How does a consumer know a product is real? 3 technologies compared.
The global trade in counterfeit goods is worth an estimated $467 billion per year, according to the OECD. Brands have three main options for protecting their products: holographic security labels, NFC tags, and RFID. Each works differently, costs differently, and delivers a different experience for the person holding the product. This is a practical comparison of all three.
How each technology works
Holographic labels
Surface relief holograms use laser-etched microstructures that diffract light. The result is a 3D visual effect that shifts as you tilt the label. Consumers recognise holograms instantly. They appear on banknotes, passports, and pharmaceutical packaging worldwide.
Traditional holograms authenticate visually. You look at the label and check for the expected colour shifts and patterns. The limitation is that this relies on the consumer knowing what to look for.
Modern holographic labels add a digital layer. H010’s approach, for example, embeds two interspersed QR codes into the hologram itself. A consumer scans the label with their smartphone camera, and the system verifies both codes against a database. No app is needed. The holographic interference pattern makes the QR codes inseparable from the physical label, so they cannot be photocopied or digitally reproduced.
NFC tags
Near Field Communication tags contain a small chip and antenna. A consumer holds their smartphone within about 4cm of the tag, and the phone reads data wirelessly. On modern iPhones and Android devices, this opens a browser page automatically with no app required.
Basic NFC tags store a URL pointing to a verification database. More advanced chips, like the NTAG 424 DNA, generate a unique encrypted signature on every tap. Each signature combines the chip’s unique ID, an internal counter, and AES-128 encryption. A cloned chip cannot replicate this because it lacks the cryptographic keys and will produce a static response that the server rejects.
RFID tags
Radio Frequency Identification uses radio waves to read tag data at longer range. Passive UHF RFID tags can be read from 1 to 10 metres away, which makes them excellent for supply chain tracking. Hundreds of tags can be read per second.
The critical distinction: standard UHF RFID tags cannot be read by consumer smartphones. RFID is a B2B tool. Retailers and logistics operators use dedicated handheld readers costing £1,000 to £5,000. Consumers do not interact with RFID directly.
Cost comparison
| Technology | Cost per unit (mid volume) | Infrastructure needed |
|---|---|---|
| Basic holographic label | £0.04 to £0.10 | None for visual check |
| Holographic label with digital verification | £0.05 to £0.12 | Verification platform |
| NFC tag (basic) | £0.08 to £0.28 | Authentication server |
| NFC tag (secure, NTAG 424 DNA) | £0.28 to £0.40 | Authentication server + crypto infrastructure |
| Passive UHF RFID | £0.06 to £0.28 | Dedicated readers (£400 to £4,000 each) |
NFC’s per-unit cost has dropped significantly over the past two years, but secure variants with dynamic authentication remain two to four times more expensive than holographic labels at equivalent volumes. RFID tags are cheap individually, but the total system cost including reader hardware and middleware is substantially higher.
Security: how hard is each to fake?
Generic off-the-shelf holograms offer limited protection. Counterfeiters can source functional replicas from commercial suppliers for as little as £0.15 per unit. This is why standalone holograms have developed a reputation problem in the security industry.
Custom holograms with complex origination raise the barrier significantly. E-beam origination equipment is rare and expensive. When combined with serialised digital verification, as H010’s labels are, the physical hologram is tied to a specific digitally-registered unit. Mass cloning becomes economically unviable because each label carries unique, verifiable data.
Basic NFC tags are cloneable with about £40 of equipment. You read the UID from a genuine tag, write it to a blank chip, and you have a functioning copy. This is why basic NFC tags are not suitable for serious authentication.
NFC tags with dynamic authentication (NTAG 424 DNA) are effectively unclonable in practice. Each tap generates fresh ciphertext. A cloned chip produces the same static response every time, which the verification server catches immediately.
Standard RFID tags without encryption are easily cloned. Academic research consistently identifies RFID as “vulnerable to elementary cloning and counterfeiting attacks” without proper cryptographic implementation.
The consumer experience
This is where the differences start to emerge.
With a holographic label, the consumer looks at the product and sees a familiar security feature. If the label includes a QR code, they scan it with their phone camera. The browser opens a verification page. The entire interaction uses technology that every smartphone already has, and that consumers became comfortable with during the pandemic.
With NFC, the consumer taps their phone against the tag. The browser opens automatically. The interaction feels premium, which is why luxury brands like Prada and LVMH have adopted it across their product lines. The limitation is that the tag is invisible. There is no visual cue on the product telling the consumer to tap. And older or budget smartphones may not support NFC.
With RFID, the consumer does nothing. RFID authentication happens behind the scenes, in warehouses and at retail checkpoints. It is a powerful tool for supply chain integrity, but it does not give the consumer any way to verify a product themselves.
Where each technology fits
These technologies are not direct competitors in every situation. They serve different layers of the authentication problem.
RFID is strongest in supply chain management. If you need to track thousands of items through a distribution network, count inventory in seconds, or detect diversion, RFID is the established choice. Inditex, Zara’s parent company, tracks over a billion garments per year using RFID.
NFC is strongest in premium consumer engagement. If your product is high-value and your customer expects a digital experience, NFC delivers a polished interaction with strong cryptographic security. The EU’s Digital Product Passport regulations, which begin rolling out from 2027, accept NFC as a valid data carrier.
Holographic labels with digital verification sit in the widest space. They work for brands at any price point, require no reader hardware, and combine a visual trust signal that consumers already recognise with digital verification that provides per-unit traceability. The cost per unit is the lowest of the three options. QR codes are also accepted as a data carrier under the EU Digital Product Passport framework.
The direction things are heading
The security industry has largely converged on one conclusion: standalone physical features are not enough, and standalone digital features are not enough. The products that are gaining traction combine both.
This is the “phygital” approach. A physical element that is difficult to reproduce, paired with a digital element that creates a verifiable record. H010’s holographic QR labels, NFC with tamper-evident packaging, and RFID integrated with blockchain platforms all follow this pattern.
The anti-counterfeit label market was valued at $4.9 billion in 2024, with forecasts projecting it to reach $10.7 billion by 2033. The growth is concentrated in products that bridge the physical and digital layers, not in either layer alone.
For brands evaluating their options, the question is not which technology is “best” in the abstract. It is which combination of cost, consumer experience, and security level matches your product and your customers.