] };
return { content: [{ type: "text" as const, text: JSON.stringify(r.rows[0], null, 2) }] };
},
);
server.tool(
"rag_question",
"Natural language question answered via RAG (embed → search → retrieve → generate). For open-ended questions where SQL alone isn't enough.",
{ question: z.string(), index: z.string().default("ethereal_workers_v1"), top_k: z.number().default(5) },
async ({ question, index, top_k }) => {
const r = await api("POST", "/vectors/rag", { index_name: index, question, top_k });
return { content: [{ type: "text" as const, text: r.error ? `RAG Error: ${r.error}` : `Answer: ${r.answer}\n\nSources: ${r.sources?.length || 0}` }] };
},
);
server.tool(
"log_success",
"Record a successful operation to the playbook database. Small models query this later to learn what worked.",
{
operation: z.string().describe("What was done"),
approach: z.string().describe("How it was done"),
result: z.string().describe("Outcome"),
context: z.string().optional(),
},
async ({ operation, approach, result, context }) => {
const csv = `timestamp,operation,approach,result,context\n"${new Date().toISOString()}","${operation.replace(/"/g, '""')}","${approach.replace(/"/g, '""')}","${result.replace(/"/g, '""')}","${(context||"").replace(/"/g, '""')}"`;
const form = new FormData();
form.append("file", new Blob([csv], { type: "text/csv" }), "playbook.csv");
const resp = await fetch(`${BASE}/ingest/file?name=successful_playbooks`, { method: "POST", body: form });
return { content: [{ type: "text" as const, text: `Logged: ${await resp.text()}` }] };
},
);
server.tool(
"get_playbooks",
"Retrieve past successful operations. Small models use this to learn what approaches worked.",
{ keyword: z.string().optional(), limit: z.number().default(10) },
async ({ keyword, limit }) => {
let sql = `SELECT * FROM successful_playbooks ORDER BY timestamp DESC LIMIT ${limit}`;
if (keyword) sql = `SELECT * FROM successful_playbooks WHERE operation LIKE '%${keyword}%' OR approach LIKE '%${keyword}%' ORDER BY timestamp DESC LIMIT ${limit}`;
const r = await api("POST", "/query/sql", { sql });
if (r.error) return { content: [{ type: "text" as const, text: "No playbooks yet — log some successful operations first!" }] };
return { content: [{ type: "text" as const, text: JSON.stringify(r.rows, null, 2) }] };
},
);
server.tool(
"swap_profile",
"Hot-swap model profile. Changes Ollama model in VRAM + bound datasets. 'agent-parquet' = HNSW (fast), 'agent-lance' = IVF_PQ (scalable).",
{ profile_id: z.string() },
async ({ profile_id }) => {
const r = await api("POST", `/vectors/profile/${profile_id}/activate`);
return { content: [{ type: "text" as const, text: JSON.stringify({
profile: r.profile_id, model: r.ollama_name,
indexes: r.indexes_warmed?.length, vectors: r.total_vectors,
previous: r.previous_profile, duration: r.duration_secs,
}, null, 2) }] };
},
);
server.tool(
"vram_status",
"GPU VRAM usage + loaded Ollama models. Check before swapping profiles.",
{},
async () => {
const r = await api("GET", "/ai/vram");
return { content: [{ type: "text" as const, text: JSON.stringify(r, null, 2) }] };
},
);
// Resources
server.resource("lakehouse://datasets", "lakehouse://datasets", async (uri) => {
const r = await api("GET", "/catalog/datasets") as any[];
const text = r.map(d => `${d.name}: ${d.row_count || "?"} rows`).join("\n");
return { contents: [{ uri: uri.href, mimeType: "text/plain", text }] };
});
// Start
async function main() {
const transport = new StdioServerTransport();
await server.connect(transport);
console.error(`Lakehouse MCP server started → ${BASE}`);
console.error("Tools: search_workers, query_sql, match_contract, get_worker, rag_question, log_success, get_playbooks, swap_profile, vram_status");
}
main().catch(console.error);

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{
"name": "mcp-server",
"module": "index.ts",
"type": "module",
"private": true,
"devDependencies": {
"@types/bun": "latest"
},
"peerDependencies": {
"typescript": "^5"
},
"dependencies": {
"@modelcontextprotocol/sdk": "^1.29.0"
}
}

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#!/usr/bin/env python3
"""Generate realistic staffing worker profiles at scale.
