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implement-pharma-serialisation

pjt222
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이 Claude Skill은 개발자가 EU FMD 및 미국 DSCSA와 같은 글로벌 규정을 준수하는 제약 직렬화 시스템을 구현하는 데 도움을 줍니다. 고유 식별자 생성, 집계 계층 구조 관리, EPCIS 데이터 교환 처리와 같은 주요 작업을 다룹니다. 직렬화 제품 출시 시, EMVS/NMVS와 같은 검증 시스템과 통합할 때, 또는 새로운 시장으로 추적 및 추적 기능을 확장할 때 활용하세요.

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npx skills add pjt222/agent-almanac -a claude-code
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/plugin add https://github.com/pjt222/agent-almanac
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git clone https://github.com/pjt222/agent-almanac.git ~/.claude/skills/implement-pharma-serialisation

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문서

Implement Pharmaceutical Serialisation

Pharma serialisation for global track-and-trace compliance.

Use When

  • New product launch EU / US market
  • EMVS/NMVS integration
  • DSCSA-compliant transaction exchange
  • EPCIS event repo for supply chain visibility
  • Extend to additional markets (China NMPA, Brazil ANVISA)

In

  • Required: product info (GTIN, code, dosage form, pack sizes)
  • Required: target market regs (EU FMD, DSCSA, or both)
  • Required: pack hierarchy (unit, bundle, case, pallet)
  • Optional: existing ERP/MES details
  • Optional: CMO serialisation capabilities
  • Optional: verification endpoint specs

Do

Step 1: Regulatory landscape

RegulationRegionKey RequirementsDeadline
EU FMD (2011/62/EU)EU/EEAUnique identifier + tamper-evident feature on each unitLive since Feb 2019
DSCSAUSAElectronic, interoperable tracing at package levelFull enforcement Nov 2024+
China NMPAChinaUnique drug traceability code per minimum saleable unitRolling
Brazil ANVISA (SNCM)BrazilSerialisation of pharmaceuticals with IUMRolling
Russia MDLPRussiaCrypto-code per unit, mandatory scanningLive

Data per reg:

EU FMD unique ID (Delegated Regulation 2016/161):

  • Product code (GTIN-14 from GS1)
  • Serial (up to 20 alphanum, randomised)
  • Batch/lot
  • Expiry date

DSCSA transaction info:

  • Product ID (NDC/GTIN, serial, lot, expiry)
  • Transaction info (date, entities, shipment)
  • History + statement
  • Verification at pkg level

→ Clear understanding of regs per product-market combo.

If err: engage regulatory affairs to confirm before proceeding.

Step 2: Serialisation data model

-- Core serialisation data model
CREATE TABLE serial_numbers (
    id BIGSERIAL PRIMARY KEY,
    gtin VARCHAR(14) NOT NULL,          -- GS1 GTIN-14
    serial_number VARCHAR(20) NOT NULL,  -- Unique per GTIN
    batch_lot VARCHAR(20) NOT NULL,
    expiry_date DATE NOT NULL,
    status VARCHAR(20) DEFAULT 'ACTIVE', -- ACTIVE, DECOMMISSIONED, DISPENSED, etc.
    created_at TIMESTAMPTZ DEFAULT NOW(),
    UNIQUE(gtin, serial_number)
);

-- Aggregation hierarchy
CREATE TABLE aggregation (
    id BIGSERIAL PRIMARY KEY,
    parent_code VARCHAR(50) NOT NULL,     -- SSCC or higher-level code
    parent_level VARCHAR(10) NOT NULL,    -- CASE, PALLET, BUNDLE
    child_code VARCHAR(50) NOT NULL,      -- GTIN+serial or child SSCC
    child_level VARCHAR(10) NOT NULL,     -- UNIT, BUNDLE, CASE
    aggregation_event_id UUID NOT NULL,
    created_at TIMESTAMPTZ DEFAULT NOW()
);

-- EPCIS events
CREATE TABLE epcis_events (
    id UUID PRIMARY KEY DEFAULT gen_random_uuid(),
    event_type VARCHAR(30) NOT NULL,      -- ObjectEvent, AggregationEvent, TransactionEvent
    action VARCHAR(10) NOT NULL,          -- ADD, OBSERVE, DELETE
    biz_step VARCHAR(100),               -- urn:epcglobal:cbv:bizstep:commissioning
    disposition VARCHAR(100),             -- urn:epcglobal:cbv:disp:active
    read_point VARCHAR(100),             -- urn:epc:id:sgln:location
    event_time TIMESTAMPTZ NOT NULL,
    event_timezone VARCHAR(6) NOT NULL,
    payload JSONB NOT NULL,
    created_at TIMESTAMPTZ DEFAULT NOW()
);

Hierarchy:

Pallet (SSCC)
  └── Case (SSCC)
       └── Bundle (GTIN + serial) [optional level]
            └── Unit (GTIN + serial)

→ Model supports full pack hierarchy + EPCIS tracking.

If err: ERP schema conflicts → integration layer, don't modify ERP directly.

Step 3: Serial number generation

import secrets
import string

def generate_serial_number(length: int = 20, charset: str = None) -> str:
    """Generate a random serial number compliant with GS1 standards.

    EU FMD requires randomised serial numbers to prevent prediction.
    Max 20 characters, alphanumeric (GS1 Application Identifier 21).
    """
    if charset is None:
        # GS1 AI(21) allows: digits, uppercase, lowercase, and some special chars
        # Most implementations use alphanumeric only for interoperability
        charset = string.ascii_uppercase + string.digits
    return ''.join(secrets.choice(charset) for _ in range(length))


def generate_serial_batch(gtin: str, batch_lot: str, expiry: str, count: int) -> list:
    """Generate a batch of unique serial numbers for a production run."""
    serials = set()
    while len(serials) < count:
        serials.add(generate_serial_number())
    return [
        {
            "gtin": gtin,
            "serial_number": sn,
            "batch_lot": batch_lot,
            "expiry_date": expiry,
            "status": "COMMISSIONED"
        }
        for sn in serials
    ]

→ Serials cryptographically random, unique per GTIN, stored before print.

