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Viales de HPLC 13-425 4ml

  • Las tapas de rosca de tornillo 13-425, los septos y los viales están diseñados para uso específico con el inyector automático Waters WISP de 48 posiciones

  • Los viales se fabrican con vidrio borosilicato transparente, tipo 1 A o ámbar, tipo 1 clase B e incluyen un parche de escritura para la identificación de la muestra

  • Las tapas están hechas de polipropileno de alta calidad para tolerancias de fabricación exactas y están revestidas en un entorno de fabricación controlado

  • Los colores de las gorras están disponibles solo en negro

  • Nuestros septos utilizan solo los materiales de la más alta calidad para garantizar un funcionamiento adecuado y pueden ser precortados para facilitar la penetración de la aguja

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Características del producto+

4ml vials
Los viales se utilizan preferentemente en instrumentos de los siguientes fabricantes: Dionex, Shimadzu, Spark, Varian, VWR (Merck®) / Hitachi, Waters® (Wisp 48 Position Carousel), etc.
 
 Screw Neck Vials ND13

 
Part No. V1317 V1327 V1335 V1345
Description   4ml
screw-thread vial, clear 15*45mm USP 1
4ml 
screw-thread vial, clear with write on patch 15*45mm USP 1
4ml 
screw-thread vial, amber 15*45mm USP 1 expansion 51
4ml 
screw-thread vial, amber with write on patch 15*45mm USP 1 expansion 51


ND13 Vial Caps and Septa

     
 Part No.  SC132131  SC134132
 Description  Red PTFE/white Silicone septa, 13mm black screw polypropylene cap, 8.5mm centre hole  Nature PTFE/nature Silicone septa, 13mm black screw polypropylene cap, closed-top







 

Frascos de cuello de tornillo, tapas de PP y septa ND13 100pcs / pack

S131

PTFE blanco / rojo Septa de silicona Φ13 * 1.5mm resistente a la temperatura -60 -200

S132

PTFE rojo / blanco Septa de silicona Φ13 * 1.5mm resistente a la temperatura -60 -200

S134

nature PTFE / nature Septa de silicona Φ13 * 1.5mm resistente a la temperatura -60 -200

SC131131

Septa de silicona blanca PTFE / rojo, tapón de rosca negro de 13 mm, orificio central de 8,5 mm

SC132131

Septa de silicona de PTFE rojo / blanco, tapón de rosca negro de 13 mm, orificio central de 8,5 mm

SC133131

Septa de PTFE rojo / silicona blanca / PTFE rojo, tapa rosca negra de 13 mm, orificio central de 8,5 mm

SC134131

naturaleza PTFE / naturaleza septa de silicona, tapón de rosca negro de 13 mm, orificio central de 8,5 mm

SC134132

naturaleza PTFE / naturaleza septa de silicona, tapón de rosca negro de 13 mm, tapa cerrada

SC1311131

de PTFE blanco / rojo de SC1311131 septos de silicona, tapa rosca negra de 13 mm, orificio central de 8,5 mm

V1317

vial de rosca de tornillo de 4 ml, transparente 15 * 45 mm

V1335

vial de rosca de 4 ml, ámbar 15 * 45 mm

Why cooperate with us?
 
 
1, ISO certificated company system keeps all the process under control ;
 
2, 4 years OEM experience promise all the orders can be handled very well ;
 
3, 1 year warranty for the products we supplied, guarantee the stable quality ;
 
4, All the products are CE certificated ,also SGS test report if need ;
 
5,24*365 hours sales &technical service will solve the issue in 2 hours ;
 
6, 5million stock gurrantee 24hours delivery time for all the regular orders ;
 
7,More than 2000kinds of lab consumables offering you with the best price;
 
8, Free samples for your test under our cost anytime;

9,No MOQ for users or dealers,different package meets your requirements .

Technical Information+

Vial Finish Specifications

  • Andard Screw Thread Finish
  • "T" = Outer diameter of the thread
  • "E" = Inside diameter of the thread
  • "ID" = Inside diameter
  • "S" = Start of thread
  • "H" = Distance from top of finish to shoulder for closure clearance
  • Andard Screw Thread Finish
  • "T" = Outer diameter of the thread
  • "E" = Inside diameter of the thread
  • "ID" = Inside diameter
  • "S" = Start of thread
  • "H" = Distance from top of finish to shoulder for closure clearance

Test Report


       


         


Screw Thread Finishes

  • GPI refers to the "Glass Packaging Institute"

  • The GPI is responsible for establishing and issuing standards for the types and finishes produced by American glass manufacturers.

