

Cryogenic Storage Tube
低温储存管
- SKU TUB-0004
- Tubes
- CE (to be confirmed)
- ISO 9001 manufacturing (to be confirmed)
Price on request — FOB / CIF quoted per order
Prices depend on configuration, quantity and destination port.
Key specifications
| Material | Polypropylene |
|---|---|
| Volume | 1–5 mL |
| Temperature | −80 °C or −196 °C |
| Thread | Internal or external |
| Seal | Silicone gasket or O-ring |
| Sterility | Optional |
By Lab Manufacturers China Technical TeamLast reviewed Standards: ISO 13485 (medical device quality management), ISO 10993 (biological evaluation of medical devices), EN ISO 11607 (packaging for terminally sterilized devices)
What is the Cryogenic Storage Tube?
A cryogenic storage tube is a sealed tube rated for very low temperature, with internal or external threads and an O-ring. It is used to store cells, DNA and samples in freezers or liquid nitrogen.
What is the Cryogenic Storage Tube?
A cryogenic storage tube is a sealed tube rated for very low temperature, with internal or external threads and an O-ring. It is used to store cells, DNA and samples in freezers or liquid nitrogen.
Overview
The tube is moulded from polypropylene formulated to stay tough at low temperature, in 1–5 mL sizes, with a screw cap, a silicone gasket or O-ring, and internal or external threads. External threads keep the sealing surface clear and are easier to handle, while internal threads reduce the chance of contamination reaching the sample. Tubes are rated for −80 °C or −196 °C, and the cap design must prevent liquid nitrogen from entering, which can cause the tube to burst on warming. Sterile, DNase-free and barcode-labelled versions are available, and some have a conical bottom for pellet recovery. They fit cryoboxes, cane racks and automated storage systems, and are used for cell lines, serum, nucleic acids and biobank samples. Labelling must survive freezing and thawing.
How does it work?
A laboratory tube holds a sample and fits the device that processes it, so its material, size and closure are functional rather than incidental. Polypropylene tubes resist most reagents, tolerate autoclaving and are translucent, and are the usual choice for centrifuge and microcentrifuge work. Conical tubes have a graduated taper that collects a pellet at the bottom and lets the supernatant be poured off. Culture tubes have a round or flat bottom, a screw cap with a gas-permeable or sealed liner, and a size that fits racks and shakers, and some are treated for cell attachment. Cryogenic tubes have external or internal threads, a silicone or O-ring seal and a material that stays intact at −80 °C or in liquid nitrogen. Transport tubes combine a leak-proof screw cap with a sterile interior and often a barcode label for identification. Closure design determines whether a tube seals, breathes or vents.
What are the key features?
- Polypropylene tough at low temperature
- Internal or external threads
- Silicone gasket or O-ring seal
- Rated −80 °C or −196 °C
- Sterile and DNase-free options
- Barcode labelling available
What are the technical specifications?
A typical cryogenic storage tube configuration offers material of Polypropylene, volume of 1–5 mL, temperature of −80 °C or −196 °C, thread of Internal or external, seal of Silicone gasket or O-ring and sterility of Optional. 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 Cryogenic Storage Tube is used in cell line storage, serum and plasma banking, nucleic acid storage and biobank archiving. Across the wider Tubes class, laboratories also deploy it for molecular biology and PCR, cell culture and pelleting and bacterial and yeast culture.
Which standards and certifications apply?
Relevant standards and methods include ISO 13485 (medical device quality management), ISO 10993 (biological evaluation of medical devices), EN ISO 11607 (packaging for terminally sterilized devices), USP <661> (plastic components and systems), ISO 11737 (sterilization of health care products) and USP <88> (biological reactivity tests). Certification candidates for this model are CE and ISO 9001 manufacturing; each is to be confirmed for the specific configuration before shipment, and certificates are supplied only where they have been issued.
Respect the maximum g force and volume limits marked on the tube, since overfilling or over-spinning causes leaks and breakage; fill conical tubes to the marked level and never exceed the rotor rating. Balance tubes within the centrifuge tolerance to avoid vibration and rotor damage. Close caps fully, and use the correct cap for the temperature and pressure, because a snap cap can open in a fast spin and a sealed cap can build pressure when heated. Keep sterile tubes in unopened packaging until use, and work in a clean area. Do not reuse single-use tubes for regulated or sterile work. Store tubes below their maximum temperature, and avoid prolonged exposure to sunlight, which embrittles some plastics. Label tubes so identity survives freezing and handling.
How do I select the right Cryogenic Storage Tube?
Choose cryogenic tubes rated for your storage temperature, with internal threads to reduce contamination risk or external threads for handling. RFQ: volume, temperature, thread type, sterility and labelling needs. Provide volume, storage temperature and thread preference.
How does it compare with other Tubes variants?
Choose the tube by the process it must survive. For small volumes, molecular work and centrifugation to 20,000 × g, use microcentrifuge tubes with a snap or screw cap that is certified nuclease-free. For cell pelleting and media work, use conical centrifuge tubes rated for the rotor g force, with sterile, gamma-treated options for culture. For bacterial or yeast culture, use culture tubes with the right closure: a vented cap for aerobic growth and a sealed cap for anaerobic or shaking work. For long-term storage, use cryogenic tubes rated for the temperature, with internal threads to reduce contamination risk or external threads for easier handling. For transport, use tubes with a leak-proof screw cap and a barcode, and confirm sterility and any transport regulation needs. Check material compatibility, fill volume and whether the tube must be free of pyrogens, DNase or RNase.
Full specifications
| Material | Polypropylene |
|---|---|
| Volume | 1–5 mL |
| Temperature | −80 °C or −196 °C |
| Thread | Internal or external |
| Seal | Silicone gasket or O-ring |
| Sterility | Optional |
| Nuclease | Free option |
| Labelling | Barcode option |
| Bottom | Round or conical |
| Use | Freezer and liquid nitrogen storage |
Indicative values for this product class. Final specifications are confirmed on the quotation and in the calibration documents supplied with the instrument.
Applications
- Cell line storage
- Serum and plasma banking
- Nucleic acid storage
- Biobank archiving
Key features
- Polypropylene tough at low temperature
- Internal or external threads
- Silicone gasket or O-ring seal
- Rated −80 °C or −196 °C
- Sterile and DNase-free options
- Barcode labelling available
Frequently asked questions about Cryogenic Storage Tube
If liquid nitrogen enters the tube through a poor seal, it expands on warming and pressurises the tube. Use tubes designed to prevent nitrogen ingress and thaw them in a controlled way.
Internal threads keep the sealing surface inside and reduce contamination reaching the sample, while external threads are easier to grip and clean. The choice depends on contamination risk and handling.
With labels or printing that survive freezing, thawing and immersion, often 2D barcodes for automated storage. Always confirm legibility after a freeze-thaw cycle before relying on the record.
It is the maximum relative centrifugal force the tube can withstand when correctly filled and closed. Exceeding it can cause the tube to crack, leak or fail, so match the tube rating to the rotor speed.
Use a screw cap for high-speed spins, transport, long-term storage and any work where leakage or aerosol release must be prevented. Snap caps suit quick, low-speed work and are faster to open.
Internal threads keep the sealing surface away from the sample so contamination is less likely, while external threads are easier to grip and open. Both must be rated for the storage temperature.
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