Witeg Volumetric Flasks Class A With ST Amber Stained White Graduated

SKU:
3670000
SHIPPING:
Piece
IF YOU ARE INTERESTED IN A QUOTE FOR A LARGE QUANTITY, PLEASE CONTACT US
Email: Marknanossr@gmail.com
or
Get A Quotation

Witeg Volumetric Flasks Class A With ST Amber Stained White Graduated

Piece 1
Request a quotation.

Contact Us

Global Head Office

Email: Marknanossr@gmail.com

Tel:+86 15606950920

Wechat: 15606950920

Address:  Building 1, No. 39 Xinchang Road, Haicang District, Xiamen City, Fujian Province, China

Witeg Volumetric Flasks Class A With ST Amber Stained White Graduated

Buy Witeg products from NANOSSR at the best value.

  • with ST-hollow glass stopper or ST PE-stopper
  • made of borosilicate glass 3.3
  • tolerance according to ASTM E 288
  • inclusive batch certificate
  • DE-M marked according to the German calibration law
  • standard and special sizes available
SKU Model Color Material Capacity Socket Stopper Graduation Class Tolerance DIN
3 670 000 Volumetric flask amber stained Borosilicate glass 3.3 5 ml NS 7/16 glass stopper white graduated A ±0.025 ml DIN EN ISO 1042
3 670 001 Volumetric flask amber stained Borosilicate glass 3.3 10 ml NS 7/16 glass stopper white graduated A ±0.025 ml DIN EN ISO 1042
3 670 00114 Volumetric flask amber stained Borosilicate glass 3.3 10 ml NS 14/23 glass stopper white graduated A ±0.060 ml DIN EN ISO 1042
3 670 0016 Volumetric flask amber stained Borosilicate glass 3.3 15 ml NS 12/21 glass stopper white graduated A ±0.060 ml DIN EN ISO 1042
3 670 002 Volumetric flask amber stained Borosilicate glass 3.3 20 ml NS 10/19 glass stopper white graduated A ±0.040 ml DIN EN ISO 1042
3 670 003 Volumetric flask amber stained Borosilicate glass 3.3 25 ml NS 10/19 glass stopper white graduated A ±0.040 ml DIN EN ISO 1042
3 670 005 Volumetric flask amber stained Borosilicate glass 3.3 50 ml NS 12/21 glass stopper white graduated A ±0.060 ml DIN EN ISO 1042
3 670 006 Volumetric flask amber stained Borosilicate glass 3.3 50 ml NS 14/23 glass stopper white graduated A ±0.100 ml DIN EN ISO 1042
3 670 010 Volumetric flask amber stained Borosilicate glass 3.3 100 ml NS 12/21 glass stopper white graduated A ±0.100 ml DIN EN ISO 1042
3 670 011 Volumetric flask amber stained Borosilicate glass 3.3 100 ml NS 14/23 glass stopper white graduated A ±0.100 ml DIN EN ISO 1042
3 670 012 Volumetric flask amber stained Borosilicate glass 3.3 10 ml NS 10/19 glass stopper white graduated A ±0.040 ml DIN EN ISO 1042
3 670 013 Volumetric flask amber stained Borosilicate glass 3.3 20 ml NS 12/21 glass stopper white graduated A ±0.060 ml DIN EN ISO 1042
3 670 014 Volumetric flask amber stained Borosilicate glass 3.3 25 ml NS 12/21 glass stopper white graduated A ±0.060 ml DIN EN ISO 1042
3 670 015 Volumetric flask amber stained Borosilicate glass 3.3 5 ml NS 10/19 glass stopper white graduated A ±0.040 ml DIN EN ISO 1042
3 670 016 Volumetric flask amber stained Borosilicate glass 3.3 15 ml NS 10/19 glass stopper white graduated A ±0.040 ml DIN EN ISO 1042
3 670 017 Volumetric flask amber stained Borosilicate glass 3.3 20 ml NS 14/23 glass stopper white graduated A ±0.060 ml DIN EN ISO 1042
3 670 018 Volumetric flask amber stained Borosilicate glass 3.3 25 ml NS 14/23 glass stopper white graduated A ±0.060 ml DIN EN ISO 1042
3 670 020 Volumetric flask amber stained Borosilicate glass 3.3 200 ml NS 14/23 glass stopper white graduated A ±0.150 ml DIN EN ISO 1042
3 670 022 Volumetric flask amber stained Borosilicate glass 3.3 2 ml NS 10/19 glass stopper white graduated A ±0.040 ml DIN EN ISO 1042
3 670 025 Volumetric flask amber stained Borosilicate glass 3.3 250 ml NS 14/23 glass stopper white graduated A ±0.150 ml DIN EN ISO 1042