Usage:
python3 generate_workers.py 100000 > /tmp/workers_100k.csv
curl -X POST "http://localhost:3100/ingest/file?name=workers_100k" \
-F "file=@/tmp/workers_100k.csv"
Design: combinatorial generation with industry-realistic distributions.
No LLM dependency runs in seconds. Each worker has:
- Unique name, email, phone
- Role drawn from weighted staffing-industry distribution
- City/state from real Midwest/South geography (staffing agency footprint)
- Skills per role (realistic combos, not random)
- Certifications with expiry dates
- Behavioral archetype + numeric scores
- SMS communication history (templated from real patterns)
- Resume summary text (for embedding)
The generated data is designed to stress-test:
- SQL filters (WHERE role=X AND state=Y AND reliability>Z)
- Vector search (resume_text embeddings)
- Hybrid SQL+vector (structured + semantic together)
- Profile-scoped search (bound_datasets filtering)
- Concurrent query load at scale
"""
import csv, random, sys, hashlib
from datetime import datetime, timedelta
# ─── Configuration ───
N = int(sys.argv[1]) if len(sys.argv) > 1 else 100000
SEED = 2026
random.seed(SEED)
# ─── Realistic data pools ───
FIRST_NAMES = [
"James", "Mary", "Robert", "Patricia", "John", "Jennifer", "Michael", "Linda",
"David", "Elizabeth", "William", "Barbara", "Richard", "Susan", "Joseph", "Jessica",
"Thomas", "Sarah", "Christopher", "Karen", "Charles", "Lisa", "Daniel", "Nancy",
"Matthew", "Betty", "Anthony", "Margaret", "Mark", "Sandra", "Donald", "Ashley",
"Steven", "Kimberly", "Paul", "Emily", "Andrew", "Donna", "Joshua", "Michelle",
"Kenneth", "Carol", "Kevin", "Amanda", "Brian", "Dorothy", "George", "Melissa",
"Timothy", "Deborah", "Ronald", "Stephanie", "Edward", "Rebecca", "Jason", "Sharon",
"Jeffrey", "Laura", "Ryan", "Cynthia", "Jacob", "Kathleen", "Gary", "Amy",
"Nicholas", "Angela", "Eric", "Shirley", "Jonathan", "Anna", "Stephen", "Brenda",
"Larry", "Pamela", "Justin", "Emma", "Scott", "Nicole", "Brandon", "Helen",
"Benjamin", "Samantha", "Samuel", "Katherine", "Raymond", "Christine", "Gregory", "Debra",
"Frank", "Rachel", "Alexander", "Carolyn", "Patrick", "Janet", "Jack", "Catherine",
"Dennis", "Maria", "Jerry", "Heather", "Tyler", "Diane", "Aaron", "Ruth",
"Jose", "Julie", "Adam", "Olivia", "Nathan", "Joyce", "Henry", "Virginia",
"Douglas", "Victoria", "Zachary", "Kelly", "Peter", "Lauren", "Kyle", "Christina",
"Jamal", "Terrence", "Marcus", "DeShawn", "Malik", "Andre", "Carlos", "Miguel",
"Luis", "Sofia", "Rosa", "Carmen", "Alejandro", "Roberto", "Priya", "Aisha",
"Wei", "Yuki", "Omar", "Fatima", "Raj", "Mei", "Olga", "Ivan",
]
LAST_NAMES = [
"Smith", "Johnson", "Williams", "Brown", "Jones", "Garcia", "Miller", "Davis",
"Rodriguez", "Martinez", "Hernandez", "Lopez", "Gonzalez", "Wilson", "Anderson",
"Thomas", "Taylor", "Moore", "Jackson", "Martin", "Lee", "Perez", "Thompson",
"White", "Harris", "Sanchez", "Clark", "Ramirez", "Lewis", "Robinson", "Walker",
"Young", "Allen", "King", "Wright", "Scott", "Torres", "Nguyen", "Hill",
"Flores", "Green", "Adams", "Nelson", "Baker", "Hall", "Rivera", "Campbell",
"Mitchell", "Carter", "Roberts", "Gomez", "Phillips", "Evans", "Turner", "Diaz",
