

Automatic Blood Collection Tube Labeling System
自动采血管贴标系统
- SKU SPR-0001
- Sample Processing
- CE (to be confirmed)
- ISO 13485 quality system (to be confirmed)
Price on request — FOB / CIF quoted per order
Prices depend on configuration, quantity and destination port.
Key specifications
| Throughput | 400–1,000 tubes/h |
|---|---|
| Tube types | 4–8 hoppers |
| Tube diameter | 12–16 mm |
| Tube height | 75–100 mm |
| Print resolution | 300 dpi thermal transfer |
| Barcode symbologies | Code 128, Code 39, QR, Data Matrix |
By Lab Manufacturers China Technical TeamLast reviewed Standards: ISO 15189, CLSI GP44, CLSI AUTO01
What is the Automatic Blood Collection Tube Labeling System?
An automatic blood collection tube labeling system prints and applies barcode labels to empty collection tubes from the laboratory information system order. It reduces mislabeling and saves phlebotomy time, and suits hospital outpatient collection centers and large health examination centers.
What is the Automatic Blood Collection Tube Labeling System?
An automatic blood collection tube labeling system prints and applies barcode labels to empty collection tubes from the laboratory information system order. It reduces mislabeling and saves phlebotomy time, and suits hospital outpatient collection centers and large health examination centers.
Overview
This system receives patient orders from the hospital or laboratory information system, selects the correct tube type for each test, prints a thermal-transfer barcode label with patient and test details, and applies it to the tube at a defined position and angle. Tubes are stored in hoppers by type, typically four to eight tube types, and are dispensed in sequence into a collection tray or cup for the patient. A vision check confirms label placement and barcode readability before release. Printing resolution of 300 dpi supports 1D and 2D codes. Throughput ranges from 400 to 1,000 tubes per hour depending on configuration. Because labeling is tied to the order and the patient call queue, the system removes handwritten or pre-printed label mismatch, a leading source of pre-analytical error in outpatient collection.
How does it work?
Pre-analytical automation combines barcode identification, robotic handling and liquid transfer. A tube enters on an input lane where a camera or laser scanner reads the barcode and a vision system identifies tube type, cap color and height. A gripper lifts the tube, and a decapper removes the stopper by torque-controlled rotation or pull, detecting cap type to avoid breakage. Sorting systems route tubes by test request through conveyors, diverters or robotic arms into racks for each analyzer. Aliquoters use disposable tips on a pipetting channel with capacitive liquid-level detection and clot detection to transfer serum or plasma to labeled secondary tubes. Recappers apply a new cap or pierceable seal to limit evaporation and aerosol. Everything is coordinated by middleware that exchanges orders and results with the laboratory information system.
What are the key features?
- Prints and applies barcode labels from LIS orders automatically
- Storage hoppers for 4 to 8 tube types with sequential dispensing
- Vision check of label position and barcode readability
- 300 dpi thermal-transfer printing of 1D and 2D codes
- Integration with patient queue and call systems
- Tube dispensing throughput of 400–1,000 tubes per hour
What are the technical specifications?
A typical automatic blood collection tube labeling system configuration offers throughput of 400–1,000 tubes/h, tube types of 4–8 hoppers, tube diameter of 12–16 mm, tube height of 75–100 mm, print resolution of 300 dpi thermal transfer and barcode symbologies of Code 128, Code 39, QR, Data Matrix. Values are indicative of the product class; the exact figures for each configuration are confirmed on the quotation and the calibration documents supplied with the instrument.
Which applications is it used for?
The Automatic Blood Collection Tube Labeling System is used in outpatient blood collection centers, health examination centers, hospital phlebotomy stations and clinical trial sample collection. Across the wider Sample Processing class, laboratories also deploy it for hospital central laboratory pre-analytics, reference laboratory high-volume receiving and blood bank sample preparation.
Which standards and certifications apply?
Relevant standards and methods include ISO 15189, CLSI GP44, CLSI AUTO01, CLSI AUTO03, ISO 15190 and IEC 61010-2-101. Certification candidates for this model are CE and ISO 13485 quality system; each is to be confirmed for the specific configuration before shipment, and certificates are supplied only where they have been issued.
