Seuic, properly Jiangsu Seuic Technology, is a Nanjing-based maker of rugged handheld computers and RFID readers, and published the deployment as a customer case study. Shanghai Tobacco Group is a subsidiary of the state-owned China National Tobacco Corporation and produces the Chunghwa, Double Happiness and Zhongnanhai brands. Its Beijing site is the capital’s only cigarette manufacturer and makes Zhongnanhai, one of China’s leading blend-type cigarettes. The plant came into the group through the 2004 Beijing-Tianjin-Shanghai tobacco reorganisation.

The hardware, named

The deployed device is the Seuic CRUISE2U 5G industrial RFID handheld terminal, listed by Seuic as the CRUISE2 5G Grip Tsled. Inside it is an Impinj E710 reader chip, which places the deployment firmly in RAIN RFID territory: the E710 is a UHF reader chip for EPC Gen2, standardised as ISO/IEC 18000-63. Seuic quotes multi-tag read performance of up to 1,300 tags per second, which is the number that matters for counting cases and pallets rather than scanning single items. The site’s RFID glossary covers the terminology if any of it is unfamiliar.

The terminal has a 6.0-inch display and runs in dual mode, switching between barcode scanning and RFID reading so a single device covers both the existing printed labels and the tagged stock. Connectivity is 5G plus Wi-Fi 6. The housing is rated IP67 for dust and water ingress, and it takes two removable high-capacity batteries, so a device can stay on shift through a battery swap instead of a charging break.

The detail that usually decides deployments like this one is the detachable RFID handle. The pistol grip carrying the UHF antenna comes off, which lets the same fleet of terminals work as slim barcode scanners in areas with no tagged stock, then take the grip back on for bulk RFID counting. One device instead of two is normally the argument that gets the capital approved.

Seuic does not publish the frequency band in megahertz, the tag types in use at the plant, or any headcount or production volume. The E710 settles the technology as UHF, but the specific channel plan is not stated.

From leaf to lorry

The case study describes combined RFID and barcode capture spanning four linked areas: tobacco leaf sourcing, the tobacco stations that handle the raw crop, cigarette production itself, and logistics and distribution out of the factory. The stated problem is the familiar one in a high-volume regulated plant. Manual recording created bottlenecks and left room for human error at every handover between stages.

Reading tags rather than keying numbers is what produces the 99.8% data accuracy Seuic quotes, alongside what it describes as high scan success rates. The 50% gain in inventory counting efficiency is the clearest RFID-specific result, because bulk reading a rack does not need line of sight to each individual label. A stock count that once meant handling every case becomes a walk past it.

The wider picture is that China’s tobacco sector has been one of the country’s heavier RFID users for years, with tagging applied across cultivation, purchasing, production, sales and warehouse logistics, and the supply chain operating under a state traceability regime that gives the read data a compliance job as well as an operational one. What the Beijing deployment adds is the hardware specificity. Vendors in this sector rarely name the terminal, let alone the reader chip inside it.

Read more at https://www.seuic.com/en/cases-energy/shanghai-tobacco-warehouse-digitization.html

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

What the chips replaced was paper. Each year householders received a coloured Abfallgebuehrenmarke, a waste fee sticker, and fixed it to the bin as visible proof the annual charge had been paid, with loaders checking the colour by eye at the kerbside. Those stickers stayed valid to the end of 2023, so collections were guaranteed while the fitting programme ran.

BDG calls the chipping step a Hochzeit, a wedding, between the container and the property it serves. Once the tag is fitted and linked, the bin belongs unambiguously to one address and one collection rhythm, which closes off what the sticker system never quite could: a bin at the kerb that nobody has paid for.

Fee payers got about two weeks’ notice by letter, with identification labels to fix to the lid of each container before presenting the bin. An orange transponder was seated in the moulding under the front handle rail, and older containers with no chip nest were exchanged free of charge. A new side label carries the container number, the property address, the container size and type, a barcode and a QR code for BDG’s customer portal, where residents view billing statements and book bulky and electrical waste collections. Crews bound each transponder to its container number with barcode scanners, and the vehicles carry readers that lift that number off the tag at every emptying.

What is actually stored on the tag

Less than people assume. The transponder holds the container identification number and nothing else, with no personal data on the chip. The address, the fee record and the round live in BDG’s back office, and the number read at the lifter is only the key that points to them. That answers the data protection question which always arrives first at a public meeting.

The tag is designated R134HT. BDG describes it as a high-grade standard chip, tamper-proof, with a very high read rate and a long service life. It is fully passive, so it needs no power source of its own and no maintenance, and external sealing makes it resistant to water, chemicals and mechanical stress. That matters when the device spends a decade being swung into the back of a lorry.

Why this runs on LF rather than UHF

The R134HT is a low frequency transponder built to the German BDE bin transponder convention at 134.2 kHz, and the 134 in the part number is the clue. That looks like an oddity to readers who have watched retail, logistics and aviation converge on UHF and RAIN RFID, but German municipal waste has stayed put for sound engineering reasons.

At 134.2 kHz the coupling is inductive and near field. The read happens over a few centimetres, between a tag in the handle rail and an antenna on the lifter arm, which is precisely the geometry a refuse vehicle presents. LF is also largely indifferent to what wrecks a read at a bin: wet plastic, caked dirt, the moulded container body and the mass of steel it is swung past. Stray reads from the next bin along are not a design problem, because there is barely any range to stray with. Millions of containers already run this convention, so the case for changing band is thin. Our RFID glossary covers the bands and how each behaves.

Do not try to infer the frequency from a standard number, either. EN 14803 and DIN 30745 are both routinely cited in bin identification specifications, and both cover sub-135 kHz and 868 MHz.

What other authorities can take from it

Tino Pompetzki, operations manager at BDG, said at the time that waste disposal in the district would become more digital, more optimised and more transparent, in a German statement paraphrased here rather than quoted.

Stripped of the launch language, the return is straightforward. Every lift is logged against a container number, so revenue is protected and a disputed collection becomes a database query rather than an argument on the doorstep. The longer term prize is optionality: once every container is individually identified, lift-based or weight-based charging becomes a configuration decision rather than a rebuild. Barnim has not taken that step, but the infrastructure would carry it. Comparable schemes appear in our waste management coverage.

Read more at https://kreiswerke-barnim.de/?catid=63&id=179&view=article

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

University Hospital Graz (Universitätsklinikum Graz) is one of Austria’s largest medical centres, serving tens of thousands of patients annually across dozens of clinical departments. Behind the scenes, an operation of this scale generates an enormous volume of workwear — scrubs, theatre gowns, lab coats, protective garments — that must be laundered, tracked, and returned to the right staff member at the right time. The facility processes approximately 11 tons of textile per day, and maintaining accurate circulation of that volume without RFID would be, frankly, unmanageable.

The Problem With High-Volume Hospital Laundry

Before RFID integration, large hospital laundries operated on trust and approximate stock counts. Staff would collect garments from dispensing points, send them to laundry, and hope the right items returned in reasonable time. Losses were routine. Overstocking in one department meant shortages in another. There was no way to enforce quotas, and certainly no visibility into where any individual garment was in its lifecycle — whether it was on a ward, in a laundry bag, being washed, or simply missing.

For a hospital the size of Graz, this translates to significant financial loss, compliance risk, and staff frustration when workwear simply is not available at the start of a shift.

The RFID Solution

The solution deployed at University Hospital Graz centres on UHF RFID tags sewn or heat-bonded into each garment. UHF — operating in the 860-960 MHz range under the RAIN RFID standard — is the right choice here for several reasons. It offers read ranges of several metres, allows bulk reading of many items simultaneously, and the tags are robust enough to survive industrial washing cycles repeatedly over the garment’s lifetime.

Each garment carries a unique identifier that ties it to a specific staff member, department, and garment type. The entire workflow is then orchestrated around RFID read points at key locations throughout the laundry and distribution chain.

Quota Enforcement and Access Control at Dispensing

One of the more distinctive aspects of this deployment is how strictly quotas are enforced at the point of dispensing. Staff collect clean workwear from automated dispensing cabinets — essentially RFID-enabled vending systems for clothing. When a staff member authenticates (typically via their hospital ID card), the system checks their entitlement: how many garments of each type they are allowed to hold at any one time.

If a staff member already has their full quota of trousers, for example, the cabinet will not issue another pair until dirty items have been returned and logged. This closes the loop that previously allowed garments to accumulate in lockers or disappear entirely. It is access control applied to textile management, and it works because every transaction is recorded against the RFID identity of both the garment and the staff member.

Full Transparency of the Textile Lifecycle

Beyond dispensing, RFID read points are positioned at soiled linen collection, laundry intake, sorting, washing completion, and finished goods storage. At each stage, garments are scanned — often in bulk as entire trolleys pass through tunnel readers — and the system updates each item’s status in real time.

This means management can see, at any point, how many garments are currently on the wards, how many are in the laundry process, how many are in clean stock ready for dispensing, and crucially, how many have exceeded their expected wash cycle count and are due for retirement. Garment lifespan management reduces unnecessary waste and helps procurement plan replacement orders accurately rather than reactively.

Operational Results

Deployments of this type consistently demonstrate measurable reductions in textile loss rates — often between 20 and 40 percent — alongside reductions in total garment inventory needed to maintain adequate stock levels. When you know exactly where every item is, you do not need to overstock as a buffer against uncertainty. At Graz’s scale, even a modest percentage reduction in inventory translates to significant cost savings.

Staff experience also improves. Automated dispensing means no waiting for a linen room attendant, no disputes over who took what, and no shift starting without the right uniform. The system handles all of that transparently in the background.

Why This Model Works for Healthcare

Healthcare is a demanding environment for any tracking technology. Garments face aggressive laundering, high humidity, and frequent handling. UHF RFID tags designed for laundry applications are rated for hundreds of wash cycles at temperatures up to 90 degrees Celsius, making them genuinely suited to the environment rather than merely tolerant of it.

The compliance angle also matters in healthcare specifically. Knowing that a garment has been through a certified wash process, and being able to prove it, is increasingly relevant from an infection control and audit perspective. RFID provides that audit trail automatically.

University Hospital Graz demonstrates that at scale, RFID laundry management is not just a convenience — it is an operational necessity. The combination of UHF tagging, automated dispensing with access control, quota enforcement, and full lifecycle visibility turns what was an opaque and loss-prone process into something measurable, controllable, and efficient.

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

NuboMed is a smart hospital systems supplier founded in Shenzhen in 2012 and now headquartered in Newport Beach, California, with offices in Shenzhen, Hong Kong, Singapore, Riyadh and Rouillon in France. The company says it supplies more than 3,000 medical institutions across more than 10 countries and regions, with over 100,000 smart devices deployed and 48 issued patents. Glad Alliance, headed by chief executive Yoon Jung-kwon, is its Korean channel partner.

What was launched in Korea

Two cabinet models were named at the launch: the M3100-C1, a single-column smart pharmaceutical management counter, and the M3100-C2, a two-column version of the same design. Both carry a touchscreen, a fingerprint reader, an RFID card reader and a barcode scanner, and some variants add facial recognition that still works when the user is wearing a surgical mask. Cabinets in the range include cold chain compartments held at 2 to 8 degrees C, and NuboMed puts identification of a complete surgical kit at roughly three seconds.

The dedicated RFID unit in the family is the H3000-Ri Medical Supply Management Cabinet, which measures 710 x 667 x 1937 mm and runs an Intel Core i5 with 8 GB of memory and 128 GB of storage inside the cabinet itself, so tag reads and access decisions are processed locally rather than at a central server. NuboMed also sells a walk-in version, marketed as the Medical Supply RFID Room, which applies the approach to an entire store rather than a single cupboard.

Tiering the auto-ID by what the item is worth

The part worth studying is not the cabinet, it is which identification technology goes on which item. ICMSMS does not put RFID on everything. It combines UHF RFID, weight sensing, barcode and biometric authentication, and the split between them follows item value.

UHF RFID goes on the expensive stock: orthopaedic implants, interventional devices, pre-packed surgical kits and instrument trays. A passive UHF tag costs a few pence, plus the labour of applying and encoding it, so item-level tagging only earns its keep when an item is worth enough to justify knowing exactly which one it was. On that stock it does. It gives you the lot number and expiry date of the specific device that went into a specific patient, an unattended read of a whole tray in one pass instead of scanning pieces individually, and an expiry sweep of a full shelf without opening it.

Weight sensing takes the middle band: the sutures, syringes, dressings and gloves that move in volume but are not worth a tag each. A load cell under the shelf turns a change in weight into a consumption count at no cost per item. It cannot tell you which unit left, only how many, but for replenishment and cycle counting that is the question actually being asked. Barcode covers the long tail, where the supplier has already printed the label and the hospital pays nothing extra.

Biometrics do a fourth and different job. Fingerprint and face recognition gate who can open the door, which is what turns a stock cupboard into an audit trail: a defensible record of which member of staff took which item at what time. For controlled drugs that record, rather than the inventory count, is often the reason a hospital buys the cabinet in the first place.

The hospital figures, and who stands behind them

NuboMed cites three hospital deployments. At Beijing Jishuitan Hospital in China, it says excess inventory fell by 90 per cent after ICMSMS was installed. At Peking University Shenzhen Hospital, a customer since 2015 and now running 78 smart terminals across its warehouse, pharmacy, wards and theatres, the company claims administrative workload down 75 per cent, medication errors down by more than 80 per cent and supply inventory down 87.6 per cent. At Chaophraya Abhaibhubejhr Hospital in Thailand, it says medication preparation time fell to roughly a third of the previous manual process.

Those numbers should be read as vendor claims, because that is what they are. All of them reach the public through NuboMed and its distributor, in a trade article, with no independent audit and no published baseline. None of the three hospitals has published results of its own. The mix of a figure as precise as 87.6 per cent alongside round numbers like 90 and 75 also reads more like a sales deck than a study. The deployments are real, and 78 terminals at one Chinese tertiary hospital is a substantial installed base, but the percentages are not evidence in the way a published result would be.

Yoon Jung-kwon said the system “integrates logistics and inventory data within hospitals to simultaneously enhance operational efficiency and patient safety.”

