Packaging Standards Explained for Security & Anti-Counterfeit Labels

How Security Label Standards Map to Label Function — Not Just Market #

The most common brief gap we receive is a list of markets without a list of functions. A “security label for pharmaceutical packaging sold in Germany” sounds specific, but it tells us almost nothing about which standards govern the label construction. The applicable standards depend on what the label is supposed to do: prove origin, resist removal, carry a serialised code, or trigger a verification system.

Here is how the primary international and regional standards distribute across label functions:

The table above is not exhaustive, but it covers what appears in roughly 80% of the tender specifications we quote against. ISO/IEC 14298 is the one standard that consistently confuses buyers — it governs the security printing process (chain of custody, access controls, personnel vetting, ink and substrate traceability), not just the physical label output. Specifying it in a brief means you are requiring the printer to operate under an audited security management system. That is a supplier qualification requirement, not a print quality requirement. We are audited against ISO/IEC 14298 annually and hold current certification — but not every label converter does, and conflating it with ISO 12647 (which covers print colour accuracy) creates misaligned supplier evaluations.

Where Standard Misapplication Creates Failures in Production #

The most damaging confusion in security label briefs is between adhesive performance standards and substrate integrity standards. These govern different failure modes, and mixing them up produces samples that pass one test and fail the other.

ASTM D3330 measures peel adhesion force — how much force is needed to remove the label from the applied surface. For tamper-evident labels, buyers often specify a minimum peel value of 8 N/25mm or higher to ensure the label cannot be removed cleanly. What ASTM D3330 does not measure is what happens to the label face during removal: whether it destructs, voids, or transfers residue. That behaviour is governed by the substrate construction and adhesive system, which falls under our internal materials classification system (what our team calls the “S-Class tier” for destructible substrates). A label can pass ASTM D3330 at 10 N/25mm and still peel off in one piece without voiding — because the face material was not specified correctly.

The second failure scenario involves ISO 12647-2 misapplication on security print. ISO 12647-2 was written for commercial offset printing of packaging and publications. When buyers apply it to security labels with micro-text, guilloche patterns or covert UV-fluorescent features, the standard’s tolerance for dot gain (typically ±4% at 40% tone) is too loose for the fine-line elements that make covert features readable. We run tighter internal tolerances on security print jobs — ±0.15mm register for micro-text and ±2% dot gain for fine-line guilloche — because ISO 12647-2 alone does not protect these features. A label that passes ISO 12647-2 verification can still carry illegible micro-text if the tolerance bands were not tightened in the brief.

The third scenario is chemical migration under EU pharmaceutical tender requirements. EN 12873-1 specifies migration testing protocols for materials that contact or come adjacent to product packaging. Buyers frequently specify it for pharmaceutical label adhesives, then receive samples tested only under GB/T 32591 (the Chinese equivalent), which uses different extraction solvents and test durations. The two standards are not interchangeable: EN 12873-1 uses 10-day migration testing at 40°C for aqueous simulants, while GB/T 32591 allows shorter test windows in some categories. A supplier claiming GB/T 32591 compliance for an EU pharmaceutical tender is presenting non-equivalent data. We flag this in every EU pharma brief and specify which test we will run and which lab will issue the report.

Does Japan Require Different Standards Than the EU for Security Labels? #

Yes, meaningfully so. JIS Z 0237 governs adhesive label performance in Japan and differs from ASTM D3330 in test hold time before peel measurement: JIS specifies a 30-minute dwell versus ASTM’s 20-minute standard. This sounds minor, but for aggressive adhesives on low-energy surfaces (PE, PP), the peel force can drop by 15–25% between 20 and 30 minutes — enough to fail a JIS specification with a label that passed ASTM.

Japan also applies the Pharmaceutical and Medical Device Act (PMDA) requirements for drug packaging labels, which reference JIS T 7285 for RFID label functionality if serialisation features are included. EU equivalents route through the Falsified Medicines Directive (FMD, 2011/62/EU), which specifies 2D Data Matrix serialisation at specific module sizes rather than label construction directly. The FMD does not specify a substrate or adhesive standard — it specifies a verification outcome. Those are different things, and a brief that only cites FMD without specifying an adhesive or substrate standard will produce inconsistent samples across suppliers.

Specification Notes for Brand Partners #

When you brief us on a security or anti-counterfeit label project, the most useful information is not the destination market alone — it is the combination of application surface, product category, and verification method intended for the end user. These three inputs determine which standards stack applies.

We need to know the substrate the label will be applied to (glass, HDPE, PET, paperboard), the temperature conditions during and after application, and whether the label carries overt features only (holographic, colour-shift) or covert features requiring UV or IR readers.

The brief gap that causes the most sample iterations is adhesion surface energy combined with required tamper evidence behaviour. If you specify a void message requirement without telling us whether the application surface is treated or untreated PE, we will default to our standard S-Class destructible adhesive system — which may over-adhere on treated PE and leave clean removal on untreated surfaces. Providing a physical sample of the application surface at brief stage eliminates one full sample round.

Our standard sampling timeline for security labels with overt holographic features is 18–22 working days from approved dieline and confirmed specifications. Adding covert UV features or serialisation extends this to 25–30 working days due to film origination and print plate lead time.

Frequently Asked Questions #

Which single standard should I cite in a tender brief for security labels?
There is no single standard that covers all security label requirements — you need to stack them by function: ISO/IEC 14298 for production chain security, ASTM D3330 or JIS Z 0237 for adhesive performance depending on market, and the relevant chemical migration standard (EN 12873-1 for EU, GB/T 32591 for China) if the label contacts or sits adjacent to food or pharmaceutical product.

Is ISO 12647-2 sufficient to specify print quality on a holographic security label?
For surface colour and general print accuracy, ISO 12647-2 provides a usable baseline. It is not sufficient if your label includes micro-text below 0.5mm height, guilloche patterns, or fine-line covert features — those require tighter tolerances than the standard specifies, and those tighter tolerances need to be written explicitly into the purchase order or sample approval criteria.

What is the difference between GB/T 17001 and ISO/IEC 14298?
GB/T 17001-2019 is China’s national standard for anti-counterfeit technical product requirements — it specifies what security features a label must incorporate and how they must perform in verification. ISO/IEC 14298 governs how a security printer must manage its production environment, personnel, and material traceability. One is a product specification, the other is a process management standard. Both can appear in the same tender, and they address different obligations.

Does REACH compliance cover all chemical risks in a security label adhesive?
REACH Regulation (EC) No 1907/2006 covers substances of very high concern (SVHCs) in the adhesive and ink formulations, but it does not address migration rates into adjacent food or pharmaceutical product — that is EN 12873-1 territory. For pharmaceutical labels, you will typically need both: REACH for chemical substance restriction, and EN 12873-1 (or equivalent) for migration behaviour. The two standards answer different questions and cannot substitute for each other.

Our supplier quoted compliance with “international standards” — is that sufficient for an EU tender?
No. “International standards” is not a specification. An EU pharmaceutical or food-grade tender will require named standards, specific test methods, accredited laboratory reports, and in many cases third-party certification. Ask the supplier to list the exact standard number, edition year, test method used, and issuing lab for each claimed compliance point — any gap in that chain is a compliance risk you carry once the product ships.

Planning a packaging project? Contact our team to request a complimentary specification review and sample quote.