"Parker", "Cruz", "Edwards", "Collins", "Reyes", "Stewart", "Morris", "Morales",
"Murphy", "Cook", "Rogers", "Gutierrez", "Ortiz", "Morgan", "Cooper", "Peterson",
"Bailey", "Reed", "Kelly", "Howard", "Ramos", "Kim", "Cox", "Ward",
"Richardson", "Watson", "Brooks", "Chavez", "Wood", "James", "Bennett", "Gray",
"Mendoza", "Ruiz", "Hughes", "Price", "Alvarez", "Castillo", "Sanders", "Patel",
"Myers", "Long", "Ross", "Foster", "Jimenez", "Powell", "Jenkins", "Perry",
]
# Real Midwest/South cities — staffing agency footprint
CITIES = [
("Chicago", "IL", "606"), ("Springfield", "IL", "627"), ("Rockford", "IL", "611"),
("Peoria", "IL", "616"), ("Champaign", "IL", "618"), ("Decatur", "IL", "625"),
("Bloomington", "IL", "617"), ("Joliet", "IL", "604"), ("Mattoon", "IL", "619"),
("Danville", "IL", "618"), ("Quincy", "IL", "623"), ("Galesburg", "IL", "614"),
("Indianapolis", "IN", "462"), ("Fort Wayne", "IN", "468"), ("Evansville", "IN", "477"),
("South Bend", "IN", "466"), ("Terre Haute", "IN", "478"), ("Bloomington", "IN", "474"),
("Columbus", "OH", "432"), ("Cleveland", "OH", "441"), ("Cincinnati", "OH", "452"),
("Dayton", "OH", "454"), ("Toledo", "OH", "436"), ("Akron", "OH", "443"),
("St. Louis", "MO", "631"), ("Kansas City", "MO", "641"), ("Springfield", "MO", "658"),
("Columbia", "MO", "652"), ("Jefferson City", "MO", "651"),
("Nashville", "TN", "372"), ("Memphis", "TN", "381"), ("Knoxville", "TN", "379"),
("Louisville", "KY", "402"), ("Lexington", "KY", "405"),
("Milwaukee", "WI", "532"), ("Madison", "WI", "537"), ("Green Bay", "WI", "543"),
("Detroit", "MI", "481"), ("Grand Rapids", "MI", "495"), ("Lansing", "MI", "489"),
("Des Moines", "IA", "503"), ("Cedar Rapids", "IA", "524"),
("Minneapolis", "MN", "554"), ("St. Paul", "MN", "551"),
]
# Roles with industry-realistic weights
ROLES = [
("Forklift Operator", 12), ("Material Handler", 11), ("Machine Operator", 10),
("Assembler", 9), ("Production Worker", 9), ("Warehouse Associate", 8),
("Quality Tech", 7), ("Shipping Clerk", 6), ("Loader", 6),
("Inventory Clerk", 5), ("Line Lead", 4), ("Maintenance Tech", 4),
("Welder", 3), ("CNC Operator", 3), ("Sanitation Worker", 3),
("Packaging Operator", 3), ("Electrician", 2), ("Tool & Die Maker", 2),
("Safety Coordinator", 1), ("Logistics Coordinator", 1),
]
ROLE_NAMES = [r for r, _ in ROLES]
ROLE_WEIGHTS = [w for _, w in ROLES]
# Skills per role family (realistic combos)
SKILL_POOLS = {
"warehouse": ["forklift", "pallet jack", "RF scanner", "inventory", "shipping",
"receiving", "pick-to-light", "packaging", "cold storage", "loading dock"],
"production": ["assembly", "line work", "quality inspection", "lean manufacturing",
"6S", "SPC", "conveyor ops", "batch processing", "labeling"],
"machine": ["CNC", "lathe", "mill", "grinder", "press brake", "EDM",
"blueprint reading", "GD&T", "micrometer", "calipers"],
"maintenance": ["preventive maintenance", "troubleshooting", "PLC", "electrical",
"hydraulics", "pneumatics", "welding", "lockout/tagout", "CMMS"],
"quality": ["inspection", "CMM", "SPC", "gauge R&R", "ISO 9001", "root cause analysis",
"first article", "nonconformance", "calibration"],
"general": ["Excel", "SAP", "first aid", "hazmat", "confined space",
"overhead crane", "team lead", "training", "bilingual"],
}