The architecture has been on the record for years. An Intel solution brief co-authored with NuboMed in March 2020 set out the same SPD model, for supply, processing and distribution, across supply chain, pharmacy, ward distribution and patient administration, and confirmed the use of UHF RFID consumable cabinets. At that point the brief put NuboMed in more than 1,000 hospitals. Whether South Korea takes to it is a separate question, because the ICMSMS pitch depends on a hospital being willing to change how its stores, pharmacy and theatres hand items to one another. That is the organisational barrier that has slowed healthcare RFID projects elsewhere, and no cabinet removes it.

Read more at https://www.nubomed.com/products/ICMSMS/medical-supply-rfid-room/Medical-Supply-RFID-Room

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

As the first phase, the chain plans to complete deployment at all of its stores during fiscal 2026, the Japanese business year ending 31 March 2027. Animate gave two reasons: more efficient store operations, and a better buying experience for customers.

Animate has framed the work as a first step towards wider reform of the industry, according to the Japanese trade paper The Bunka News, which reported the announcement. Most of that report sits behind a paid-member paywall, so the full wording of the remarks attributed to chief operating officer Jun Fujiki is not publicly available.

Why a chain of this size matters

Animate opened its first flagship in Ikebukuro, Tokyo, in 1983 and was incorporated in July 1987. It listed 118 shops in Japan as of 2026, alongside branches elsewhere in Asia and in the United States and London, and it sits inside the Animate Group with the merchandise publisher Movic. Committing every Japanese branch to item-level tagging makes this one of the larger retail RFID programmes the country’s book trade has taken on.

What BOOKTRAIL is

BOOKTRAIL is a book traceability system built on individually identifiable RFID tags attached to books. It makes distribution status visible along the chain and, for the shops that adopt it, gives real-time location, movement history and stock position. PubteX sells that as the basis for shelf and stock management, faster stocktakes, theft prevention and better decisions about where a title sits in the shop.

PubteX itself is a Tokyo company founded on 11 March 2022 and capitalised at 450 million yen, set up specifically to apply AI and IoT to structural problems in Japanese publishing distribution. Its shareholder list explains why the tags are spreading: the trading house Marubeni holds 34.8 per cent, Marubeni Forest Links 16.3 per cent, and three of Japan’s largest book and manga publishers, Kodansha, Shueisha and Shogakukan, 16.3 per cent each. BOOKTRAIL went into commercial service on 29 January 2025.

The tag goes in at the printing plant

The part that will interest anyone who has costed a retail tagging project is that the shops do not apply the tags. This is source tagging taken to its logical end: the tag goes in at the printing plant, so books ship with it already inside.

The mechanics were set out publicly on 7 July 2025, when the publishers Futabasha and Takeshobo announced with PubteX that they would begin inserting PubteX-supplied tags into target titles. The tag is a bookmark-type insert, tucked into the centre of the book or near the spine. Futabasha’s Action Comics line, handled through the magazine distribution route, was covered from August 2025, and a selection of Takeshobo comics, also handled as magazines, from July 2025.

The tag holds a random ID and nothing else. No product-linked information is written to it and no personal data is collected through it, which answers the obvious privacy question about a chip that leaves the shop inside a book. Once the book is sold, the tag is normally disposed of as ordinary household waste under local rules.

The guidance issued to bookshops was deliberately dull: handle stock as normal, sell as normal, do not remove the tag, and keep scanning the existing ISBN or book JAN barcode at the till. One point is worth flagging for anyone running EAS alongside RFID. The RFID tag will not set off a shop’s existing EAS gates, because the two systems work on different radio frequencies. If an EAS label is stuck directly over the RFID tag, though, the two can interfere and the RFID tag may fail to read, so EAS labels should not be placed on top of it.

From 66 shops to a chain-wide commitment

BOOKTRAIL was live in 66 bookshops as of 16 December 2025, and PubteX expected the count to reach 115 by 31 March 2026. Thirteen publishing companies were applying tags at that point, with subsidies and grants used to support adoption. Set against those figures, adding every Animate branch in Japan is a material jump in installed base, not another single-site pilot.

There is also an early result from inside Animate itself. At the Animate Omiya store, RFID lets staff identify exactly which item triggered the anti-theft gate and the precise time it happened. That turned security camera review from an average of one to two hours of footage into one to two minutes. It is the sort of number that moves a loss prevention business case, converting a vague deterrent argument into recovered staff hours.

Elsewhere in the programme, Maruzen Junkudo bookstores ran a data trial on comic shelving, reporting on end-cap and wall shelf performance, and the Maruzen Ochanomizu store put tagged stock through self-checkout.

The structural problem behind the tags

Japanese book distribution runs on a consignment model in which unsold copies travel back up the chain, and the resulting returns rate is why RFID is being pushed here at all. Books shipped in Japan in calendar 2025 came back at a rate of 31.9 per cent, according to Research Institute for Publications figures reported in January 2026. Roughly a third of everything printed makes the journey twice and earns nothing.

PubteX describes its own problem set as falling bookshop numbers, high returns, rising shipping costs and shoplifting losses, and is attacking it on two fronts: AI models tuned to how individual titles sell, to cut wasteful reprinting and returns, and RFID for visibility in the physical chain. Jun Watanabe became its representative director and president in January 2025.

The same tags, pointed at the shopper

Tags fitted for distribution reasons are already being tried on the customer-facing side. At Niconico Chokaigi 2026, held on 25 and 26 April 2026 at Makuhari Messe Hall 4, KADOKAWA ran an RFID and smart shelf corner using the same IC tag technology now going into comics. Lifting a tagged book off a sensor-equipped shelf triggered a promotional video on a monitor, and buying an eligible tagged book entered visitors into a prize draw. PubteX supplied the RFID technology and TOPPAN Corporation the smart shelf system. The same booth showed an Unlimited Bookshelf concept, letting a customer search stock and order titles the shop does not hold.

What has not been said

One detail is missing from every public statement reviewed for this article: none states the frequency band or air interface standard the BOOKTRAIL tags use. The EAS note confirms only that RFID and EAS differ, which says nothing about the band. Until PubteX publishes it, BOOKTRAIL is best described as item-level RFID and no more specific than that.

The other open question is the 2029 target itself. Getting tags into every store during fiscal 2026 is a supply and installation problem. Reaching RFID-based store operations by April 2029 means goods receiving, shelf management, stocktaking, the till and the gate all running off the tag rather than the barcode, across more than a hundred shops. The gap between those two milestones is where retail RFID programmes are won or lost.

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

Aalborg Airport sits at Nørresundby, about 6 km from the centre of Aalborg, and is Denmark’s third busiest airport behind Copenhagen and Billund. It is a compact operation, which is exactly why baggage reliability matters there: with little spare capacity in the hall, one stalled bag or one misread tag turns into a late departure quickly. Lyngsoe, headquartered at Aars in northern Jutland, supplies tracking systems to airports, postal and logistics operators and libraries.

Over nearly 20 years the airport has moved from manual processes with limited visibility to an automated operation with high traceability and control. The installation is integrated into the airport’s baggage handling system and includes RFID-based bag drops, sorting readers and automated baggage reconciliation during aircraft loading. Every baggage movement is recorded automatically and turned into validated data in real time.

“At Aalborg Airport, operational stability and passenger experience are fundamental. Our partnership with Lyngsoe has spanned almost 20 years and is built on trust, continuity, and a shared understanding of airport operations,” said Kim Bermann, Deputy Director and COO at Aalborg Airport.

Lyngsoe’s airport products run on its Lyngsoe LIVE Logistics platform. The company says its sortation reader “reads and singulates RFID bag tags and provides license plate data to the baggage handling system”, and that it can sit on the induction of the sorter or on the conveyor feeding it. Singulation is the part that does the heavy lifting: a reader in a busy hall will see several tags in its field at once, and the sorter has to know which licence plate belongs to the bag physically in front of it rather than the one behind it.

“By combining our Sort Allocation Controller with RFID tracking, we have helped Aalborg Airport move from manual processes to fully automated and data-driven baggage handling,” said Bastian Bech Hedegaard Gaardahl, Sales Director at Lyngsoe.

The case for reading bags by radio rather than by barcode comes down to read rate. A printed label has to present itself to a scanner in roughly the right orientation, and a bag tag folded under a handle or lying face down on the belt simply does not get read. IATA’s RFID bag tag fact sheet puts RFID read rates at 99 to 100 per cent and says the technology was picked “owing to the combination of reliability, maturity, widespread availability and cost”. Lyngsoe claims proven read rates of over 99 per cent in baggage handling. IATA’s own business case estimated a return of more than $3 billion to the industry from reduced mishandling and improved operational efficiency.

Two IATA documents sit underneath all of this. Resolution 753, effective from June 2018, requires members to track baggage when they take it from the passenger, when it is delivered to the aircraft, at custody changes between carriers and on delivery back to the passenger. Recommended Practice 1740c, titled “Radio Frequency Identification (RFID) Specifications for Interline Baggage”, is the technical companion and points the industry at passive Class 1 Gen 2 tags, so that a bag tagged at one airport can be read at the next one.

The wider numbers are moving in the right direction. SITA’s 2026 Baggage IT Insights report, the 20th edition of that benchmark, found the mishandling rate fell 23 per cent year on year during 2025, with the total down to 24 million bags against 5 billion passengers carried. That still cost airlines an estimated $6.3 billion, or roughly $260 for every mishandled bag. SITA also reported that industry baggage tracking under Resolution 753 has passed the 50 per cent mark, with full compliance targeted for 2027.

Aalborg Airport and Lyngsoe list five results from the collaboration: increased capacity utilisation at check-in, faster self-service processes, reduced need for manual processing, higher system availability and operational stability, and real-time insight into baggage status.

Read more at https://lyngsoesystems.com/news/aalborg-airport-and-lyngsoe-mark-nearly-20-years-of-collaboration-on-digital-baggage-handling

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

ELIS is the Spanish arm of Elis SA, the French textile, hygiene and facilities services group founded in 1883 and listed on Euronext Paris under the ticker ELI. Elis reported full-year 2025 revenue of 4,796.8 million euros, up 4.9 per cent year on year including 3.8 per cent organic growth, and employs around 54,000 people in 30 countries. It has traded in Spain for roughly 45 years and runs 39 industrial laundries there, serving hospitality, healthcare, social care, retail, industry and cleanroom customers.

What LavanderTrace claims to do

LavanderTrace is LavanderCode’s RFID traceability product for textile rental and laundry operators. According to the company’s own announcement, the deployment covers four points in the garment cycle:

• Identification: every garment carries a unique RFID tag, so each item can be recognised individually rather than as part of a bulk load.
• Reception and sorting: garments arriving at the plant are registered automatically as they pass through RFID reading arches, with no manual scanning step.
• Processing and washing: the movement of each item is logged at each stage of the wash process, which LavanderCode says prevents garments being lost or diverted.
• Despatch and delivery: the system checks that each garment goes back to the customer it came from, closing the loop on traceability.

LavanderCode frames the problem in the terms textile rental operators tend to use: garments going missing, no real-time visibility of where stock sits, and the logistics overhead of getting every item back to the right customer. Its other products include the Lavander 4.0 platform, RFID reading cabinets and arches, an LED-guided garment sorting system, handheld and PDA-based readers and clothing dispensing units. The company is based at Calle Lenguas 18 in Madrid and also sells into care homes and workwear providers.

What the announcement does not say

This is a vendor announcement rather than an independently audited case study, and the claims above are LavanderCode’s. It gives no operating frequency, no tag type or supplier, no garment volumes, no plant names and no deployment dates, so none of those should be inferred. It also publishes no measured result for shrinkage, throughput or sorting accuracy.

As general industry practice rather than a stated detail of this rollout, laundry RFID tags are built to survive hundreds of industrial wash, extraction and press cycles, and are usually sewn into a seam or heat-sealed to the fabric. Reading arches and cabinets are used because they read a full cage or trolley of garments in one pass instead of item by item, which is what makes RFID economic in a plant handling large daily volumes. In textile rental, the commercial case usually rests on knowing where stock is and cutting shrinkage, since every unreturned garment is a replacement cost against a fixed rental fee.

Spanish capacity keeps growing

Elis has been investing in Spanish capacity in parallel. In 2024 it opened Elis Cleanroom Granollers near Barcelona, its third cleanroom-garment laundry in Spain, a 6 million euro investment starting at 59,000 items a week with a second-phase target of 98,000 items a week. It also put 14 million euros into a site at Illescas to add capacity along the Madrid to Toledo corridor.

More coverage of RFID asset tracking and logistics deployments is available in our category archives.

Read more at https://lavandercode.es/elis-espana-implementa-lavandertrace-para-la-trazabilidad-de-prendas

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

One caveat matters before the numbers: the municipality’s own project page places this sub-project at Phase 1, the implementation study, with a pilot operation scheduled before full production rollout. The equipment counts below are contracted scope, not an installed base. Nothing here says 12,100 tags are already on bins in the street.

Who is building it

The system is being delivered by the OTE Group, the Hellenic Telecommunications Organization and Greece’s largest telecoms group, with EmDoT SA as subcontractor. EmDoT is an Athens-headquartered technology company that develops IoT platforms for waste management, oil and gas supply chain management and roadside assistance. The delivery sits on OTE’s e-track platform combined with EmDoT’s waste subsystems, marketed as Dot.Waste, Dot.Weighing, Dot.SmartBins, Dot.Platform and Dot.Capacity Management. The municipality states the programme is being run to PRINCE2, which suggests a formal stage gate before the pilot converts to production.

The hardware, in full

• 12,100 RFID tags fitted to waste bins, each carrying a unique identifier read automatically at the point of collection.
• 145 RFID readers fitted to refuse collection vehicles for bin identification.
• 360 vehicles fitted with GPS and telematics units covering position, speed and fuel monitoring, integrated with the municipality’s traffic office despatch system.
• 50 vehicles equipped with weighing systems built into the bin lifting mechanism, recording a weight per bin into the central database.
• 1,000 wireless fill-level sensors in bins, reporting waste level in real time to feed dynamic routing.
• In-cab terminals for drivers and crews to receive instructions from the control centre, plus an Android and iOS app carrying maps, notifications and job instructions.
• Central platform comprising cloud servers, the fleet and cleansing management application, a business intelligence layer of dashboards, KPIs and reports, and APIs for interoperability with the municipality’s existing systems.

