Circuit Wizard 1.15 Release Code Generator
This article covers the software’s purpose, the controversy surrounding key generators (keygens), legal alternatives, and safety warnings for electronic engineering students and hobbyists.
What Is It?
The Release Code Generator is not a separate piece of software you download. Instead, it refers to a cryptographic algorithm embedded within Circuit Wizard 1.15’s licensing system. When you first install the software, or when you attempt to activate it, the program generates a unique Machine ID based on your computer’s hardware configuration (hard drive serial number, MAC address, etc.). Circuit Wizard 1.15 Release Code Generator
You then input that Machine ID into a Release Code Generator—a tool provided by New Wave Concepts to authorized resellers and educational institutions. The generator outputs a Release Code. Entering that Release Code into Circuit Wizard unlocks the full version. What Is It
The Best Alternatives to Circuit Wizard 1.15
Instead of chasing a risky keygen, consider these free, legal, and superior options for circuit design and simulation: The Truth About Circuit Wizard 1
| Software | Price | Simulation | PCB Design | PIC/Arduino Support | Learning Curve | |----------|-------|------------|------------|----------------------|----------------| | LTspice | Free | Excellent (analog) | No | No | Moderate | | Falstad’s Circuit Simulator | Free (browser) | Good (educational) | No | No | Low | | KiCad 7+ | Free | No (but integrates SPICE) | Professional-grade | No | Steep | | Proteus 8 (Student) | Paid / Free trial | Great | Yes | Yes (PIC, Arduino) | Moderate | | Tinkercad Circuits | Free (browser) | Good for beginners | No | Yes (Arduino simulation) | Very Low | | EveryCircuit | Free tier / Paid | Interactive, beautiful | No | No | Low |
Python implementation (complete)
#!/usr/bin/env python3
"""
Circuit Wizard 1.15 Release Code Generator
Produces a compact, verifiable release code plus JSON metadata.
Usage (CLI):
python release_code.py --version 1.15.0 --platform NL --type RL --id auto
python release_code.py --version 1.15.0 --platform NW --type BT --id ci-12345 --sign
Library usage:
from release_code import make_release_code, verify_release_code
code, meta = make_release_code("1.15.0", "NL", "RL", build_id="ci-12345", sign_key=b"...")
"""
import argparse
import base64
import hashlib
import hmac
import json
import os
import secrets
from datetime import datetime, timezone
from typing import Optional, Tuple, Dict
# Configuration
PLATFORM_ALLOWED = "NW", "NL", "NM"
TYPE_ALLOWED = "RL", "BT", "RC"
SIGNATURE_LENGTH = 6 # base32 chars
UNIQUE_BYTES = 5
VERSION_BYTES = 3
TIME_BYTES = 4 # enough for MMDDHHMM packed
BASE32_ALPHABET = "ABCDEFGHIJKLMNOPQRSTUVWXYZ234567"
def _to_base32_no_pad(b: bytes) -> str:
return base64.b32encode(b).decode('ascii').rstrip('=')
def _from_base32_no_pad(s: str) -> bytes:
# add padding
pad_len = (-len(s)) % 8
return base64.b32decode(s + ("=" * pad_len))
def _pack_version(version: str) -> bytes:
# pack major.minor.patch into 3 bytes: major(10 bits), minor(10 bits), patch(12 bits)
parts = (version.split(".") + ["0","0"])[:3]
major, minor, patch = map(int, parts)
if major >= (1 << 10) or minor >= (1 << 10) or patch >= (1 << 12):
raise ValueError("Version parts too large for encoding")
v = (major << (10+12)) | (minor << 12) | patch
return v.to_bytes(VERSION_BYTES, 'big')
def _pack_time(dt: datetime) -> bytes:
# Encode month(4 bits), day(5 bits), hour(5 bits), minute(6 bits) => total 20 bits -> use 3 bytes
month = dt.month
day = dt.day
hour = dt.hour
minute = dt.minute
packed = (month << (5+5+6)) | (day << (5+6)) | (hour << 6) | minute
return packed.to_bytes(3, 'big')
def _make_unique(bytes_len: int = UNIQUE_BYTES) -> bytes:
return secrets.token_bytes(bytes_len)
def _signature(key: bytes, payload: bytes, length: int = SIGNATURE_LENGTH) -> str:
mac = hmac.new(key, payload, hashlib.sha256).digest()
return _to_base32_no_pad(mac)[:length]
def make_release_code(version: str,
platform: str,
build_type: str,
build_id: Optional[str] = None,
sign_key: Optional[bytes] = None,
timestamp: Optional[datetime] = None) -> Tuple[str, Dict]:
if platform not in PLATFORM_ALLOWED:
raise ValueError(f"Platform must be one of PLATFORM_ALLOWED")