ROLE_SKILL_MAP = {
"Forklift Operator": ["warehouse", "general"],
"Material Handler": ["warehouse", "general"],
"Machine Operator": ["machine", "production"],
"Assembler": ["production", "quality"],
"Production Worker": ["production", "general"],
"Warehouse Associate": ["warehouse", "general"],
"Quality Tech": ["quality", "production"],
"Shipping Clerk": ["warehouse", "general"],
"Loader": ["warehouse", "general"],
"Inventory Clerk": ["warehouse", "general"],
"Line Lead": ["production", "general"],
"Maintenance Tech": ["maintenance", "general"],
"Welder": ["maintenance", "machine"],
"CNC Operator": ["machine", "quality"],
"Sanitation Worker": ["general"],
"Packaging Operator": ["production", "warehouse"],
"Electrician": ["maintenance"],
"Tool & Die Maker": ["machine", "maintenance"],
"Safety Coordinator": ["quality", "general"],
"Logistics Coordinator": ["warehouse", "general"],
}
CERTS = [
("OSHA-10", 0.35), ("OSHA-30", 0.15), ("Forklift", 0.30), ("Hazmat", 0.12),
("First Aid/CPR", 0.25), ("Reach Truck", 0.10), ("Order Picker", 0.08),
("ServSafe", 0.05), ("MSDS", 0.07), ("Confined Space", 0.06),
("Lockout/Tagout", 0.08), ("Fire Safety", 0.04), ("ISO 9001", 0.03),
]
ARCHETYPES = [
("reliable", 25), ("communicator", 25), ("flexible", 20),
("leader", 15), ("specialist", 10), ("improving", 3),
("erratic", 1), ("silent", 1),
]
ARCHETYPE_NAMES = [a for a, _ in ARCHETYPES]
ARCHETYPE_WEIGHTS = [w for _, w in ARCHETYPES]
SMS_TEMPLATES = [
"On my way, running about {min} minutes late.",
"Got it, I'll be there at {time}.",
"Can I switch to the {shift} shift this week?",
"Thanks for the update!",
"Is overtime available this Saturday?",
"I need to call in tomorrow, family emergency.",
"Stuck in traffic on I-{highway}, might be {min} late.",
"Hey, just confirming my start time is {time}?",
"I finished the {task} ahead of schedule.",
"Can you send me the address for the new site?",
"Do I need steel toes for this assignment?",
"What's the dress code at {client}?",
"My certification expires next month, where do I renew?",
"I'm available for any extra shifts this week.",
"Is there parking on site or do I need to take the bus?",
"The supervisor said I did great today!",
"I have a doctor's appointment {day}, can I come in late?",
"Weather looks bad tomorrow, is the site still open?",
"I completed the safety orientation.",
"Thanks for getting me this placement, really appreciate it.",
]
CLIENTS = [
"Midwest Logistics", "Precision Mfg", "AutoParts Direct", "CleanSpace",
"Summit Packaging", "Great Lakes Steel", "Heartland Foods", "Prairie Wind Energy",
"River City Plastics", "Cardinal Health", "TechFlow Assembly", "Union Pacific",
]
# ─── Generator ───
def gen_skills(role):
pools = ROLE_SKILL_MAP.get(role, ["general"])
skills = set()
for pool in pools:
available = SKILL_POOLS.get(pool, [])
n = random.randint(2, min(5, len(available)))
skills.update(random.sample(available, n))
return sorted(skills)
def gen_certs():
certs = []
for name, prob in CERTS:
if random.random() < prob:
expires = datetime(2026, 1, 1) + timedelta(days=random.randint(30, 730))
certs.append(f"{name}")
return certs
def gen_scores(archetype):
base = {
"reliable": (0.85, 0.05), "communicator": (0.70, 0.10),