If err: collision → regenerate conflicting + log.

Step 4: GS1 DataMatrix encoding

2D DataMatrix encodes GS1 element string:

(01)GTIN(21)Serial(10)Batch(17)Expiry

Example:

(01)05012345678901(21)A1B2C3D4E5(10)LOT123(17)261231

Where:

  • AI(01) = GTIN-14
  • AI(21) = Serial
  • AI(10) = Batch/lot
  • AI(17) = Expiry (YYMMDD)

GS1 DataMatrix uses FNC1 separator (GS char, ASCII 29) between variable-length fields.

def encode_gs1_element_string(gtin: str, serial: str, batch: str, expiry: str) -> str:
    """Encode GS1 element string for DataMatrix printing.

    FNC1 (GS character \\x1d) separates variable-length fields.
    AI(01) and AI(17) are fixed length, so no separator needed after them.
    AI(21) and AI(10) are variable length and need FNC1 terminator.
    """
    GS = '\x1d'  # GS1 FNC1 / Group Separator
    return f"01{gtin}21{serial}{GS}10{batch}{GS}17{expiry}"

→ Encoded strings verified by scanning test prints (GS1-certified verifier ISO 15415 grade C+).

If err: scan fail → check print quality, quiet zones, encoding order.

Step 5: Integrate national verification systems

EU FMD — EMVS/NMVS

MAH → Upload serial data → EU Hub → Distribute to National Systems (NMVS)
                                      ├── Germany (securPharm)
                                      ├── France (CTS)
                                      ├── Italy (AIFA)
                                      └── ... 31 markets

API ops:

  1. Upload (MAH → EU Hub): batch commissioned serials
  2. Verify (Pharmacy → NMVS): check status before dispense
  3. Decommission (Pharmacy → NMVS): mark dispensed at POS
  4. Reactivate (MAH → NMVS): reverse accidental decommission

DSCSA — Verification Router Service

Trading Partner A → VRS Request → Verification Router → MAH's VRS → Response

Impl VRS responder endpoint:

# Simplified VRS endpoint (DSCSA verification)
from fastapi import FastAPI, HTTPException

app = FastAPI()

@app.get("/verify/{gtin}/{serial}/{lot}/{expiry}")
async def verify_product(gtin: str, serial: str, lot: str, expiry: str):
    """DSCSA product verification endpoint."""
    record = await lookup_serial(gtin, serial)
    if record is None:
        return {"verified": False, "reason": "SERIAL_NOT_FOUND"}
    if record.batch_lot != lot or str(record.expiry_date) != expiry:
        return {"verified": False, "reason": "DATA_MISMATCH"}
    if record.status != "ACTIVE":
        return {"verified": False, "reason": f"STATUS_{record.status}"}
    return {"verified": True, "status": record.status}

→ Endpoints respond <1 sec w/ correct status.

If err: national upload fail → retry exponential backoff + alert ops.

Step 6: EPCIS event capture

EPCIS 2.0:

{
  "@context": "https://ref.gs1.org/standards/epcis/2.0.0/epcis-context.jsonld",
  "type": "ObjectEvent",
  "eventTime": "2025-03-15T10:30:00.000+01:00",
  "eventTimeZoneOffset": "+01:00",
  "epcList": ["urn:epc:id:sgtin:5012345.067890.A1B2C3D4E5"],
  "action": "ADD",
  "bizStep": "urn:epcglobal:cbv:bizstep:commissioning",
  "disposition": "urn:epcglobal:cbv:disp:active",
  "readPoint": {"id": "urn:epc:id:sgln:5012345.00001.0"},
  "bizLocation": {"id": "urn:epc:id:sgln:5012345.00001.0"}
}

Key biz steps:

  • commissioning — serial assigned to physical unit
  • packing — aggregation into cases/pallets
  • shipping — departure from location
  • receiving — arrival at location
  • dispensing — supplied to patient (decommission trigger)

→ Every status change → EPCIS event w/ correct timestamps + locations.

If err: failed event capture MUST queue + retry; never silently drop.

Check

  • Serials randomised + unique per GTIN
  • DataMatrix verified by scanner (ISO 15415 grade C+)
  • Aggregation links units → bundles → cases → pallets
  • National verification tested (upload, verify, decommission)
  • EPCIS events for all biz steps
  • Verification <1 sec
  • Exceptions covered (upload, scan, network)

Traps

  • Sequential serials: EU FMD requires randomisation. Never sequential.
  • Aggregation errors: disaggregation (case break) must update hierarchy. Wrong child assoc → downstream verification fails.
  • TZ handling: EPCIS must include TZ offset. Local time w/o offset → event ordering ambiguity across sites.
  • Late uploads: must upload to national systems BEFORE product enters supply chain. Late → flagged suspicious at pharmacy.
  • Ignore exceptions: legitimate products flagged (false alerts) regularly. Need process for investigating + resolving.

  • perform-csv-assessment — validate as computerised system
  • conduct-gxp-audit — audit serialisation
  • implement-audit-trail — audit for serialisation events
  • serialize-data-formats — general data serialisation (complementary)
  • design-serialization-schema — schema design for data exchange

GitHub 저장소

pjt222/agent-almanac
경로: i18n/caveman-ultra/skills/implement-pharma-serialisation
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