Sample handling must protect staff and sample integrity. Place equipment where racks and conveyors connect to analyzers, and supply stable power and network. Validate barcode quality against the label specifications and test each tube type from your collection supplier. Verify aliquot volume accuracy, carryover, and absence of cross-contamination with dye or analyte studies. Review centrifugation and pre-analytical stability limits for each analyte so automated waiting times do not compromise results. Decontaminate grippers and decks per the manual, and dispose of tips and caps as biohazardous waste. Keep spare grippers and sensors on site, and document validation under ISO 15189.
How do I select the right Automatic Blood Collection Tube Labeling System?
Select this variant when the main pre-analytical risk is mislabeling at collection and daily outpatient draw exceeds about 300 patients. In the RFQ specify the number of tube types, hourly throughput, LIS protocol, label size, barcode symbologies and integration with the patient queue system. Confirm label adhesion on cold or condensation-prone tubes.
How does it compare with other Sample Processing variants?
Begin with daily tube volume and the tube types in use, because capacity and gripper compatibility differ. A laboratory processing under 300 tubes a day may only need a labeler or a standalone decapper, while over 1,000 tubes a day justifies a sorter with aliquoting. Check the range of tube diameters, 12 to 16 mm, and heights, 75 to 100 mm, that the system accepts, and whether it handles pediatric micro-tubes and gel tubes. Evaluate cap removal reliability, aerosol containment and whether it handles screw and push caps. Confirm middleware and LIS connectivity, footprint, consumable cost for tips and caps, and the service response commitment, since downtime stops the whole pre-analytical flow.
Full specifications
| Throughput | 400–1,000 tubes/h |
|---|---|
| Tube types | 4–8 hoppers |
| Tube diameter | 12–16 mm |
| Tube height | 75–100 mm |
| Print resolution | 300 dpi thermal transfer |
| Barcode symbologies | Code 128, Code 39, QR, Data Matrix |
| Label size | Up to 50 × 30 mm |
| Hopper capacity | 200–400 tubes per hopper |
| Interface | HL7, ASTM, TCP/IP, RS-232 |
| Power supply | 220 V AC, 50/60 Hz, 500 W |
| Dimensions | About 800 × 700 × 1,400 mm |
Indicative values for this product class. Final specifications are confirmed on the quotation and in the calibration documents supplied with the instrument.
Applications
- Outpatient blood collection centers
- Health examination centers
- Hospital phlebotomy stations
- Clinical trial sample collection
Key features
- Prints and applies barcode labels from LIS orders automatically
- Storage hoppers for 4 to 8 tube types with sequential dispensing
- Vision check of label position and barcode readability
- 300 dpi thermal-transfer printing of 1D and 2D codes
- Integration with patient queue and call systems
- Tube dispensing throughput of 400–1,000 tubes per hour
Frequently asked questions about Automatic Blood Collection Tube Labeling System
The system receives the test order from the LIS and maps each requested test to a tube type, for example serum gel, EDTA or citrate, using configured rules. It then dispenses that tube type from the matching hopper and prints the label for it.
Systems typically print Code 128 and Code 39 linear barcodes as well as 2D codes such as QR and Data Matrix. The format must match what the downstream analyzers and middleware can read, so confirm symbology and minimum module size with the analyzer vendor.
The vision check detects misplaced or unreadable labels and diverts the tube to a reject tray. The system can reprint and relabel with a new tube, and logs the event so supervisors can review it.
It covers all steps from specimen collection to analysis, including identification, transport, centrifugation, decapping, aliquoting and sorting. Most laboratory errors arise in this phase, so automation of labeling, decapping and aliquoting reduces mislabeling, exposure risk and delay before samples reach the analyzers.
Aliquoting lets one patient specimen serve several analyzers or tests at once and allows a stored portion for retesting. It also separates serum from cells after centrifugation, limits repeated freeze-thaw, and avoids sending primary tubes through multiple instruments.
Most systems accept a defined range of tube diameters and heights, often 12 to 16 mm diameter and 75 to 100 mm height, with adapters for pediatric tubes. Cap designs vary, so confirm compatibility with each tube manufacturer's products and test them before commissioning.