The ratio of 145 readers to 12,100 tags is the interesting number. A bin identification system only pays back when the reader is on the vehicle rather than in the depot, because the read has to happen in the two or three seconds the lifter arm is in motion. Athens is fitting readers to a subset of the 360-vehicle fleet, which implies the tagged bin stock is served by specific rounds rather than by whichever vehicle happens to be passing. That is a normal design, but it makes round allocation and reader availability an operational constraint the municipality has to manage, not just an IT one.

What a bin identification system actually delivers

For readers coming to this cold: putting a tag on a bin and a reader on the lifter gives you a timestamped, geolocated record that a specific bin was emptied by a specific vehicle. Pair that with the lifter weighing and you get a weight against that same bin. From there you can prove service delivery, chase missed collections with evidence rather than assertion, measure recycling capture by street or by property, and, if policy allows it, bill on the basis of what a household or business actually presented. EmDoT states that Dot.Waste supports Pay-As-You-Throw models and compliance with EU Waste Framework Directive 2008/98/EC, though the Athens documentation published so far frames the benefits in operational and environmental terms rather than as a charging scheme.

The frequency question the paperwork does not answer

Neither the municipality nor EmDoT has published the air interface frequency of the 12,100 bin tags, and it is worth understanding why an RFID reader would want to know. Frequency choice drives the physical build of the whole installation. A sub-135 kHz system tolerates dirt, moisture and the metalwork of a lifter arm well but works at short range, which forces the antenna onto the comb or the lifting arm itself, close to the tag, and makes the harness a wear item on a machine that cycles hundreds of times a day. A UHF system reads at much greater distance, which allows the antenna to be mounted on the vehicle body away from the mechanism, but it is more sensitive to the reflective environment of a steel hopper and more likely to read a bin that is standing nearby rather than the one on the lifter. Both approaches are in service across European municipalities and both can be built to EN 14803 or DIN 30745, the standards that cover bin identification and RFID data exchange; conformance to either never implies a frequency, since they span both sub-135 kHz and 868 MHz. Until Athens publishes the technical specification, the mounting design and the read reliability targets are the parts of this contract worth watching.

Budget and funding

The two published budget figures do not match, and both are worth recording. The Municipality of Athens gives the sub-project budget as EUR 1,733,149.78 excluding 24% VAT, or EUR 2,149,105.73 including VAT. EmDoT, in its announcement of the partnership on 11 July 2025, gives a project budget of EUR 1,695,059.35 with EUR 844,028.20 of European Union funding. Neither document reconciles the difference, which most likely reflects different scope boundaries or a contract value against a funded value.

The money comes through the “Development of Digital Products and Services” programme of the National Recovery and Resilience Plan Greece 2.0, the Greek government’s recovery plan funded by the European Union’s NextGenerationEU instrument, which has been a significant driver of municipal IoT procurement across Greece since 2021.

On results, EmDoT’s own material reports up to a 20% reduction in operational costs from its solutions, and cites 1,000 smart bins in operation with a 12% reduction in overfilled bins and no increase in route duration or distance. Those are the vendor’s figures rather than independently verified Athens outcomes, and the Athens deployment has not yet reached a stage where it could produce its own.

Greek outlet TA NEA reported on 22 July 2026 that 20 new vehicles had entered the municipal cleansing fleet fitted with GPS and a system for reading identification cards on the blue recycling bins, so bin identification is already being exercised in the field ahead of the full 12,100-tag rollout.

More coverage of tagging and identification in refuse collection is in our Waste Management section.

Read more at https://cityofathens.gr/olokliromeno-systima-diacheirisis-amp-parakoloythisis-ypodomon-kathariotitas-dimoy-athinaion

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

GreyOrange is a US headquartered warehouse and retail automation company, known first for its GreyMatter fulfilment orchestration software and the mobile robots that run under it. Its retail product, gStore, is a store inventory and fulfilment platform that ingests RFID reads alongside sales data to hold a live picture of what is on the shop floor and what is in the stockroom. H&M Group is the Swedish fashion retailer behind H&M, COS, Arket and Weekday, and operates in the region of 4,000 stores worldwide.

Read the 3,800 figure carefully

That last number matters, because the headline figure is easy to misread and several syndications of the announcement have misread it. The 3,800 locations are GreyOrange’s total installed base across every customer it has, not H&M’s store estate. H&M Group’s own footprint on the platform is described only as “hundreds of retail locations spanning three continents”, plus GreyMatter orchestration across multiple distribution centres. Because H&M runs roughly 4,000 stores in total, 3,800 sits close enough to look like a full chain rollout. It is not one.

GreyOrange’s other figures give a better sense of scale: roughly 200 million retail inventory items under management through gStore, more than one billion US dollars of inventory moving through its systems each month, and 130,000 hardware and software agents across stores and warehouses globally, 100,000 of them added in the two years to September 2026. All are vendor supplied and unaudited, and “agents” is GreyOrange’s own unit covering everything from a robot to a software process, so it is not comparable to a reader count.

Overhead readers change what inventory accuracy means

The technical substance here is the shift from periodic to continuous reading, and the two approaches produce numbers that look alike and behave nothing alike. Handheld UHF RFID cycle counting is the established method in fashion retail: an associate walks the floor with a handheld reader, sweeps the fixtures and produces a count. It is fast, cheap in capital terms, and accurate on the day it is done. But it is a snapshot. From the moment the count finishes, every sale, every return and every garment carried into a fitting room and abandoned there degrades it, and in a busy store that decay is measured in hours. Counting weekly means working from data that is usually several days old.

Fixed overhead readers mounted in the ceiling read the same tags continuously, so the output is a rolling state rather than a count. That supports tasks such as “this fixture is empty now” instead of “this SKU was short on Tuesday”. GreyOrange has claimed since January 2024 that gStore with overhead reading holds item level inventory accuracy at around 99%, against roughly 90% for traditional point in time cycle counting, and locates items to within three to five feet. That precision is enough to say which fixture or zone an item is in. It is not enough to say which peg, and any deployment plan assuming otherwise will disappoint.

gStore is sensor agnostic, using hardware from suppliers such as Zebra and Keonn rather than a reader line of its own. The economics split cleanly too: overhead arrays suit high volume stores where continuous data pays for the ceiling infrastructure, while handhelds remain the sensible choice for lower volume sites. That is why the largest chains are going overhead first, and it is the same pattern visible in other overhead deployments reported during 2026.

The Zebra tie-up did the groundwork

The September 2026 milestone follows an announcement on 8 January 2026 in which GreyOrange and Zebra combined Zebra’s SmartLens overhead RFID hardware with the gStore execution platform. Overhead readers gather item level data continuously, gStore processes the reads in real time, identifies stock gaps and pushes tasks to associates on mobile devices, removing manual cycle counts and replacing reactive replenishment with scheduled work.

Two details there matter more than the headline. The combined system integrates with a retailer’s existing handheld RFID infrastructure rather than replacing it, which counts for a lot when most chains considering overhead reading have already spent years building handheld estates and tagging programmes. And the first deployment, at an unnamed national fashion retailer, reached 98% on shelf availability. That is a strong figure, but on shelf availability and inventory accuracy are different measurements, and one unnamed site is not a trend.

Troy Siwek, General Manager of gStore by GreyOrange, framed the problem as latency rather than data volume, saying retailers “don’t struggle because they lack data”, but because “they can’t act on it fast enough.” That is a fair description of where item level RFID has stalled in a lot of stores: the tags are on the garments, the reads are happening, and the resulting exception list never reaches anyone with time to walk the floor.

A warehouse relationship that grew into a store one

This is not a new partnership, which is how some coverage has framed it. H&M Group first deployed GreyMatter at a distribution centre on the US West Coast in 2021, and the store side came later. That sequence is the more interesting part of the story: a fulfilment automation supplier working from the back of the network towards the shop floor, which is the direction of travel for several vendors in this space.

Akash Gupta, Co-founder and CEO of GreyOrange, credited H&M with shaping the product rather than simply buying it, citing its “scale, operational complexity, and willingness to co-develop the future of omnichannel technology rather than simply adopt it”. David Pino, Head of Emerging Technology at H&M Group, said scaling successfully requires “specialized understanding of how stores, fulfillment operations and inventory flows work together”. Those are the quotes a press release produces, but the underlying claim, that this took five years and started in a warehouse, is checkable.

Continuous reading creates its own problem

Reading tags all day rather than once a week surfaces a difficulty handheld counting largely hides: readers do not respect the boundaries retailers care about. Stockroom stock reads as shop floor stock, a fitting room reads as a fixture, and an adjacent department’s tags bleed into a zone they do not belong to. In an open plan store that is the normal condition, not an edge case, and it is what stands between a continuous read stream and a count anyone will act on.

GreyOrange’s answer is SoftFence, announced in October 2024, a virtual shielding layer tuned per site that uses received signal strength, signal movement and angle of arrival to judge whether a tag genuinely sits inside the zone being read. Its initial focus was stray tags confusing associates during omnichannel shipping and receiving with handhelds, but the same physics applies to ceiling mounted arrays. That a vendor with this installed base needed a dedicated product for it says plainly that zone discipline, not raw read rate, is the hard engineering problem in overhead retail RFID.

Where this leaves the category

GreyOrange’s other named retail customer is Fabletics, which deployed gStore in August 2025. Keonn is named as an RFID hardware and smart mirror partner, Cognizant as a retail concept partner. Reporting by Chain Store Age on 1 September 2026 adds that gStore combines RFID reads with sales data and smart mirror interactions to build real time inventory heat maps, the same data used to flag fast moving SKUs, garments abandoned in fitting rooms and low stock alerts. The customer outcomes GreyOrange has published, a 45% productivity improvement, a 5% sales increase and 60% more daily customer assistance, all come from unnamed sites, and the accuracy numbers quoted across retail RFID have a long history of travelling without their baselines.

What is solid is the installed base. A category that was still pilot shaped five years ago now has a supplier claiming 3,800 live stores and a global fashion group running it across three continents. The open question for 2027 is whether continuous overhead reading becomes the default in high throughput fashion stores or settles as a top tier option while handhelds carry the long tail. That will turn less on reader performance than on whether retailers can restructure store labour around a task list that never stops updating, a change to how a rollout is run rather than to the technology in the ceiling.

More: retail RFID, fashion RFID, and our guide to implementing RFID for stock control and retail inventory.

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

The timing needs stating carefully. As of early September 2026, METRO’s own Tap2Cruz page still gives the launch as Summer 2026 and describes the system in the future tense, and its fares and passes page repeats that wording. No dated go live announcement had been published at the time of writing, so Summer 2026 is the operator’s stated window rather than a confirmed switch on date.

What riders get

The regular contactless fare is USD 2 for unlimited systemwide travel for up to two hours, with a discount fare of USD 1 for eligible riders. Contactless enabled Visa, Mastercard, Discover and American Express cards are accepted, along with Apple Pay, Google Pay, Samsung Pay and Fitbit Pay. Cash and the existing Splash Pass mobile ticketing both remain in service. Each rider must tap separately, so a single card or phone cannot be used to pay for a group.

The paper pass range is shrinking around the launch. METRO’s fares page states that from 1 July 2026 the 3-Day, 7-Day and 15-Ride passes are no longer sold, although passes bought on or before 30 June 2026 stay valid until 31 December 2026.

Account based ticketing is the real change

The interesting part of a rollout like this is not the tap, it is what happens after it. Tap2Cruz is account based ticketing, which means the card or phone presented at the reader carries no ticket and no stored value. It supplies a payment token that acts purely as an identifier. The validator authorises the rider onboard in a fraction of a second, then the taps are collected and priced in the back office afterwards, against an account held for that card.

That ordering is what makes fare capping possible. METRO says a daily cap prevents riders being overcharged across multiple trips, and that a 31 day cap runs on a rolling basis from the rider’s first tap rather than from the start of a calendar month. Because pricing happens after travel, the rider never has to decide in advance whether a pass is worth buying: they tap, and the back office charges the lower of pay as you go and the equivalent pass price. Card based systems could not do this, because the fare product had to be loaded onto the card first.

Littlepay, the transit payments processor behind the deployment, handles that fare calculation and gives riders a Traveller Portal in which to review their charges.

What the tap actually is

Contactless EMV payment runs over ISO/IEC 14443 at 13.56 MHz, the same HF proximity interface used by NFC, with an intended read range of a couple of centimetres. It is a different technology family from the UHF RAIN RFID found in retail stock counting and logistics, which operates around 860 to 960 MHz and reads at metres. Anyone specifying transit validators is buying short range HF proximity hardware, and that short range is a security feature rather than a limitation.

On security, METRO states that transactions use EMV chip technology with a one time code generated for each transaction, so intercepted data cannot simply be replayed. The agency also states that personal data will never be stored, sold or given away by METRO or any third party agent, and that card issuers see only the transaction amount, not the rider’s travel history.

Concessions verified through Cal-ITP

Discounted contactless fares will be available to adults aged 65 and over, veterans and Medicare cardholders, verified through CalITP Benefits. Cal-ITP is the California Integrated Travel Project, a Caltrans led programme that helps transit agencies adopt contactless payment, automate discounts and standardise their data. Its Benefits service digitises eligibility checking, so a rider proves entitlement once and links it to their own payment card, after which the discount is applied automatically at the reader with nothing to show the driver.

Where this sits in the statewide rollout

Cal-ITP’s Mobility Marketplace lets California’s 300 plus transit agencies buy contactless fare collection off pre negotiated statewide Master Service Agreements arranged through the Department of General Services, avoiding a full procurement each time. Littlepay holds one of those agreements as a transit processor. The same marketplace lists acquirers Elavon and Fiserv, and validator suppliers INIT, Kuba and Aurionpro. METRO has not publicly named the validator supplier for Tap2Cruz.

Monterey-Salinas Transit was the first agency in California to go live with open loop contactless, in early 2021. Redding Area Bus Authority launched its Tap2Ride option in April 2026 and was described at the time as the ninth transit agency in the state to join the Cal-ITP Benefits platform. Streetsblog California reported in May 2026 that once LA Metro’s TAP Plus service launches, contactless payment will be available on the agencies that carry roughly 95 per cent of public transit trips in California, while noting that in absolute numbers more agencies still do not accept it than do. Santa Cruz METRO is one of the operators closing that gap.

For comparison, see our coverage of RATP’s open loop NFC payment rollout in Paris and St. Louis MetroLink’s NFC fare gates, or browse the full contactless payment archive.