if build_type not in TYPE_ALLOWED:
raise ValueError(f"Build type must be one of TYPE_ALLOWED")
dt = (timestamp or datetime.now(timezone.utc)).astimezone(timezone.utc)
ver_b = _pack_version(version)
time_b = _pack_time(dt)
if build_id is None or build_id == "auto":
uniq_b = _make_unique()
build_id_str = _to_base32_no_pad(uniq_b)[:8]
else:
# derive bytes from provided id by hashing
h = hashlib.sha256(build_id.encode('utf-8')).digest()[:UNIQUE_BYTES]
uniq_b = h
build_id_str = _to_base32_no_pad(uniq_b)[:8]
platform_code = platform # already 2 chars
type_code = build_type
payload = ver_b + time_b + uniq_b + platform_code.encode('ascii') + type_code.encode('ascii')
# base32 encode pieces for human compact code
ver_s = _to_base32_no_pad(ver_b)
time_s = _to_base32_no_pad(time_b)
uniq_s = _to_base32_no_pad(uniq_b)
# shorten to keep code concise
ver_s = ver_s[:5]
time_s = time_s[:5]
uniq_s = uniq_s[:7]
sig_s = ""
if sign_key:
sig_s = _signature(sign_key, payload, SIGNATURE_LENGTH)
groups = [ver_s, time_s, platform_code, type_code, uniq_s]
if sig_s:
groups.append(sig_s)
code = "-".join(groups)
meta =
"version": version,
"timestamp": dt.isoformat(),
"platform": platform_code,
"build_type": type_code,
"build_id": build_id if build_id and build_id != "auto" else build_id_str,
"code": code,
"signed": bool(sign_key),
"signature": sig_s or None
return code, meta
def verify_release_code(code: str, sign_key: Optional[bytes] = None) -> Dict:
parts = code.split("-")
if len(parts) < 5:
return "valid": False, "reason": "Malformed code"
ver_s, time_s, platform_code, type_code, uniq_s = parts[:5]
sig_s = parts[5] if len(parts) > 5 else None
try:
ver_b = _from_base32_no_pad(ver_s)
time_b = _from_base32_no_pad(time_s)
uniq_b = _from_base32_no_pad(uniq_s)
except Exception:
return "valid": False, "reason": "Base32 decode failed"
# Rebuild payload for signature verification if key provided
payload = ver_b + time_b + uniq_b + platform_code.encode('ascii') + type_code.encode('ascii')
if sign_key:
if not sig_s:
return "valid": False, "reason": "Missing signature"
expected = _signature(sign_key, payload, SIGNATURE_LENGTH)
if not hmac.compare_digest(expected, sig_s):
return "valid": False, "reason": "Signature mismatch"
result =
"valid": True,
"version_encoded": ver_s,
"time_encoded": time_s,
"platform": platform_code,
"build_type": type_code,
"unique": uniq_s,
"signed": bool(sig_s),
return result
def _cli():
p = argparse.ArgumentParser(description="Circuit Wizard 1.15 Release Code Generator")
p.add_argument("--version", required=True, help="Semantic version e.g. 1.15.0")
p.add_argument("--platform", required=True, choices=list(PLATFORM_ALLOWED))
p.add_argument("--type", required=True, choices=list(TYPE_ALLOWED))
p.add_argument("--id", default="auto", help="Build ID or 'auto'")
p.add_argument("--sign", action="store_true", help="Sign with key from CW_RELEASE_KEY env")
p.add_argument("--key", help="Use explicit key (hex) instead of env var")
args = p.parse_args()
key = None
if args.sign:
if args.key:
key = bytes.fromhex(args.key)
else:
env = os.environ.get("CW_RELEASE_KEY")
if not env:
raise SystemExit("CW_RELEASE_KEY not set and --key not provided")
key = bytes.fromhex(env)
code, meta = make_release_code(args.version, args.platform, args.type, build_id=args.id, sign_key=key)
print(code)
print(json.dumps(meta, indent=2))
if __name__ == "__main__":
_cli()
The Truth About Circuit Wizard 1.15: Release Codes, Generators, and Legal Alternatives
Legitimate Ways to Obtain a Release Code for Circuit Wizard 1.15
Let’s be clear: This article does not endorse or provide cracked software, illegal keygens, or piracy. Instead, here are legitimate avenues to get a working release code.
4. Upgrade to a Modern Alternative
Sometimes the most practical solution is not to fight old DRM. Consider upgrading to Circuit Wizard Professional (the modern successor) or switching to free/open-source alternatives like KiCad or Fritzing. While this doesn’t generate a release code for 1.15, it solves the underlying need for functional circuit design software.
Verification
- Use verify_release_code(code, sign_key=bytes.fromhex(...)) to check authenticity.
- Keep signature length short for human use; increase if stronger guarantees needed.