  • GPI refers to the "Glass Packaging Institute"

  • The GPI is responsible for establishing and issuing standards for the types and finishes produced by American glass manufacturers.

    Typical GPI finishes found in the chromatography field are as follows:

  • GPI refers to the "Glass Packaging Institute"

  • The GPI is responsible for establishing and issuing standards for the types and finishes produced by American glass manufacturers.

  • GPI refers to the "Glass Packaging Institute"

  • The GPI is responsible for establishing and issuing standards for the types and finishes produced by American glass manufacturers.

Glass Technical Information

  • Borosilicate - A glass that is high in silicate and having at least 5% boron oxide.

  • Linear Coefficient of Expansion - Fractional change in length of glass per degree change in temperature.

  • Strain Point - Maximum temperature to which glass should be heated during use"

    Types of Glass:

  • USP Type - Pharmaceutical glass containers can be classified as USP Type I, II, III or NP.

  • Type I - Borosilicate glass represents the least reactive glass.

  • Type I glass has the least pH shift. (Lowest leaching characteristics) Coefficient of Expansion = 33 or 51 for Clear and 51 for Amber

  • Type II - is de-alkalized soda lime glass with higher levels of sodium hydroxide and calcium oxide.

  • Type III - soda lime glass - cannot be autoclaved.

  • Type NP - general purpose soda-lime glass used where chemical durability and heat shock are not factors.

  • Coefficient of Expansion = 92.

GLASS PROPERTIES

Color

Clear

Amber

Linear Coefficient of Expansion

33

51

Strain Point (Degrees Celsius)

515

535

USP Class Type

Type 1

Type 1

Light Protection

No

Yes

Plastic Properties

Type of Plastic Type of Plastic Type of Plastic Type of Plastic Type of Plastic Type of Plastic
Maximum use temperature, C/F 80°C/176°F 80°C/176°F 80°C/176°F 80°C/176°F 80°C/176°F
Maximum use temperature, C/F 80°C/176°F 80°C/176°F 80°C/176°F 80°C/176°F 80°C/176°F
Maximum use temperature, C/F 80°C/176°F 80°C/176°F 80°C/176°F 80°C/176°F 80°C/176°F
Maximum use temperature, C/F 80°C/176°F 80°C/176°F 80°C/176°F 80°C/176°F 80°C/176°F
Maximum use temperature, C/F 80°C/176°F 80°C/176°F 80°C/176°F 80°C/176°F 80°C/176°F
Note: Chart is general guideline only.
PP* = Some radiation resistant polypropylene resins available.
**Flexibility - Depends on thickness.
 

Process Flow Diagram+

  • STEP 01

    The workers clean the tubing with cloth

  • STEP 02

    The workers plug the tubing into machine for making vials

  • STEP 03

    The vials are transferred to QC for Physical Test

  • STEP 04

    The workers put the tested vials into one big package (500-800pcs/pack)

  • STEP 05

    The workers get the vials from big package and put the vials into one special tray.

  • STEP 06

    Put the tray with vials into the Water injection machine

  • STEP 07

    The vials in tray will be transferred to next step for Ultrasonic oscillations.

  • STEP 08

    The vials in tray will be transferred to Jilt water machine.

  • STEP 09

    The vials in tray will be transferred to Infrared drying case.

  • STEP 10

    The workers will collect the vials after vials are dry.

  • STEP 07

    The vials in tray will be transferred to next step for Ultrasonic oscillations.

  • STEP 11

    The workers will check all the vials inclouding the bottom neck ,bottom ,inerts.

  • STEP 12

    The workers will pack 100pieces vials into one package.

  • STEP 13

    The workers will send the package to sealing machine for packing.