Read more at https://scmetro.org/tap2cruz/

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

On the face of it that is a merchandising story rather than an RFID one. It is worth a second look. An electronic shelf label, or ESL, is a battery powered e-paper display with a radio on board, individually addressed from a central price system. An estate of 1.2 million of them is an estate of 1.2 million wireless endpoints on UK shelf edges, and on this particular label family there is an optional passive high frequency tag sitting alongside the radio.

What is actually on the shelf edge

The hardware comes from VusionGroup, the French listed retail digitalisation business formerly known as SES-imagotag, which says it serves more than 350 large retailer groups across Europe, Asia and North America. Asda has standardised on the 2.6 inch VUSION shelf edge label, one of the common sizes across the V100 and V300 series, so the model chosen sits in the mainstream of that range rather than at either extreme. Grocery Gazette reported better screen quality and readability as a factor in the choice.

Price data does not reach those labels over shop Wi-Fi. The VUSION family communicates on a proprietary 2.4 GHz protocol, bidirectional, using up to 11 channels, with radio coverage of roughly 25 metres from an in-store access point and 128-bit AES encryption with secure key exchange. Because the link is two way, a label confirms what it has been sent, which is how a retailer can be confident that the price on the shelf matches the price at the till. Each label also carries a blinking LED pick-to-light function, used for picking and for locating stock on a shelf.

Where NFC comes into it

That 2.4 GHz link is proprietary radio and not RFID in the sense most readers of this site use the word. The NFC option is a different matter. SES-imagotag labels can be ordered with an integrated passive NFC tag that complies with ISO 14443 and operates at 13.56 MHz, the standard HF RFID band. ISO 14443 is the four part international standard for proximity cards and their reader interface at that frequency, and it is the same air interface used by contactless bank cards and transit tickets, with a working range of a few centimetres.

Tap an NFC capable phone on a label that has the chip fitted and it redirects to https://nfc.ses-imagotag.com/<Label-ID>, so the tag resolves to that individual label’s identity rather than to a generic product page. Antenna position varies with label size, so the phone has to be lined up with the antenna rather than waved at the display in general. VusionGroup’s own product material pitches the shopper use case directly, describing labels that can be tapped or scanned to reach product reviews, nutritional scores, stock availability in nearby stores or alternative formats online.

One caveat matters here, and it is the honest way to report it. Neither Asda nor VusionGroup has stated publicly whether the NFC chip is populated in the specific 2.6 inch units Asda has deployed. The tag is a documented option on this label family, not a confirmed feature of this rollout. What the rollout does establish is the scale of the opportunity: a UK retailer specifying that option across an estate of this size would put an HF tag population in the millions onto shelf edges in a single programme. Further background on the technology sits in our NFC coverage.

What the labels do for the stores

The displays carry pricing, unit cost, weight and promotional information, and they also show ingredient and allergen information for customers, with expanded detail on bakery items where that has historically been awkward to print at the shelf edge. The operational case is the removal of manual repricing.

Matt Harrison, Director of Asda Express Central Operations, said in the September 2026 announcement: “By removing manual pricing tasks, we’re freeing up time for colleagues to focus on serving customers and keeping store standards high.” Roy Horgan, UK and Ireland CEO at VusionGroup, said the company was “proud to have reached this milestone with Asda” and expected to build on the partnership.

This is the end of a staged programme rather than a single push. An earlier phase announced on 3 October 2025 covered 250 Express stores at roughly 2,800 labels per store, more than 700,000 digital shelf displays in total. That phase followed a three month trial at Oxford Road in Manchester, with Castleford the first new-build Express to open with labels fitted from day one, and 20 further Express stores due to open before the end of 2025 with the labels in place at launch.

Who delivered it, and why the store count varies

Renovotec, a UK integrator specialising in rugged mobile computing and RF infrastructure, handled delivery and installation. HL Display supplied the rails and holders that physically carry the labels on shelves, baskets, hooks, chillers and freezers, an attachment supplier rather than a technology partner. Retail Technology Innovation Hub, reporting on 30 August 2026 from a LinkedIn post about the project, named a wider supplier list, adding Elecomm, MADIC UK and Evolve on infrastructure, with Daniel Pelissier as project lead.

That RTIH report puts the figure at more than 550 sites rather than 517, because it counts the Asda petrol station estate as well as the Express stores. The two numbers are counting different things rather than contradicting each other: 517 is the Express store figure in Asda’s own announcement. Anthony McCarron, Projects, Propositions and Communications Manager at Asda, described the work as a step change for customers and colleagues, delivered on time and on budget.

Cameras are the next layer

Asda is separately piloting shelf-edge availability cameras in five of its larger main-estate stores. The system identifies gaps, out-of-stocks, low inventory and misplaced products and alerts colleagues to replenish, with a wider rollout planned. That is the computer vision half of the VusionGroup stack, which alongside the labels themselves includes VusionCloud, Captana for computer vision and AI, Memory for data analytics, Engage for retail media and PDi digital signage. For an RFID audience the point is the direction of travel: shelf level identity and shelf level sensing are converging on the same infrastructure.

The wider UK picture

Asda is not alone. Waitrose announced a partnership with SOLUM in December 2025 to introduce electronic shelf labels nationwide, and Co-op has been replacing labels across 2,400 stores through 2026. Between them, UK grocery is quietly building one of the largest deployed populations of addressable, powered devices at the shelf edge anywhere in retail, with an HF tag option available on at least one of the major platforms.

Read more at https://corporate.asda.com/newsroom/2025/03/10/asda-rolls-out-new-electronic-shelf-label-across-express-stores

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

Returnit is run by Itgreen, a Seoul-based reusable container circulation company founded in November 2020 by chief executive Kim Sun. The service works through the delivery apps rather than alongside them: a customer picks the reusable container option when ordering in Baedal Minjok, better known as Baemin, South Korea’s dominant food delivery app, operated by Woowa Brothers and majority owned by Delivery Hero. When the meal is finished, the customer requests a collection by scanning a QR code and leaves the container outside the door. Itgreen collects it, washes it, inspects it and puts it back into circulation with participating restaurants.

The tag is what makes the loop auditable

Every container in the Cheonan scheme carries an RFID tag. According to VentureSquare, which reported the launch on 28 August 2026, the tag records when the container was supplied to a restaurant, when it was collected from a customer and when it was cleaned, along with how many times that individual container has been used. Itgreen uses the resulting data for two operational purposes: identifying containers that have gone missing or have not been returned, and deciding when a container has reached the end of its working life and needs replacing.

That second use is the quietly important one. A reusable packaging scheme only beats single use if each item completes enough cycles to pay back the material and energy that went into making it, and stainless steel starts that race a long way behind a thin plastic tray. Most reuse schemes cannot tell you where they are in that payback, because they count containers in aggregate: how many went out, how many came back, roughly how many are still in the system somewhere. Per-item cycle counting is a different class of evidence. When the tag holds the wash count for each individual container, the operator can state an average cycle count with a real distribution behind it rather than a modelled assumption, and can see which containers are the outliers dragging that average down.

The same identity data does the unglamorous work of loss control. Returnit’s existing operation, described in a January 2023 interview with Korea Logistics News, pushes real-time container location to delivery riders and sends reminders to customers who have been holding a container too long, with the company claiming a recovery rate approaching 100 per cent. Neither of those functions works on anonymous stock. You need to know which container is sitting at which address, and only a serialised identifier gives you that. This is straightforward asset tracking, applied to an asset worth a few pounds that travels through strangers’ kitchens.

What has not been disclosed

No source in the Cheonan coverage states the operating frequency of the tags or their form factor, and this article will not guess. It is worth setting out why the choice is constrained, though, because the physics here is genuinely awkward. The containers are stainless steel, and metal detunes and shields antennas designed for use in free air, so any tag has to be either specified for on-metal mounting or positioned on a non-metallic part of the assembly such as a lid seal or a moulded recess. The containers also go through repeated industrial washing at high temperature with detergents and disinfectants, which is closer to a commercial laundry or a returnable transit item application than to a retail label. Laundry-grade tags exist precisely for that duty cycle, in both high frequency and UHF variants, and both are used commercially for reusable packaging pools. Which one Itgreen has chosen has not been reported.

AI vision picks up what the eye misses

The other new element in Cheonan is the washing centre itself. The Cheonan Smart Washing Center runs an AI vision automated inspection system that photographs containers after cleaning and analyses the images for residual foreign matter and for signs of damage. Itgreen describes this as the first automated application of AI vision to reusable delivery container washing in South Korea. “We plan to resolve cleaning quality issues difficult to see with the naked eye by introducing AI vision,” Kim Sun told VentureSquare.

The inspection sits inside a seven-stage wash and disinfection process, and Itgreen’s own material claims each stainless steel container displaces more than 300 disposables over its life. Pair that claim with the per-container RFID cycle count and you have something unusual in reuse: a marketing number that the operator’s own data can either substantiate or contradict.

A 2024 commitment, delivered

The Cheonan centre is not a standalone launch. Woowa Brothers signed agreements with Cheonan City and Gwangmyeong City on 25 November 2024 under a smart city programme run by MOLIT, South Korea’s Ministry of Land, Infrastructure and Transport. The package covered an AI-inspection washing centre in Cheonan, described at the time as the first automated facility of its kind in Chungcheong, plus roughly 20 battery swapping stations for electric two-wheelers in Cheonan and 10 in Gwangmyeong. The agreements were signed by Cheonan Mayor Park Sang-don and Woowa Brothers vice president Ham Yun-sik. The August 2026 opening delivers that commitment, around 21 months later.

Woowa Brothers marked the launch with a promotion of 10,000 won off orders over 15,000 won, running until 3 September 2026. Kim Joong-hyun, sustainability management director at Woowa Brothers, framed Cheonan as the starting point for extending the reusable container service across the wider Chungcheong region.

The number that complicates the story

The case for all of this is not hard to make. South Korean delivery meals generate an average of 18.3 plastic containers and 147.7g of plastic per meal, working out at 1,342 containers and 10.8kg per person per year, and only 45.5 per cent of plastic delivery containers are recyclable. Reusable container orders have grown fast: up 461.6 per cent in 2023, up 140.2 per cent in 2024, and up 23.2 per cent in 2025.

But a report published by SocialValue on 31 August 2026 sets a much less comfortable figure alongside that growth. In Seoul, cumulative restaurant sign-ups to reusable container schemes rose from 2,026 in 2024 to 2,775 in 2025 and 3,014 by August 2026. The number of restaurants actively maintaining the service went the other way: 890 in 2024, 849 in 2025, and 797 in August 2026. More restaurants have tried it every year, and fewer are still doing it.

Rising orders alongside falling active participation is a churn problem at the restaurant end of the loop, not a demand problem at the consumer end, and it is the constraint that decides whether the Cheonan model travels across Chungcheong or stalls. RFID will not fix restaurant churn on its own. But a system that holds the supply, collection, wash and cycle history of every individual container is at least positioned to show where in the loop containers are getting stuck, and for a sector whose sustainability claims usually rest on modelling rather than measurement, that is not a small difference.

Read more at https://www.woowahan.com/newsroom/report

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

Shrewsbury and Telford Hospital NHS Trust, usually shortened to SaTH, is the main provider of acute hospital care for Shropshire, Telford and Wrekin and mid Wales, serving nearly half a million people from just over 700 beds according to the Trust’s own website, though the RFiD Discovery case study describes the two hospitals as 400-bed acute sites. The case study document carries a March 2021 version stamp and RFiD Discovery published the web version on 12 May 2023, so the figures below describe the deployment as it stood in the early 2020s rather than a current count.

The problem: beds that could not be found

Before the tags went on, tracking beds and medical devices at SaTH was, in the Trust’s own account, a real challenge. Acute bed shortages are a standing feature of NHS operations, so a bed that cannot be located for its service or repair is a bed that is effectively out of circulation. Getting beds back into use quickly depends on knowing where they are.

The second problem was loan equipment. Each of the two hospitals runs a manned medical equipment library, and staff there struggled to keep track of what had gone out and where it had ended up. Devices were turning up in cupboards, and technicians had to work back through what the case study frankly calls sketchy manual records to find them. Clinical staff were also losing time hunting for kit that another ward had borrowed.

That pattern is self-reinforcing. When staff cannot rely on equipment being available they start putting devices aside for later, which removes them from the pool and makes availability worse for everyone else.

Why active RFID rather than passive UHF

This is the part worth understanding if you are weighing up a similar rollout. SaTH uses active RFID, which means every tag carries its own battery and broadcasts its unique ID at regular intervals whether or not a reader is nearby. The tag does the talking. A reader within range simply hears it.

Passive UHF, the technology usually branded RAIN RFID, works the other way round. A passive tag has no power source of its own and stays silent until a reader’s radio field energises it, at which point it reflects a signal back. Passive tags are cheaper, thinner and effectively last forever, which makes them excellent for inventory counts, labelled asset registers and anything you are willing to walk up to and scan.

The trade-off is range and initiative. Passive tags typically read over a few metres and only when a reader is deliberately pointed at them, so covering a whole hospital with passive readers means putting readers wherever you want to know something. Active tags read over much longer distances and report continuously, which is what lets a sparse network of fixed readers cover large areas and pick up movement without anyone doing anything. For mobile assets that wander unpredictably across a hospital site, beds and infusion pumps and wheelchairs, that difference is decisive. It is why bed tracking projects tend to land on active RFID even though the tags cost more and eventually need their batteries dealt with.

How the deployment is laid out

SaTH’s system is a hybrid of fixed and mobile reading, which is a pragmatic and fairly common way to cover a hospital without wiring every corridor. The main ward blocks at both hospitals are covered by fixed RFID readers, which pick up tag broadcasts automatically. Everywhere else is covered by daily mobile scanning, using a total of four handheld readers, two per hospital, carried by clinical technicians as they audit the wards.

Both routes feed the same central database, which records where each asset was last seen by the system. Between the fixed readers and the four handhelds, the team regularly captures the locations of 95% of all tagged equipment. That number is the one to hold on to: it is a real operational figure from a real estate rather than a vendor’s laboratory read rate, and it comes from a deliberately partial reader network topped up by people walking round with scanners.

What changed

The headline benefit is the obvious one. “RFiD Discovery enables our technicians to locate beds and other mobile devices quickly and so they can focus on their core tasks of servicing and repair,” said Nigel Watkinson, Medical Engineering Manager at the Trust.