"flexible": (0.75, 0.08), "leader": (0.80, 0.07),
"specialist": (0.78, 0.06), "improving": (0.60, 0.15),
"erratic": (0.40, 0.20), "silent": (0.65, 0.12),
}
mean, std = base.get(archetype, (0.70, 0.10))
return {
"reliability": max(0, min(1, random.gauss(mean, std))),
"responsiveness": max(0, min(1, random.gauss(mean - 0.05, std + 0.05))),
"engagement": max(0, min(1, random.gauss(mean - 0.03, std))),
"compliance": max(0, min(1, random.gauss(mean + 0.02, std - 0.02))),
"availability": max(0, min(1, random.gauss(0.75, 0.15))),
}
def gen_comms(archetype, n=5):
if archetype == "silent":
n = random.randint(0, 1)
elif archetype == "communicator":
n = random.randint(5, 10)
msgs = []
for _ in range(n):
tmpl = random.choice(SMS_TEMPLATES)
msg = tmpl.format(
min=random.randint(5, 25),
time=f"{random.randint(5,8)}:{random.choice(['00','15','30','45'])} AM",
shift=random.choice(["morning", "evening", "night"]),
highway=random.randint(55, 94),
task=random.choice(["pallet count", "safety check", "machine setup", "inventory audit"]),
client=random.choice(CLIENTS),
day=random.choice(["Monday", "Tuesday", "Wednesday", "Thursday", "Friday"]),
)
msgs.append(msg)
return " | ".join(msgs)
def gen_email(first, last, wid):
domain = random.choice(["gmail.com", "yahoo.com", "outlook.com", "protonmail.com", "mail.com"])
tag = random.choice(["", str(random.randint(1,99)), str(wid)])
return f"{first.lower()}.{last.lower()}{tag}@{domain}"
def gen_phone():
area = random.choice([312,773,217,309,618,219,317,812,614,513,216,314,615,502,414,608,313,515,612])
return f"+1{area}{random.randint(2000000,9999999)}"
# ─── Main ───
writer = csv.writer(sys.stdout)
writer.writerow([
"worker_id", "name", "role", "email", "phone", "city", "state", "zip",
"skills", "certifications", "archetype",
"reliability", "responsiveness", "engagement", "compliance", "availability",
"communications", "resume_text",
])
for i in range(1, N + 1):
first = random.choice(FIRST_NAMES)
last = random.choice(LAST_NAMES)
# At scale, names repeat — that's realistic. Worker ID is the unique key.
# Add middle initial for variety above 15K workers.
if i > 15000:
mid = chr(65 + (i % 26)) # A-Z
name = f"{first} {mid}. {last}"
else:
name = f"{first} {last}"
role = random.choices(ROLE_NAMES, weights=ROLE_WEIGHTS, k=1)[0]
city, state, zip_pre = random.choice(CITIES)
zipcode = f"{zip_pre}{random.randint(10,99)}"
skills = gen_skills(role)
certs = gen_certs()
archetype = random.choices(ARCHETYPE_NAMES, weights=ARCHETYPE_WEIGHTS, k=1)[0]
scores = gen_scores(archetype)
comms = gen_comms(archetype)
resume = (
f"{name}{role} in {city}, {state}. "
f"Skills: {'|'.join(skills)}. "
f"Certs: {'|'.join(certs) if certs else 'none'}. "
f"Archetype: {archetype}. "
f"Reliability: {scores['reliability']:.2f}, "
f"Availability: {scores['availability']:.2f}"
)
writer.writerow([
i, name, role, gen_email(first, last, i), gen_phone(),
city, state, zipcode,
", ".join(skills), ", ".join(certs), archetype,
f"{scores['reliability']:.4f}", f"{scores['responsiveness']:.4f}",
f"{scores['engagement']:.4f}", f"{scores['compliance']:.4f}",
f"{scores['availability']:.4f}",
comms, resume,
])
if i % 25000 == 0:
print(f" generated {i:,}/{N:,}...", file=sys.stderr)
print(f"Done: {N:,} workers", file=sys.stderr)