FAQ+

WHAT TO CONSIDER WHEN SELECTING AN AUTOSAMPLER VIAL

Autosampler Compatibility

Not all autosamplers are alike. Some utilize robotic arms to pick up a sample vial; some use tray rotation while others move the sampling needle to the respective vial coordinates. The dimensions of autosampler vials vary. Most autosamplers are equipped with trays that use 12x32mm vial configurations but some like the Waters Wisp require a 15x45mm configuration. Consult your autosampler’s operating manual or manufacturer to determine the vial dimensions required.
Sample Volume
The amount of sample available for analysis is important in choosing the appropriate vial. If only a limited volume of sample is available, you will have to choose between using an insert for your regular autosampler vial, a microvial or a high recovery vial.
Note: Most 12x32 mm autosampler vials hold between 1.5mL to 2.0mL of liquid, depending on where the manufacture measures the vial full. The dimensions for 12x32mm vials are standard between manufacturers but the length of the neck and width/shape of the vial shoulder may vary. 12x32mm microvials have the same outer dimensions but the inside of the vial may be tapered to reduce volume or contain a fused insert. 12x32mm high recovery vials will have an internal conical bottom that allows for maximum sample recovery.
Sample Compatibility
The analyte and solvent compatibility should be considered in choosing vials and accessories. For example, amber glass is most often used for light sensitive samples while deactivated glass or plastic vials are used for compounds that are sensitive to glass or stick to the glass itself. Volatile samples require closures that reduce the risk of analyte loss due to evaporation.
Vial Composition
Several factors need to be considered when choosing laboratory glass - chemical inertness, durability, light sensitivity, storage conditions, analyte composition and especially exposure to heat/freezing temperatures.Linear Coefficient of Expansion refers to the fractional change in the length of glass per degree of change in temperature, in short, the ability of the glass to tolerate rapid thermal changes. The lower the coefficient of expansion the better the glass can handle temperature change without fracturing. Classifications for laboratory glass based on its resistance to attack from water were established by the United States Pharmacopoeia, USP.
USP Type 1, Class A, 33 Borosilicate Glass is the most inert and chemically resistant glass widely used in laboratories especially for chromatography applications. Type I glass is composed primarily of silicone and oxygen, with trace amounts of boron and sodium. It has the lowest leaching characteristics and a linear coefficient of expansion of 33.
USP Type 1, Class B, 51 Borosilicate Glass which is composed of silicone and oxygen, trace amounts of boron, sodium and other element is more alkaline than Class A glass but still adequate for laboratory use. All amber borosilicate glass is made of Class B unless otherwise specified and has an expansion coefficient of 51.
Silanized or deactivated glass is borosilicate glass that has undergone further deactivation by treating the surface of the glass with an organosilane. The surface becomes more hydrophobic and inert making the vial suitable for use with pH sensitive compounds, trace analyses and applications requiring long term sample storage.
USP Types II, III and NP glass are manufactured from soda lime which has less chemical resistance than borosilicate.
Polypropylene is a rigid and translucent material, which also comes in a variety of colours and has good chemical resistance for short term storage of most common laboratory chemicals.Resistance decreases over time when using aromatic and halogenated hydrocarbons.Polypropylene vials are often used for ion chromatography because of the extremely low metal content and excellent cleanability with dilute acid followed by deionized water rinse.
Polypropylene vials limit the exposure to hazardous materials since they can be incinerated while sealed.
Polymethylpentene (TPX) is a rigid transparent material, which has a relatively high melting point with a temperature range of 0°-170°C. TPX vials can be used as alternative to opaque polypropylene vials because they provide maximum clarity. Their chemical resistance is similar to that of polypropylene vials. TPX vials should be used for applications where visual clarity is required or repetitive exposure to higher temperatures such as autoclaving. TPX vials tend to be more brittle at room temperature.
Type of Vial Finish and Closures
Autosampler vials are available in a variety of neck finishes and opening diameters. Large mouth or wide ID vials have approximately a 40% wider mouth opening than standard opening vials. The large opening reduces the risk of bent autosampler needles during sampling.
Screw thread vials and caps provide low evaporation, reusability, less hand injury during manipulation than crimp seals and require no special tools. All screw threads vials and caps
are differentiated by their thread finish as defined by the Glass Packaging Institute, GPI. For screw thread vials, a two part number is assigned. For example, 8-425 neck finish represents a vial with a diameter of 8 mm across the outside of the threads and a thread style of 425.
Screw thread vials and caps are more expensive than crimp seals.
Caps for screw thread vials are available with either an open hole for autosampler use and standard addition or with a solid top for sample storage. One piece polypropylene cap and
membrane are also available. These pierceable screw thread caps are designed for one time use and reduce sample preparation time as there is no cap and seal to assemble.
Crimp top vials require lacquered aluminum crimp seals which are relatively inexpensive and, when properly assembled, provide the best seal for long term storage. Crimp seals are not reusuable.
A crimping tool is required to seal caps and a decrimper or decapper is required to remove the seals. Several types of hand crimpers are available including the adjustable precision
crimpers that Chromatographic Specialties offers. Adjustable hand crimpers feature an adjustable stop on the handle to provide consistent seal tightness every time. Adjusting the hex screw inside the steel crimper jaws will also alter the amount of crimp. Achieving a good crimp is crucial because overcrimping can cause septum coring, bent needles and create a larger hole in the Teflon septum layer than a properly crimped seal. Undercrimping can result in loose seals and sample evaporation.
Hand decrimpers quickly and safely remove seals with just a single squeeze of the handle.
Decappers are similar in design to pliers and provide an inexpensive alternative to decrimpers.
Decrimpers should be used for applications involving hazardous samples because there is less chance of spillage.
Electronic crimpers and decappers are also available. Electronic units reduce hand fatigue, provide consistent crimps and are ideal for laboratories analyzing a lot of samples.
Snap seal vials are less prone to breakage during decapping because more glass is used in the neck of the vial. The snap seal neck finish is compatible with either crimp and/or snap seals and no special tools are required to remove the cap. These vials are recommended for short term sample storage and non-volatile samples because the seal is not as secure as a crimp or screw thread seal.
Shell Vials are an economical alternative to screw thread vials for Water’s HPLC autosamplers or any other autosampler that doesn’t use a robotic arm to move the vials. Most shells vials are sold with a polyethylene cap that has a starburst design for easy needle penetration.