Michael Woffindale, Bed Technologist at SaTH, put the clinical side of it plainly: “The system enables us to have the right equipment available without delay, which is great for patient safety.”

Underneath those quotes are several second-order effects that are easy to miss when scoping this kind of project. Device utilisation improved, which re-established clinical confidence that equipment would be there when needed, and that broke the hoarding cycle described above. Damage to equipment fell noticeably as well, for a slightly uncomfortable but entirely rational reason: users know that medical engineering can see where a device has been.

Infection control gained a capability it simply did not have before. During an outbreak, the infection control team can look back at where a particular bed or device has been and pull it out of service before it spreads anything further. The same audit trail makes it much easier to find and replace a bed or device that has been reported as faulty, rather than leaving it in use until someone stumbles across it.

The system also flags up service dates, so scheduled maintenance on beds happens on schedule instead of being missed. In a maintenance regime that previously relied on finding the asset first, that is a meaningful safety control rather than an administrative nicety.

One detail from the case study is worth repeating for anyone planning a rollout: clinical staff had initial doubts, and came round afterwards. Location tracking in a workplace is not received neutrally, and the reported turnaround came from the system visibly saving clinicians time rather than from the business case.

What comes next at SaTH

On the strength of the results, the Trust is extending the fixed reader network to a total of 58 readers across the two hospitals. More fixed coverage means more equipment movement detected automatically and in real time, and correspondingly less reliance on technicians walking the wards with handhelds.

The Trust also plans to open RFID tracking up to other departments, specifically naming Estates, X-ray and IT, so those teams can tag their own equipment and see location data in the same central software. Shared infrastructure across departments is one of the few genuinely cheap wins in asset tracking, since the readers are already in the ceiling.

Separately, SaTH has been looking at GS1 compliance requirements and considering RFID-enabled asset labels for every medical device to allow quick and accurate auditing. GS1 standards are the global identification standards used across the NHS under the Scan4Safety programme and the Department of Health’s eProcurement strategy, which mandates GS1 identification for every product and every place in English acute trusts. In practice a GS1 asset label is a passive job, so a trust going down that road typically ends up running passive labels for identification and audit alongside active tags for live location, not choosing between them.

About the supplier

RFiD Discovery is the RFID tracking brand of Paragon ID, an identification technology group whose products span transport ticketing, payment, identification and traceability. RFiD Discovery says its systems are used in over 200 hospitals in the UK and beyond, with a track record now in its second decade, and it supplies both active and passive systems, which is why deployments like SaTH’s can mix the two. The company is a GS1 partner and a RAIN Alliance member, and Paragon ID is accredited to ISO 9001.

For more deployments of this kind, see our healthcare and case studies coverage, or the Implementing RFID guide for how to scope a project like this.

Read more at https://www.rfiddiscovery.com/en/inspiration/tracking-beds-at-shrewsbury-telford-nhs-trust

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

The platform is called Securtrasf and is supplied by the Italian firm Biotrac. According to the ASL announcement, it uniquely identifies the patient and then verifies the match between patient, blood sample, blood product and procedure at each stage of the transfusion process, rather than relying on a single check at the point the unit is hung.

The project was requested by Dr Carla Gargiulo, director of the UOC SIMT Frosinone-Alatri, the authority’s immunohaematology and transfusion medicine unit, and coordinated by Ing. Cataldo Loiodice, director of its digitalisation unit. The platform “will guide doctors and healthcare workers step by step in every single phase of the transfusion procedure, guaranteeing maximum safety directly at the patient’s bedside”, the ASL said in its announcement.

The error the system is meant to design out

The stated target is ABO incompatibility, which ASL Frosinone describes as one of the most serious risks in transfusion, capable of triggering a haemolytic reaction and death. As general background, wrong-blood-in-patient events of this kind are rarely laboratory failures. They are overwhelmingly identification failures somewhere in the chain: a sample tube labelled away from the bedside, two patients with similar names on the same ward, or a unit issued for one bed and administered at another. That is why bedside positive patient identification has become the standard countermeasure, and why it only works when the check is made against something physically attached to the patient rather than against a chart, a wallboard or somebody’s recollection of who is in which bed.

Barcode wristbands have carried most of that load in hospitals for two decades. RFID is used alongside or instead of them in blood traceability for the same reasons it appears elsewhere in the supply chain: no line of sight is required, a tag can be read inside a bag or through a sleeve, and multiple items can be resolved in one pass. Neither technology removes human error on its own. Both convert a judgement call into a machine-checkable one, which is the point.

What the announcement does not specify

For anyone assessing the deployment technically, the ASL statement leaves the important details open. It does not state the operating frequency or air interface of the RFID element. That matters more than it might sound. Read range and behaviour near liquids and metal differ sharply between frequency bands, and the choice determines whether a clinician can read a tag from arm’s length with a handheld or has to bring a reader within a few centimetres of the wristband. It also governs which tag and reader hardware the authority is locked into for the life of the system.

Nor does the announcement say where the tags sit. Tagging patient wristbands, tagging blood bags, or doing both are three different projects with three different cost profiles. Wristband tagging is a recurring consumable cost per admission. Bag tagging pushes the tag into a cold chain and, in most services, into a process the blood establishment rather than the hospital controls.

There is also no contract value, no tender or procurement reference, no supplier framework named, and no count of the hospitals or wards covered in the first phase. Biotrac states that Securtrasf is already in use in “numerous advanced healthcare settings” but names none of them, and the company’s own website could not be read at the time of writing because of an expired TLS certificate, so there is no published vendor specification to check the claim against.

Part of a wider digitalisation push

ASL Frosinone frames the rollout as one element of a lean management approach already under way across the organisation, describing the hospital as an integrated ecosystem of processes, technologies and organisational models oriented towards safety and patient centrality. In practice that positions Securtrasf as a workflow project with an identification layer attached, not as an RFID procurement in its own right, which may explain why the technical detail is absent from a public-facing announcement aimed at patients rather than at engineers.

With go-live set for October 2026, the useful questions are the ones the announcement does not answer: which frequency, tags on whom or on what, and how many wards. More on identification technology in clinical settings is collected in our healthcare coverage and our medical coverage.

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

Why Work-in-Progress Visibility Matters

Traditional WIP tracking relies on operators scanning barcodes or entering data manually at each workstation. Both approaches introduce delays and errors. A misread or a skipped scan means the system loses sight of a part, and floor supervisors spend time hunting for missing assemblies rather than managing production flow.

RFID eliminates that dependency. Fixed UHF readers mounted at cell entry and exit points capture tag reads automatically as parts move through. The manufacturing execution system (MES) receives real-time location updates without any operator involvement. At any moment, a production manager can see exactly how many assemblies are queued at station three, how many are in the paint tunnel, and how many are waiting for final inspection. That kind of live visibility lets schedulers catch bottlenecks before they become shutdowns.

Automated Routing and Sequencing

In mixed-model production, routing decisions happen constantly. An automotive plant building multiple vehicle variants on the same line needs to divert specific bodies to specific stations based on their configuration. RFID tags carry the routing data, and programmable logic controllers read that data to actuate conveyors, lifts, and transfer units without any human intervention.

Electronics manufacturers use the same principle at a smaller scale. Printed circuit board assemblies moving through a surface-mount technology line carry trays or carriers fitted with HF RFID tags. Placement machines read the tag to confirm they have the right board type before running the pick-and-place programme. If there is a mismatch, the machine stops rather than building the wrong product. That single check, taking a fraction of a second, prevents an entire batch of scrap.

Quality Checkpoints and Defect Containment

RFID does more than track location. Each tag can carry a status field that gets written at inspection gates. A part that fails a torque check at a fastening station gets its tag updated to reflect a hold status. Downstream readers recognise that status and divert the assembly to a rework area automatically. Nothing flagged for rework reaches the next operation unless the tag has been cleared by a quality technician.

This approach is well established in automotive powertrain manufacturing, where engine blocks move through dozens of machining and assembly operations. Each station writes its results to a tag on the pallet, building a running record of every process parameter. If a torque wrench records an out-of-tolerance reading, the block is quarantined immediately and the tag data gives the quality team a complete history to work from.

Component Genealogy and Traceability

Genealogy tracking links finished products to the specific components used to build them. In automotive, regulators and customers increasingly require manufacturers to be able to recall exactly which batch of brake components went into which vehicles. In electronics, contract manufacturers need to demonstrate component authenticity and lot traceability to their customers.

RFID supports genealogy by recording component associations at the point of fitment. When a tagged subassembly is installed into a tagged parent unit, the MES captures both tag IDs and writes the relationship to a database. If a component recall is issued months later, the query is straightforward: retrieve all parent units whose genealogy records include the affected component lot. Without RFID, that exercise typically involves manually cross-referencing paper records or spreadsheets, a process that takes days rather than minutes.

Choosing the Right Frequency

UHF RFID, operating in the 860 to 960 MHz range, is the dominant choice for manufacturing floor applications because of its read range, read speed, and ability to read multiple tags simultaneously. It suits conveyor tracking, finished goods scanning, and large parts like vehicle bodies or white goods.

HF RFID at 13.56 MHz is preferred where the environment involves metal-intensive assemblies at short range, or where data write cycles are frequent. PCB carriers in electronics manufacturing often use HF tags for this reason, as the controlled read distances reduce the risk of reading the wrong tag in a densely packed environment.

The Real Dividend

Manufacturers who deploy RFID for WIP tracking consistently report reductions in lost parts, faster root cause analysis when defects emerge, and leaner buffer stocks because they can see exactly what is in process. The technology is not new, but the integration of RFID data with MES platforms, ERP systems, and analytics tools has matured considerably. For any plant still relying on barcodes and manual entry to manage the shop floor, the gap in capability is now substantial enough to justify a serious look at what UHF and HF RFID can deliver.

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

Walk into any modern distribution centre or retail stockroom and you are surrounded by RFID technology working quietly in the background. Boxes are counted, pallets are verified, and inventory records update themselves in real time. What makes all of this possible is not just clever hardware, it is the layered stack of global standards that ensure a reader from one manufacturer can talk to a tag made by another, regardless of where either was produced.

Why Interoperability Is the Foundation of RFID Adoption

Interoperability is the single most important concept in industrial RFID. Without agreed standards, every vendor would implement their own air interface protocol, their own data encoding, and their own command set. The result would be a fragmented ecosystem where switching reader suppliers locks you into a tag re-labelling project, and where cross-border supply chains break down at customs because the scanning infrastructure on one side of the border cannot read what was written on the other.

Standards solve this problem by defining exactly how a reader interrogates a tag, how the tag responds, how data is encoded in memory, and how collisions between multiple tags in the field are handled. When everyone follows the same rulebook, competition shifts to where it belongs: performance, form factor, price, and software integration.

EPC Gen2 and ISO 18000-63: The UHF Backbone

The dominant standard in UHF RFID today is EPC Gen2, formally known as ISO 18000-63. Developed originally by EPCglobal and now maintained under the GS1 umbrella, Gen2 defines the air interface protocol for passive UHF tags operating in the 860 to 960 MHz range. It specifies the modulation scheme, the anti-collision algorithm (a slotted Aloha variant called the Q algorithm), the command structure, and the four memory banks that every compliant tag carries: Reserved, EPC, TID, and User.

The second generation of this standard introduced significant improvements over Gen1, including a denser anti-collision protocol capable of handling hundreds of tags per second, better security through the kill and lock commands, and a Tag Identification (TID) bank that carries a unique manufacturer-assigned identifier. A later revision, sometimes referred to as Gen2v2 or ISO 18000-63:2015, added cryptographic authentication and secured access commands, addressing earlier criticism that passive UHF tags offered no real protection against cloning.

The Broader ISO 18000 Family

ISO 18000 is not a single standard but a family covering multiple frequency bands. ISO 18000-2 covers LF at 135 kHz, used heavily in animal identification and some access control applications. ISO 18000-3 covers HF at 13.56 MHz, with Mode 1 aligning closely with ISO 15693 used in library and pharmaceutical tagging, and Mode 3 being the foundation for NFC. ISO 18000-6 (now split into parts and updated through the 18000-63 designation) covers UHF, and ISO 18000-4 covers microwave at 2.45 GHz, seen in some real-time location systems.

Each part of the family reflects the physics of the frequency band it governs. LF and HF operate primarily through inductive coupling, which is resilient near liquids and metals but offers short read ranges. UHF operates through far-field propagation, enabling the multi-metre read ranges that make it attractive for logistics, retail, and supply chain applications.

Regional Frequency Regulations: FCC and ETSI

One of the persistent complications in global UHF RFID deployment is that the frequency spectrum is regulated nationally and regionally, not globally. In North America, the FCC allocates the 902 to 928 MHz band for UHF RFID, permitting frequency hopping across this 26 MHz spread. In Europe, ETSI governs the allocation, and the permitted band is 865 to 868 MHz, a considerably narrower window with lower power limits and listen-before-talk requirements designed to reduce interference.

Japan, Australia, China, India, and other regions each have their own allocations, most of which fall somewhere within the 860 to 960 MHz envelope that EPC Gen2 was designed to accommodate. Tag and reader manufacturers handle this through multi-region firmware and antenna designs tuned to perform across the full band. However, the regulatory differences in power output, duty cycle, and channel access rules mean that a system optimised for a large North American warehouse cannot simply be transplanted to a European distribution centre without adjustment.

ETSI EN 302 208 is the key European standard governing UHF RFID equipment, and compliance with it is mandatory for CE-marked products sold in the European market. Understanding the difference between FCC Part 15 and ETSI EN 302 208 requirements is essential for anyone deploying RFID across international supply chains.

What GS1 Brings to the Table

GS1 is the global standards organisation best known for the barcode, but its role in RFID is equally significant. GS1 manages the EPC (Electronic Product Code) numbering scheme, which sits in the EPC memory bank of every Gen2 tag. The EPC is not just a number; it is a structured identifier that can encode a GS1 SGTIN (Serialised Global Trade Item Number), an SSCC for logistics units, a SGLN for locations, or several other GS1 application identifiers.

This matters because the EPC ties the physical tag to a globally unique identity that integrates directly with existing GS1 barcoding infrastructure. A manufacturer already using GTIN barcodes on product packaging can extend that same identity into the RFID domain without redesigning their product numbering. GS1 also publishes the EPCIS standard (Electronic Product Code Information Services), which defines how tag read events are structured, shared, and queried across trading partners, forming the data exchange layer above the air interface protocols.

GS1’s governance of the EPC namespace, combined with the technical rigour of ISO 18000-63, gives the global supply chain a coherent and scalable RFID framework. It is why RAIN RFID, the industry alliance promoting passive UHF RFID, builds its ecosystem directly on EPC Gen2 and GS1 standards.

Looking Beyond the Current Standards

The standards landscape continues to evolve. Battery-assisted passive (BAP) tags are gaining traction for applications requiring longer read ranges or sensor data logging, and these are addressed under extensions to the ISO 18000 framework. The convergence of RFID with IoT architectures is driving interest in tags capable of returning sensor readings alongside their identity, something that future revisions to the air interface standards are expected to address more formally.

For anyone deploying RFID today, the practical takeaway is straightforward. Build on EPC Gen2 and ISO 18000-63 for UHF applications. Verify regional frequency compliance before purchasing equipment for international sites. Encode data using GS1 schemes if supply chain visibility and partner integration are objectives. And keep one eye on the standards bodies, because the next generation of enhancements is already in development.

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

That is the whole of it. The tag is deliberately stupid, because stupid is cheap and cheap is what lets a retailer put one on every coat in the building. Which raises the more interesting questions. What is inside that plastic, why does the pin never pull out, why do the gates sometimes beep at the wrong person, and what actually happens if you get home and find one still attached? Let us follow a single tag from the factory floor to your kitchen table.

The tag goes on before the shop ever sees it

Twenty years ago a stockroom assistant clipped tags on by hand. Today most large retailers use source tagging: the tag is fitted at the factory or the distribution centre, so the garment reaches the shop floor already protected, and no rail of untagged stock ever sits out on display.

What you are looking at is called electronic article surveillance, or EAS. That name matters, because EAS is a completely different thing from the technology most people assume is involved. It came out of the 1960s, long before anything digital was cheap, and it has barely changed since, because it does not need to.

What is actually inside the plastic

Crack one open, which you should not do, and you will find something disappointingly simple. There are two competing designs on British high streets.

The first is radio frequency, or RF, and it is a flat coil of wire connected to a small capacitor, which is a component that stores a little electrical charge. Together they form a circuit tuned to resonate at 8.2 megahertz. Think of it as a tuning fork for radio waves. Hit it with the right frequency and it sings back.

The second is acousto-magnetic, or AM, and it is more elegant. Inside is a strip of alloy that physically vibrates in a magnetic field, next to a magnetised strip that sets the pitch. The gates send a pulse at 58 kilohertz, then go quiet and listen. The strip rings on for a few milliseconds after the pulse stops, like a struck bell, and the gate hears it in the silence. Because it listens in the gap rather than through its own transmission, AM shrugs off interference that would swamp RF, which is why supermarkets use it. RF is cheaper and dominates fashion.

Neither type carries an identity. Every RF tag in Britain is tuned to the same 8.2 megahertz. Every AM tag rings at the same 58 kilohertz. The gate cannot tell a jumper from a jacket from a bottle of gin. It knows one thing: something live went past.

Why the pin will not come out

The pin pushed through the fabric is held by a ball clutch, a tiny cone containing three or four steel ball bearings pressed inward by a spring. Push the pin in and the balls roll aside. Pull it back and they wedge tighter, exactly like a cable tie. Brute force will not open it, it will only tear the garment, which is rather the point.

The detacher pad on the counter is a very strong permanent magnet, usually neodymium, that pulls the ball bearings outward against their spring so the pin slides free. Standard tags release at around 12,000 gauss, and retailers plagued by stolen detachers move to stronger locks. When an assistant thumps a tag against the pad twice, they are just getting the geometry right, because the magnet has to sit directly under the clutch.

The ink question

Most hard tags contain nothing but plastic and a resonator. A minority, called benefit denial tags, do carry small glass vials of permanent dye, and they are usually easy to spot because the dye reservoirs show as coloured dots or fins on the tag body. The logic is blunt: if the thief cannot wear the coat without ruining it, stealing it gains them nothing.

They are less common in the UK than the internet suggests, partly because a burst dye vial in a fitting room is an expensive mess and partly because retailers do not love the optics. If you have a plain round or square tag with no coloured capsules visible, you almost certainly have no ink to worry about. Either way, do not try to prise it open at home.

The gates at the door, and the innocent beep

The two pedestals you walk between are a transmitter and a receiver, sweeping their frequency and listening for a tag answering back. When they hear one they beep, flash and, in some stores, quietly log the time so the shop can see when losses cluster.

Now, why perfectly honest people set them off. Soft EAS labels, the flat white stickers on packaging, are not removed at the till but deactivated: a pad at the checkout kills the tuned circuit so it can no longer resonate. That is not always complete. A label slightly off the pad, or held at an awkward angle, can survive with just enough response to trip a sensitive gate three shops down the road.

Then there is everything else that happens to resonate near 8.2 megahertz: certain metal objects, some cosmetic packaging, occasionally a medical device. Retailers know. They tune the gates below maximum sensitivity, accepting that they will miss some real thefts rather than accuse a customer every four minutes. False alarms are not a bug, they are a commercial setting chosen with a spreadsheet.

The newer tag that does know what it is

Alongside the old EAS lump, a second kind of tag has quietly taken over British clothing retail, and it is the one people confuse with the first. Look at the swing ticket on a new item from Marks and Spencer, Zara, Primark, John Lewis or Decathlon and you will often find a paper label with a fine metallic antenna printed inside it. That is an RFID tag, short for radio frequency identification, and unlike the plastic one it carries a unique serial number for that exact garment.

This is what lets a shop assistant wave a handheld reader along a rail and count a thousand items a minute, or tell you in seconds whether the size 10 exists in the stockroom. Marks and Spencer was one of the earliest large adopters in the world, and our piece on how M&S handled the technical challenges is a decent read on what that took. If you want to know what is physically inside one of those labels, we pulled one apart in anatomy of an RFID tag.

Some retailers now use these RFID labels for security too, replacing the old gates with readers that can announce not just that something left, but exactly which item it was. The plastic tag is slowly on its way out. It will take years.

What happens if you get home with one still on

First, nothing. It is not transmitting, it is not tracking you and nobody is coming. It has no power source and it is inert unless it is standing between two pedestals.

Take it back with your receipt and any assistant will remove it in seconds. The same chain helps, because detachers are keyed by strength and type, but you rarely need the exact branch. What you should not do is attack it with pliers, a lighter or a screwdriver. You will destroy the garment, and if it is one of the ink versions you will destroy it spectacularly.

And if the alarm goes off while you are walking out of a shop you have done nothing wrong in: stop, smile, show the receipt. Staff deal with this constantly. In England and Wales the police recorded 530,643 shoplifting offences in the year to March 2025, the highest since current records began, and the British Retail Consortium counted 5.5 million detected incidents costing retailers close to £400 million. Against numbers like that, the gates stay switched on and slightly over-eager, and the rest of us occasionally get beeped at.

Frequently asked questions

Do security tags on clothes track you?

No. A standard EAS tag has no battery, no serial number and no memory. It responds to a specific radio frequency at the shop door and is inert everywhere else. Even the newer RFID labels, which do carry a serial number, can only be read from a few metres by a purpose built reader, and there is no network of them outside shops.

What happens if I leave a shop with a security tag still attached?

The alarm may sound as you pass the gates. If it does, show your receipt and staff will remove the tag. If you get home and find it, take it back to any branch of the same retailer with proof of purchase and they will take it off. There is no penalty and no record kept against you.

Do all security tags contain ink?

No, and most do not. Ink tags are a specific product called benefit denial, and they usually show visible dye capsules on the body of the tag. Plain tags with no coloured vials contain only a resonating circuit.

Why did the alarm go off when I had not stolen anything?

Almost always a label from an earlier purchase that was not fully deactivated, or an object that happens to resonate near the same frequency.

Can a magnet remove a security tag at home?

A sufficiently strong magnet will release a standard clutch, which is precisely why retailers increasingly fit higher strength locks that domestic magnets cannot open. Trying it on an ink tag risks ruining the garment.

What is the difference between the plastic tag and the paper label with a metal pattern?

The plastic tag is EAS, an alarm device that knows nothing. The paper label with the printed antenna is RFID, which carries a unique number for that individual item and is used for stock counting as well as security.

We explain the everyday technology hiding in plain sight, one piece at a time. Join the RFID News newsletter for the next one, or browse everything we have written about RFID in retail.

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

The site tagged more than 2,000 movable assets with passive ultra high frequency (UHF) RFID tags and ran the system for 12 months. Passive UHF tags carry no battery: each harvests energy from the reader’s radio signal in order to reply, which lets a fixed reader or a handheld identify hundreds of items in bulk from a few metres away.

Why asset control breaks down on a Tanzanian mine site

Tanzania is one of East Africa’s major gold producers, with gold accounting for close to half of the country’s total merchandise exports. Many of its mid-sized mines sit in the gold belt around Lake Victoria, where movable assets such as excavator parts, maintenance tools, generator sets and pump and valve spares have long been lost to theft, unauthorised borrowing and simple disappearance.

The source names three reasons. The first is the ground itself. Many Tanzanian gold mines run open pit and underground operations side by side, with working faces, repair stations and storage areas scattered across the concession, some tens of kilometres from the main gate. The climate is hot, humid and dusty, so paper ledgers and barcode labels corrode and peel off, and the lack of a satellite signal underground rules out GPS tracking at scale.

The second is the workforce. Tanzanian mining leans heavily on outsourced crews and temporary labour, so tools move constantly between in-house teams and contractors. Manual registration gave no formal process for lending equipment and no trail for tools used across areas, and assets were sometimes taken off site altogether.

The third is the pace of digitalisation. One round of hand counting took three staff two full days, with miscounts common enough that book records did not match what was on the ground, and weak asset control kept insurance premiums high. Industry research cited by the source puts the loss across large and mid-sized East African gold mines at 5% to 15% of annual operating budget each year, and notes that a single missing generator or drilling pump can stop a whole shift at a cost of thousands of US dollars an hour.

What the mine deployed

The system has four parts: metal-tolerant ceramic industrial tags, fixed readers at the entry and exit points, handheld terminals for site patrols, and a cloud asset management platform, all specified for high temperature, vibration and the metal interference that comes with tagging steel plant. Each asset was tagged with an IP68-rated anti-tamper tag carrying a unique electronic identity code, IP68 meaning the enclosure is dust tight and survives prolonged immersion in water.

RFID gate portals at the entrances and exits trigger an audible and visual alarm the moment a tagged asset tries to leave the controlled area without approval. Handheld scanners let managers sweep the site for missing equipment, turning searches that used to take days into a job of minutes. Check-in, issue, transfer, return and maintenance are captured automatically, with no manual ledger entry.

The reported results after 12 months

Alongside the 73% year on year fall in the loss rate and payback inside 11 months, the source reports that gate alerts alone avoided roughly USD 120,000 of theft and unauthorised removal losses in the first quarter after go-live, and that replacement equipment procurement costs fell by USD 85,000 a year.

The mine also won a 12% cut in its insurance premium rate on the back of the improved asset control, and recorded a 4% rise in overall equipment availability as interruptions caused by missing tools became less frequent. Stocktaking dropped from a two-day manual count to a two-hour automated sweep, saving 480 labour hours a year. More deployments of this kind sit in the asset tracking archive.

Why passive UHF rather than active tracking

The case for passive UHF over active locating equipment is one of cost and durability. Active tags carry a battery and transmit on their own, buying longer range at the price of replacement cycles and heat sensitivity. Passive tags tolerate high temperatures, cost a moderate amount to deploy and can be read in bulk, which suits the budgets and conditions of Africa’s many smaller mines. The source describes the system only as passive UHF and does not name an air interface standard.

The wider driver is compliance. The Tanzanian government has been pushing digitalisation across its mining sector, and responsible sourcing rules are tightening: the London Bullion Market Association’s responsible gold guidance obliges accredited refiners to verify the provenance of the gold they buy. Beyond tracing the ore, the source argues that digital asset management is becoming a baseline capability for a modern mine, and expects operations in Kenya and Ghana to follow.

Read more at https://www.rfidworld.com.cn/news/2609_5167C2CDE4223B3B.html

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

In the pilot behind the request, the job of the slaughter mark is taken over by an electronic ear tag carrying an RFID chip. Erik Stiphout of POV, the Producenten Organisatie Varkenshouderij and the body representing Dutch pig farmers, has set out the approval route that would make such a tag acceptable as a slaughter mark. Slaughterhouse Westfort in IJsselstein holds special permission from the agriculture ministry and the NVWA, the Netherlands Food and Consumer Product Safety Authority, to run the pilot. Boerderij also names the animal nutrition company Denkavit as a research site, and describes the wider sector response as hesitant.

What a slachtblik is, and why it suddenly matters

The slachtblik is a small metal mark applied to a pig before it leaves the farm for slaughter. It carries the UBN, the uniek bedrijfsnummer or unique business number of the holding where the animal was last kept, and that is what lets an abattoir tie a carcass back to a farm. It sits alongside the separate I&R (identificatie en registratie) ear tag Dutch rules already require, which under guidance from RVO, the Netherlands Enterprise Agency that administers livestock identification, must be fitted within a week of weaning or three months after birth at the very latest. The klopmerk, the tattoo hammer mark struck onto the animal, has been banned in the Netherlands since 1 January 2024.

So a Dutch pig can be marked twice: once for identification and registration, once again for slaughter. That second handling event is the one the sector wants to remove.

The electric prod ban changed the arithmetic

The urgency comes from a separate welfare rule. From 1 January 2026 the Netherlands banned electric livestock prods, veeprikkers, on animals kept for production, a change Minister Femke Wiersma confirmed in December 2025. It covers moving animals on farm and loading and unloading for transport within the Netherlands, for all production animals including pigs. Vets may still use a prod where a veterinary procedure requires it, and a narrow slaughterhouse exemption survives: adult pigs and cattle that refuse to move when they have room to do so, one second per shock at most, hind legs only, with sufficient time in between. Breaching the ban counts as animal abuse under the Dutch Animal Act, the Wet dieren, and the NVWA can enforce it administratively and criminally.