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WHAT TO CONSIDER WHEN SELECTING THE PROPER INSERT

Dimensions of the Autosampler Vial

Choosing the incorrect size of insert for an autosampler vial can result in poor reproducibility between sample injections, damage to the autosampler needle and an inadequate seal between the septum and the vial. The dimensions listed for insert size in the catalogue refer to the outside diameter and length. Inserts with an outside diameter of 5mm are used with vials with standard mouth openings and the 6mm are used with wide mouth vials. The length of the insert should be flush with the neck of the vial to prevent the
insert from causing the septum to bulge. Conical inserts have a tapered bottom with pulled tips and are available with or without plastics springs. The spring acts as a
shock absorber during needle penetration and raises the insert above the bottom of the vial, allowing greater sample recovery.
Mandrel inserts also have a tapered bottom but the tips have been precision formed over a mandrel to give the internal tip a “V” shape that reduces the residual volume of the insert. Mandrel precision formed inserts are recommended when maximum recovery of the sample is required.
Flat bottom inserts have the largest capacity and are the most economical inserts. These inserts are cylindrical in shape with a flat bottom
Hanging inserts have either a flange top or top spring that suspends the insert correctly centered in the vial.
Step inserts with a built-in glass flange are designed specifically for step vials with a special tapered neck. The flange suspends the insert correctly centered in the vial without causing a bulge in the septum when the cap is screwed on.
Limited volume inserts are an economical solution when there is a limited amount of sample and injection is done using an autosampler.
Most autosamplers have a set depth that the injection needle can go into the vial without bottoming out. Inserts increase the sample depth within the vial even if there is a very minute volume of sample available.
Solvent Compatibility
Type I borosilicate glass inserts are most commonly used for trace analysis in chromatography.
Polypropylene inserts are less expensive than glass and are suitable for applications involving pH sensitive samples.
Insert Shape and Point Style
The style of insert chosen is dependent on the amount of sample available and the residual volume after sampling.

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WHAT TO CONSIDER WHEN SELECTING SEPTA

Septa Material Advantages Chemical Resistance Applications Max Temp

PTFE Economical Excellent For single injection only 550°C
PTFE/silicone Excellent resealing Excellent until punctured Multiple injections 200°C capabilities Not suitable for chlorosilanes than moderate resistance
Pre-slit PTFE/silicone Reduces coring Excellent until punctured Multiple injections 200°C
Prevents vacuum from than moderate resistance inside the vial
PTFE/silicone/PTFE Resistant to coring Excellent Above average resealing 200°C
Autoclavable Multiple injections or applications with long periods between injections
PTFE/red rubber Economical Excellent until punctured Moderate resealabililty 110°C not recommended for holding samples for further analysis
Molded polypropylene Economical Good For single injection use only 130°C
Not resealable
Gray butyl Very economical Not suitable for chlorinated Suitable for low pressure 125°C solvents, alkanes, benzenes applications or cyclohexanes
Viton Excellent chemical resistance Average resealability 160°C
Good for chlorinated solvents
Not recommended for use with amines, pyridine, acetonitrile, DMF, DMSO, THF, dioxane, methanol, Freon 22, ethylacetate,acetone or acid anhydrides.
Septum compatibility or chemical resistance with the sample and solvent is the main consideration when choosing vial septa. Any interaction can lead to sample degradation or the appearance of ghost peaks in the chromatogram. Teflon or PTFE is the most inert but has poor resealability making it unsuitable for multiple injections or storage. For layered septa such as PTFE/silicone the chemical resistance of the septa is that of Teflon until the septum is punctured. Once punctured, the silicone layer is exposed and able to react with sample/solvent so the chemical resistance of silicone should be considered when using these septa.
Note: The thicker the facings on the seal the better the resealability but it compromises the ability of the autosampler needle to pierce
the septum.

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