Take the prod away and pinning a metal mark to a pig becomes a slower, more awkward job. That is the practical driver behind asking for a chip.

Seven years of proof at Westfort

The strongest argument for the switch is that one Dutch chain has already been doing it, under exemption, since 2019. Keten Duurzaam Varkensvlees (KDV), an integrated Dutch pork chain built up over 25 years and chaired by Jaap de Wit, delivered its first slachtblikvrije pigs, animals with no slaughter mark, to Westfort, its own slaughterhouse, on 26 April 2019. Twenty pig farms held an exemption from the agriculture ministry and the NVWA for that pilot, which ran to the end of 2019 and was later extended.

Adoption inside the chain has grown steadily rather than dramatically. Around 260 UBNs are connected to KDV, and roughly 160 of those now work with individual animal identification using RFID chips; 45 KDV companies use the UHF ear tags. By 2020 close to 150 UBNs had implemented the system, 26 of them joining during that year and a further 15 starting for 2021.

What the tag actually carries

KDV’s ear tags carry a UHF RFID chip, confirmed by KDV itself. The technology was developed with the Dutch ICT company LeeO, which supplies the app and data platform behind it, and was trialled on five farms before wider rollout.

Crucially, the tag goes in at birth rather than at weaning, so the animal carries one identity for its whole life. The record behind that identity holds birth date, sex, parental genetics and every treatment the pig has received, antibiotic use included, in a cloud database. Read on the slaughter line, the tag returns the animal’s complete history, and that is what underpins KDV’s Antibioticavrij Leven Garantie, its antibiotic-free life guarantee. KDV claims to be the first chain in the world to track individual pigs from birth to slaughter this way. Its proposal is to collapse the two mandatory marks, the I&R ear tag and the slaughter mark, into one RFID ear tag, removing a handling event per animal.

Read rates and cost: the numbers come from Belgium

The Dutch pilots have not published read-rate figures. The Belgian work has. In May 2026 the Flemish agricultural outlet VILT reported on PigID, a June 2023 to 2027 project coordinated by Sander Palmans at PVL Bocholt with the research institute ILVO and the animal health body DGZ, aimed at farm-level efficiency as much as traceability. At the Comeco slaughterhouse, eight ear tag readers were installed along the processing line and the system achieves a read rate of 90 to 95 percent. Those appear to be the only hard read-rate figures publicly available for pig ear tagging on a slaughter line, and they belong to the Belgian pilot, not the Dutch one. The causes of the missing 5 to 10 percent will be familiar to anyone who has commissioned a portal: tag loss, moisture, metal interference, tag quality and line speed.

Belgium is also candid about cost. HF tags come in at around EUR 0.60 each but are moisture-sensitive; LF alternatives cost roughly double and are more durable. At 7,000 to 8,000 pigs a year on a single farm, that difference is not trivial. Note that this is an HF versus LF comparison, a different technology choice from the UHF tags the Dutch KDV chain uses. The frequency question is genuinely unsettled across the two countries, so a Belgian cost figure will not translate. Our explainer on LF RFID at 125 kHz and the RFID glossary set out what each band trades away.

Michael Gore, chief executive of the Belgian slaughterhouse federation FEBEV, wants electronic ear tags in Belgium too, calling the klophamer “an archaic practice that must stop” and saying that with today’s technology the switch must be possible. Ann Heylels of the Department of Animal Welfare counters that the stamping device is legally permitted and strictly regulated, with veterinary inspectors monitoring its use. Belgian advocates point across the border at the Dutch ban of 2024.

What still has to change, and what is not settled

The regulatory gap is easy to verify: RVO’s current guidance does not list RFID as a permitted slaughter mark. Until that changes, every RFID-only pig in the Netherlands moves under an exemption granted case by case, the position Westfort and the KDV farms have occupied since 2019.

Three caveats belong with this story. The 1 January 2027 target rests on the Boerderij reporting alone; no statement from POV, the ministry or the NVWA independently confirming that date could be found, so read it as a sector ask, not a government decision. The sector response is described as hesitant, which for an industry facing a per-animal tag cost is no surprise. And who pays, the farmer who fits the tag or the abattoir that reads it, has not been settled in public in either country.

What has changed is the burden of proof. A chain that has run without a slaughter mark for seven years, on a live commercial line, is a harder thing to argue against than a proposal. More on identification schemes in our animal tagging coverage, including bovine EID in Northern Ireland and a swine RFID programme aimed at disease preparedness.

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

By launch day on 25 August 2026, 11,100 people had activated the credential. Fewer than 20% of that summer’s orientation attendees chose to take a physical card at all.

What a mobile BuckID opens and pays for

Ohio State is a public university in Columbus, Ohio, and one of the largest in the United States by enrolment, so a BuckID touches a lot of daily life. The mobile version covers residence hall and academic building access, dining locations, off-campus merchants that accept BuckID, recreation facilities, printing and copying, and timeclocks.

“A BuckID provides access to all kinds of important things at Ohio State,” said Josh Bodnar, director of BuckID. Every Columbus campus building that accepted a physical BuckID was due to accept the mobile credential before the autumn semester started.

The readers were already there

Mobile BuckID is read by the tap-enabled NFC readers already fitted across campus, the same contactless units that read the chip in the physical card. That is the part worth noting for anyone planning a similar project. Ohio State added a tap-to-pay chip to the physical BuckID in 2022, moving the campus from swipe to tap several years before the phone credential arrived, so the mobile rollout did not need a door hardware replacement programme behind it.

As general background, mobile campus credentials in the Apple, Google and Samsung wallets are provisioned as NFC applets inside the phone’s secure element, a tamper-resistant chip kept separate from the main processor, and they are read over the same 13.56 MHz contactless interface as a conventional contactless smart card. Ohio State has not named the credential platform vendor behind Mobile BuckID.

Two features do the practical work of making a phone credible as a door key. Apple’s Express Mode means the device does not need to be unlocked to tap, so a phone pulled from a pocket behaves like a card. Battery Reserve keeps the credential working for several hours after a compatible iPhone or Samsung Galaxy device has powered down on a low battery, which answers the obvious objection that a flat phone locks you out of your own room. Supported hardware includes compatible iPhone models, Apple Watch, eligible Android phones, and Samsung Galaxy devices including Samsung watches.

Activating it, and who cannot

Provisioning runs through the Ohio State app: users open the BuckID section and tap “Ready to Provision”. Two prerequisites have to be in place first, a photo on file, which is reviewed in three to five business days, and multi-factor authentication enabled. Only one credential is active per person, so activating the mobile version deactivates the physical card.

Not everyone at the university could switch. Some people at the Wexner Medical Center and some of the health science colleges were not eligible at launch. Students in fully online programmes and remote employees can use a basic digital BuckID in the Ohio State App instead. The rollout covers the Columbus campus only, with regional campuses planned for 2027.

A year early, and one thing dropping off

The university had originally targeted 2027 for a mobile credential and delivered it a year ahead of that after advocacy from student government. “Mobile is always kind of where we were headed… We have managed to beat that goal by a whole year,” Bodnar said.

One capability is moving in the other direction. Support for physical BuckID cards on COTA, the Central Ohio Transit Authority bus network that serves the Columbus area, ends at the close of 2026. From 2027, riders use either the Ohio State app or a transit card issued by COTA.

Campus and workplace credentials have been one of the steadier drivers of NFC deployment, and more coverage sits in our NFC and access control sections.

Read more at https://news.osu.edu/mobile-buckid-now-available-for-columbus-campus

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

The scheme is TARIP, short for tariffa puntuale, Italy’s version of pay-as-you-throw. Under the older TARI arrangement a waste bill is calculated largely from the floor area of the property and the number of occupants, so two houses of the same size pay the same whether they fill a bin a week or one a month. TARIP replaces the variable part of that sum with a count of what the household has actually presented for collection.

What carries the tag, and what does not

In Fossacesia the mastelli, the kerbside bins issued to each address, and the sacchetti, the sacks used for indifferenziato or residual waste, carry an RFID tag tied to an individual user account. Every time the residual container is emptied, the system records a conferimento, a disposal event, against that account. Fewer residual presentations across the year means a smaller variable charge.

Only the residual stream is metered. Organic, paper, plastic, glass and metals are collected as before, with no per-emptying count attached, and that asymmetry is the incentive the design turns on: material moved out of the residual bin and into a separated fraction stops costing the household money. In summer, residual waste is collected once a week for all users.

Bin-identification schemes of this kind generally work in one of two ways. On a wheeled bin the tag sits in the body or the lip, and is read by an antenna on the collection vehicle as the lifter raises the bin, or by a crew member with a handheld unit. Tagged sacks are read at the point of collection instead. Neither the municipality nor the contractor has published which tag technology Fossacesia has chosen.

5,370 accounts, and where to collect a bin

The rollout covers 5,052 domestic users and 318 non-domestic users, 5,370 in total. Distribution of the tagged bins began on 20 July 2026 at the municipal Infopoint, and containers are issued from the EcoPoint office at the town hall on 0872 622230, open Monday to Wednesday plus Friday and Saturday 08:30 to 12:30, and Thursday 15:00 to 18:30.

The contractor running the collection is EcoLan SpA, a publicly owned waste management company serving municipalities across the Chieti area. Fossacesia did not go straight to a full switch: the Villa Scorciosa district ran the scheme as a pilot from 1 January 2026, after a public assembly the previous October and bin distribution that November. The wider scheme was presented to the town on 4 June 2026 at the municipal theatre.

The seasonal problem at the Marina

Fossacesia Marina, the town’s seaside district, is the awkward part. Its population swells with second-home owners, tourists and seasonal businesses, none of which produce waste on the same rhythm as a year-round household. A dedicated public meeting for the Marina was held at 21:00 on Wednesday 19 August 2026 in the piazza of the Stella Maris church on the northern seafront. Mayor Enrico Di Giuseppantonio said the August date was chosen deliberately, because that is when residents, second-home owners, tourists and businesses are all present at once.

Speaking in Italian, Di Giuseppantonio described TARIP as an important step towards fairer, more efficient and more sustainable waste management, the principle being to tie the tariff more closely to the quantity of residual waste produced. Environment assessor Umberto Petrosemolo said the council had carried out a careful analysis of the different types of user present at the Marina, particularly along the seafront and the Statale 16 Adriatica, work done by the finance and tax office with EcoLan and, in his words, essential to arriving prepared for the extension of TARIP. Laura Scutti, who heads that department, has fronted the public meetings alongside EcoLan president Massimo Ranieri and services director Gabriele Di Pietro.

What happened at Lanciano

EcoLan has a comparable result to point at. Lanciano, a larger town in the same province, started TARIP on 1 January 2025. Its residual waste fell from 3,841 tonnes in 2024 to 2,840 tonnes in 2025, a drop of roughly 1,000 tonnes in a single year, which Ranieri has linked to around EUR 530,000 in avoided disposal costs. The material did not disappear, it moved: mixed packaging rose from 1,500 to 1,700 tonnes and paper and card from 2,500 to 2,700 tonnes. Lanciano’s separate collection rate reached 81.2%.

Why 2027 and not 2028

The regulatory driver is a national one. TARIP becomes mandatory for all Italian municipalities from 2028, so towns the size of Fossacesia are effectively choosing whether to reach that deadline with the bins already tagged and the user database cleaned up, or to do the whole thing in a rush. Fossacesia has opted for the first.

More deployments of chipped bins and metered collections are covered in the RFID News waste management section.

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

The problem it describes will be familiar to any fire and rescue service. After a large incident, kit comes off the vehicle, gets used, gets contaminated, and has to be cleaned, tested and put back. A vehicle is only available for the next call if it is fully stocked, so the completeness check matters as much as the maintenance does. Requirements for documentation and traceability keep growing at the same time, and much of the checking is still done by hand against a printed inventory.

Giving each item a digital identity

The approach FEIG sets out is asset tracking of the plainest kind: fit each piece of equipment with a rugged, battery-free UHF RFID transponder. That gives the object a unique identifier which stays with it for its whole working life, so anything done to it, a pressure test on a hose, a service on a cutter, a check on a breathing set, can be logged against that identifier rather than against a handwritten asset number on a card.

For the completeness check, FEIG points to fixed RFID readers such as its LRU4000X paired with a LOCFIELD antenna installed in the vehicle itself. The reader takes an inventory of what is in the lockers and compares it against the intended load, so a missing item can be flagged to the crew there and then rather than discovered at the next shout. For workshop and maintenance work, the handheld ID ECCO+ presents itself to a phone or tablet as a Bluetooth keyboard, which means an existing maintenance form or app can accept tag reads without being rewritten around RFID.

Why UHF suits a fire appliance locker

UHF RFID, meaning EPC Gen2 and ISO 18000-63 tags read in the 865 to 868 MHz band in Europe, fits this job for reasons that go beyond convenience. It needs no line of sight, so a whole compartment of stacked hose and cased equipment can be read in a single pass with nothing unpacked or presented to a scanner. The tags are passive, drawing their power from the reader, so there is no battery to go flat in a locker over several years. And a hardened tag can be specified to survive the heat, water, foam and decontamination washing that firefighting kit goes through.

The awkward part of UHF is that it reads too well. A conventional panel antenna on an appliance parked in a bay would cheerfully read the tags on the vehicle next to it, and return a completeness check that passes because the missing hose is sitting on somebody else’s truck. That is the point of LOCFIELD-type antennas: they are near-field UHF antennas built as a radiating cable, so the read zone follows the cable run through the locker and drops away sharply beyond it. The zone is defined by where the cable is routed rather than by turning the power down and hoping for the best.

FEIG names no customer, no fire service and no deployment figure in the announcement, and it is candid that this is not new ground: several suppliers already sell equipment management systems of this sort into the fire and rescue sector. The argument being made is that the technology has settled down enough to be treated as ordinary kit, and that the return on it is measured in time crews do not spend counting items and writing the count down.

Read more at https://www.feig.de/en/news-en/rfid-technology-helps-fire-departments/

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

LOGISTEED is one of Japan’s largest third-party logistics providers. It was known as Hitachi Transport System until 1 April 2023, when it was renamed following KKR’s acquisition of the business; KKR holds 90 per cent of the voting shares in the holding company and Hitachi retains 10 per cent. Its work spans logistics system integration, inventory and order control, logistics centre operations, factory logistics, transport and delivery, and international forwarding. SCLINK+ is the group’s cloud platform for supply chain data, holding orders, shipments, transport, storage and delivery records in one place, along with the drawings, images, documents and messages attached to a given project.

The problem on a construction project

Building materials information tends to be scattered. LOGISTEED describes information held across multiple Excel files, PDFs and other sources, which makes finding and updating a given detail slow. Coordination between the manufacturers, distributors, procurement staff at general contractors and site managers involved in a project still runs largely on email and telephone calls, so simply confirming what has shipped and what has arrived takes real effort. The pitch for the new service is an environment where every party works from the same live picture rather than from their own copy of it.

What the RFID integration adds

Tagging the physical items and reading them into SCLINK+ attaches the supply chain record to the object itself. That gives location, movement history and status in real time rather than as a periodic manual update. LOGISTEED says the accumulated read data can then be analysed to establish realistic lead times for particular building materials and to flag the risk of a process running late while there is still time to react, which is the more interesting half of the claim: on a construction programme, knowing a delivery is drifting two weeks out is worth considerably more than knowing it arrived.

What has not been disclosed

LOGISTEED has not published the operating frequency, the air interface standard, the tag construction or the reader hardware used, and it has not named a customer. Those details matter more than usual on a building site, and any buyer should ask about them. Read performance depends heavily on what surrounds a tag, and sites are full of steel, reinforced concrete, water and dense packaging. Tags fixed to materials stored outdoors have to survive weather, UV exposure and rough handling for the length of a build. And whether reads come from handhelds carried by site staff or from fixed portals at gates and loading bays changes both the labour involved and how complete the data ends up being. None of that is a comment on the LOGISTEED product; it is the general set of questions any RFID construction materials tracking deployment has to answer.

Where it runs now

The service is already in use at major construction companies and building services contractors in Japan, which LOGISTEED says has improved both materials management and process management on those projects. The company has not named any of them. Its stated plan is to widen the scope to manufacturers’ production logistics upstream, and downstream to transport within the site itself and to installation.

More on building materials supply chain visibility and construction logistics RFID in our Logistics and Asset Tracking sections.

Read more at https://www.logisteed.com/en/news/news-release/202608314071/

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

Where the system went live

The first ICCV deployment covers the hemodynamics and arrhythmia rooms. These are the catheterisation labs where stents, catheters, guidewires, pacemakers and implantable defibrillators are consumed, which makes them close to a worst case for manual stock control: high unit values, tight expiry windows, batch and serial numbers that have to survive into the patient record, and clinical staff who should not be doing data entry mid-procedure.

Under the new system, tagged material is registered automatically at the moment of use and assigned directly to the patient it was used on. The hospital set out four objectives for it:

• guarantee complete traceability of material
• prevent the use of expired or incorrect devices
• tighten inventory control and cut administrative errors
• release management time back to direct patient care

“Assigned directly to the patient” is the phrase doing the most work there. It means the unique tag identifier on a specific device, not just its product code, is written against a specific episode of care. When a manufacturer issues a field safety notice on a particular lot, the hospital can answer the only question that matters, which is who has that lot inside them, from a database query rather than a search through paper theatre logs. The same record set makes expiry enforcement a check the system performs rather than a check a nurse remembers to perform.

Why RAIN RFID and not barcodes

As we reported in our July 2026 look at the programme twenty months in, the Clinic runs UHF RFID in the 860 to 960 MHz band, the air interface commonly branded RAIN RFID, with fixed antennae at transition points, a middleware layer that filters and de-duplicates tag reads, and integration into the hospital’s SAP ERP. That choice is not incidental. A barcode has to be presented individually, in the right orientation, in a clean line of sight. A UHF tag does not. A tray of thirty items passing an antenna in a doorway reads as thirty items in a fraction of a second, through packaging, without anyone stopping to scan. In a catheter lab that difference is the whole business case, because the alternative is asking a scrub nurse to scan each item during a procedure, which is exactly the burden the hospital was trying to remove.

The build has been a partnership rather than an off-the-shelf purchase. Cardiva, a Spanish medical technology distributor, is the implementation partner, and Dipole, an RFID systems integrator, supplies the tagging and reader infrastructure. AECOC-GS1 Espana provides the standards layer that keeps tag data portable between organisations.

What the clinical and management sides say it changed

Marc Trilla, Care Coordinator of the Cardiac Hemodynamics Area, said the system “has changed the way nursing works, reducing manual processes and bringing safety and reliability to material registration, which allows more time to be devoted to patient care”. That is consistent with the figure the hospital has published elsewhere: automated processes now absorb up to 63% of the time healthcare staff previously spent on logistics tasks.

Anna Rosell, Economic and Administrative Manager of the ICCV, framed it more broadly, saying the RFID project “has evolved into a global project of safety, economic sustainability, efficiency and integration with industry” and is designed to be scalable and replicable in other parts of the healthcare sector. The numbers behind that ambition are substantial. The Clinic handles roughly 1,400 distinct material references and more than 3,000 individual material movements a day, with daily consumption valued at up to 220,000 euros.

The market consultation that became a procurement requirement

The most consequential lines in the September 2025 announcement are the ones that look like housekeeping. The hospital said it had opened a preliminary market consultation, a formal Spanish public procurement instrument that lets a contracting authority sound out suppliers before writing a tender, and that it had scheduled a joint conference with AECOC-GS1 Espana, the Spanish member organisation of the GS1 global standards body, to share experience with industry.

Read against what came next, that consultation looks like deliberate groundwork. The joint conference took place in November 2025 at the Clinic’s Paraninfo auditorium under the title “Hospital Efficiency: The Value of Traceability and Shared Information”, with GS1 Espana general director Pere Rossell opening it. Then in July 2026, at the hospital’s IX Summer School, Josep Banque, head of the Clinic’s Contracting Unit, announced new public procurement criteria requiring suppliers to deliver materials already labelled with RFID tags, traceable from manufacture through to implantation.

That is the sequence a supply chain reader should note. Consult the market in September 2025, convene the sector alongside the standards body in November 2025, then write source tagging into the buying criteria by July 2026. The hospital did not simply order its vendors to tag. It built consensus first, then moved the cost and the responsibility upstream to the manufacturers, with GS1 EPC encoding on the tag keeping the data readable by any compliant system rather than locking anyone into a single vendor’s scheme.

The conversation has since moved beyond Barcelona. On 23 March 2026, AECOC-GS1 Espana ran a session on EPC/RFID in surgical material management at Hospital Gregorio Marañon in Madrid, with Susagna Trias and Anna Rosell of Hospital Clinic Barcelona on a round table alongside Hospital Gregorio Marañon and suppliers including Hartmann and Alcon. The recurring argument there was that interoperable RFID, free of proprietary lock-in, is what makes the time savings transferable from one hospital to the next.

Abbott Medical Espana, one of the device manufacturers involved, described adopting RFID as a step towards “more modern, secure and efficient management” across the whole product life cycle. Suppliers into Spanish hospital cardiology and surgery would do well to treat the Clinic’s timeline as a template rather than a curiosity. The hospital has been explicit that the model is meant to be replicated, and the procurement lever is now attached to it.

Read more at https://www.clinicbarcelona.org/noticias/el-clinic-implanta-un-sistema-pionero-de-gestion-integral-de-material-con-tecnologia-rfid-en-el-instituto-cardiovascular

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.

Several hundred tags were damaged over those nine months. The headline that travelled was that RFID chips are falling off surgical instruments in a Polish hospital, but that is not really a story about RFID. It is a story about tag specification, attachment method and process control, and those three things would have failed an adhesive label or an etched DataMatrix plate just as readily. What makes Poznań worth studying by anyone running an asset tracking programme is the consequence. In a warehouse a detached tag costs you a lost pallet. In an operating theatre it is a retained foreign object.

What Poznań Provincial Hospital deployed, and why

Szpital Wojewódzki w Poznaniu is a regional hospital owned by the Wielkopolska (Greater Poland) region. Its supplier was Caretag, a Danish company selling an AI-supported UHF RFID platform and durable tags built for surgical instrument tracking and sterile processing. UHF RFID is the long-range passive flavour of the technology, working in Europe around the 865 to 868 MHz band, and a reader can identify many tags at once from a distance rather than one at a time in contact. That is what makes tray-level counting practical, and why the supplier claims packing time falls by more than a third against scanning DataMatrix codes item by item.

The estate grew from 11,000 instruments at go-live to 12,500 by August 2026, and around 3,000 instruments that appeared on no inventory turned up during the marking exercise. The system cost 3 million PLN, funded in full by the Wielkopolska Marshal’s Office, with the hospital’s director putting the return at roughly 1 million PLN a year and an 18-month payback. It was procured openly, as tender SZW/DZP/64/2025, published on 2 June 2025 and closing to bids on 17 July 2025.

Most of the expected benefit sat in central sterilisation, the department that cleans, inspects, packs and autoclaves reusable instruments between operations. At launch Prof. Dawid Murawa, the hospital’s director, projected a 30 per cent efficiency gain across the operating block and central sterilisation. By August 2026 the reported figure was narrower and should be quoted precisely: 40 per cent of the time previously spent on manual instrument counting had been saved. That is a saving on counting, not a 40 per cent gain across the theatre block. The driver is the EU Medical Device Regulation, MDR 2017/745, whose Unique Device Identification rules oblige devices to carry a machine-readable identifier so individual items can be traced. May 2027 has been cited as the deadline for most Polish hospitals, so Poznań was early rather than eccentric.

What actually went wrong

Radio Poznań reported on 11 August 2026 that the cause of the damage lay in Polish sterilisation practice, specifically the excessively rapid heating of instruments to high temperature. The hospital and the manufacturer responded on 12 August 2026, with Głos Wielkopolski publishing its own follow the same day and crediting Gazeta Wyborcza’s original reporting. The hospital said staff had since resolved the heating problem and that it intends to extend the system to further departments.

Read that cause again, because it is the whole article in one line. The tags were not defeated by sterilisation. They were defeated by a ramp rate.

The RFID was not at fault. The tag choice and the attachment were

A surgical instrument is one of the more hostile places a passive tag can be asked to live. Before it reaches an autoclave it goes through ultrasonic cleaning, where cavitation hammers every edge and joint, and enzymatic detergents that attack organic residue and, incidentally, adhesive chemistry. The steam cycle runs at 121 to 134 degrees C at up to around 2.1 bar, followed by a drying phase in which any moisture that has worked into a housing wants out. Standard RFID labels delaminate, crack or lose read sensitivity within a handful of cycles. Purpose-built high-temperature tags are rated for continuous exposure at around 200 degrees C, and the tags used at Poznań are specified to survive more than 2,500 sterilisation cycles without affecting performance or the usability of the instrument.

So the tag was rated. The catch is what a cycle rating means. A tag qualified for a number of cycles is qualified against an assumed cycle profile: a ramp rate, a hold temperature, a pressure curve, a drying regime. Change the ramp and you are outside the qualification, and the datasheet no longer describes your process.

The other half of the problem is attachment. There are three broad ways to fix a tag to a surgical instrument, in rough order of permanence: high-temperature medical-grade adhesive bonding, which is least invasive and quickest to apply across a large existing inventory; mechanical attachment by rivet or weld, which is considerably more robust; and embedding the tag in a recess machined or drilled into the instrument, the most durable and the most expensive because it means touching the instrument’s geometry. Which one is appropriate depends on the size and shape of the item. Delicate instruments generally need a small form factor tag, often housed in PPS with rounded edges so it cannot snag on tissue, glove or drape.

The failure mechanisms worth designing against are thermal shock from rapid ramp rates, moisture ingress during drying, pressure cycling, ultrasonic cavitation, and enzymatic chemistry working on the bond line. Notice how many of those attack the join rather than the electronics. The chip is rarely the weak point. The bond is. Tag retention is a mechanical engineering problem wearing an RFID badge, and it tends to be specified by people thinking about read rates.

ISO 10993 answers a different question

Caretag’s co-founder and chief commercial officer, Michael Leibig, responded that the chips are safe for humans, comply with ISO 10993, and that testing shows contact with patients presents no danger. On its own terms that is very probably accurate. ISO 10993 is the biocompatibility standard for medical devices, governing whether a material is safe in contact with the body: cytotoxicity, sensitisation, irritation.

It says nothing at all about whether a tag stays attached. Biocompatibility and retention are different properties, tested differently, and answering a retention question with a biocompatibility certificate does not close it. A perfectly biocompatible tag lying loose in a surgical wound is still a retained foreign object, and that is a never event in surgery whatever the object is made of. Any hospital procuring instrument-level RFID in healthcare should ask for retention data against its own validated sterilisation cycle, in writing, alongside the biocompatibility file.

The audits nobody was talking about

The detachment story was not the first sign of trouble. On 1 April 2026, four months earlier, Gazeta Wyborcza reported that officials from the Marshal’s Office, the body that paid for the system, had run two audits at the Lutycka hospital and found “a series of irregularities” in the rollout of the instrument-marking programme. A deputy director lost her job over it.

Prof. Murawa also said several instruments showed signs of chips having been picked off by hand, something the hospital treats as a kind of sabotage, and that cameras were installed in response. He said all chips were recovered. That should be read as what it is, a claim by the institution under criticism, and no investigation outcome has been reported. Two silences are worth recording for anyone researching this later. The hospital’s own website has published nothing about the RFID system, at launch or during the controversy, so every hospital statement has reached the public through journalists. The supplier has published no case study or customer reference for Poznań either, despite it being its flagship Polish deployment.

What every RFID project should take from this

The lessons are not exotic. Qualify the tag against your process, not the vendor’s assumed process, with ramp rate, hold temperature and chemistry written into the test plan. Choose the attachment method for the instrument rather than for the speed of the rollout. And instrument the failures, because several hundred damaged tags over nine months should have surfaced as a trend in week three, not as a newspaper story in month nine.

Poznań has not shown that UHF RFID does not belong in an operating theatre. The savings on counting are real, the MDR clock is running, and 3,000 instruments nobody knew they owned is its own argument. What it has shown is how narrow the margin gets between a good idea and a clinical incident when the least glamorous line in the specification, the bit that holds the tag on, is treated as a detail.

This article first appeared on RFID News (rfidnews.co.uk), the independent news site for RFID and NFC. Republication and AI use are welcome with RFID News credited as the source and a link to the original.