3 670 030 Volumetric flask amber stained Borosilicate glass 3.3 300 ml NS 14/23 glass stopper white graduated A ±0.150 ml DIN EN ISO 1042
3 670 049 Volumetric flask amber stained Borosilicate glass 3.3 500 ml NS 14/23 glass stopper white graduated A ±0.250 ml DIN EN ISO 1042
3 670 050 Volumetric flask amber stained Borosilicate glass 3.3 500 ml NS 19/26 glass stopper white graduated A ±0.250 ml DIN EN ISO 1042
3 670 051 Volumetric flask amber stained Borosilicate glass 3.3 500 ml NS 29/32 glass stopper white graduated A ±0.400 ml DIN EN ISO 1042
3 670 100 Volumetric flask amber stained Borosilicate glass 3.3 1000 ml NS 24/29 glass stopper white graduated A ±0.400 ml DIN EN ISO 1042
3 670 101 Volumetric flask amber stained Borosilicate glass 3.3 1000 ml NS 29/32 glass stopper white graduated A ±0.600 ml DIN EN ISO 1042
3 670 125 Volumetric flask amber stained Borosilicate glass 3.3 125 ml NS 14/23 glass stopper white graduated A ±0.100 ml DIN EN ISO 1042
3 670 150 Volumetric flask amber stained Borosilicate glass 3.3 150 ml NS 14/23 glass stopper white graduated A ±0.100 ml DIN EN ISO 1042
3 670 200 Volumetric flask amber stained Borosilicate glass 3.3 2000 ml NS 29/32 glass stopper white graduated A ±0.600 ml DIN EN ISO 1042
3 670 500 Volumetric flask amber stained Borosilicate glass 3.3 5000 ml NS 34/35 glass stopper white graduated A ±1.200 ml DIN EN ISO 1042
3 670 000 P Volumetric flask amber stained Borosilicate glass 3.3 5 ml NS 7/16 PE-stopper white graduated A ±0.025 ml DIN EN ISO 1042
3 670 001 P Volumetric flask amber stained Borosilicate glass 3.3 10 ml NS 7/16 PE-stopper white graduated A ±0.025 ml DIN EN ISO 1042
3 670 0016 P Volumetric flask amber stained Borosilicate glass 3.3 15 ml NS 12/21 PE-stopper white graduated A ±0.060 ml DIN EN ISO 1042
3 670 002 P Volumetric flask amber stained Borosilicate glass 3.3 20 ml NS 10/19 PE-stopper white graduated A ±0.040 ml DIN EN ISO 1042
3 670 003 P Volumetric flask amber stained Borosilicate glass 3.3 25 ml NS 10/19 PE-stopper white graduated A ±0.040 ml DIN EN ISO 1042
3 670 005 P Volumetric flask amber stained Borosilicate glass 3.3 50 ml NS 12/21 PE-stopper white graduated A ±0.060 ml DIN EN ISO 1042
3 670 006 P Volumetric flask amber stained Borosilicate glass 3.3 50 ml NS 14/23 PE-stopper white graduated A ±0.100 ml DIN EN ISO 1042
3 670 010 P Volumetric flask amber stained Borosilicate glass 3.3 100 ml NS 12/21 PE-stopper white graduated A ±0.100 ml DIN EN ISO 1042
3 670 011 P Volumetric flask amber stained Borosilicate glass 3.3 100 ml NS 14/23 PE-stopper white graduated A ±0.100 ml DIN EN ISO 1042
3 670 012 P Volumetric flask amber stained Borosilicate glass 3.3 10 ml NS 10/19 PE-stopper white graduated A ±0.040 ml DIN EN ISO 1042
3 670 013 7 P Volumetric flask amber stained Borosilicate glass 3.3 20 ml NS 7/16 PE-stopper white graduated A ±0.040 ml DIN EN ISO 1042
3 670 013 P Volumetric flask amber stained Borosilicate glass 3.3 20 ml NS 12/21 PE-stopper white graduated A ±0.060 ml DIN EN ISO 1042
3 670 014 P Volumetric flask amber stained Borosilicate glass 3.3 25 ml NS 12/21 PE-stopper white graduated A ±0.060 ml DIN EN ISO 1042
3 670 015 P Volumetric flask amber stained Borosilicate glass 3.3 5 ml NS 10/19 PE-stopper white graduated A ±0.040 ml DIN EN ISO 1042
3 670 016 P Volumetric flask amber stained Borosilicate glass 3.3 15 ml NS 10/19 PE-stopper white graduated A ±0.040 ml DIN EN ISO 1042
3 670 018 P Volumetric flask amber stained Borosilicate glass 3.3 25 ml NS 14/23 PE-stopper white graduated A ±0.060 ml DIN EN ISO 1042
3 670 020 P Volumetric flask amber stained Borosilicate glass 3.3 200 ml NS 14/23 PE-stopper white graduated A ±0.150 ml DIN EN ISO 1042
3 670 022 P Volumetric flask amber stained Borosilicate glass 3.3 2 ml NS 10/19 PE-stopper white graduated A ±0.040 ml DIN EN ISO 1042
3 670 025 29 P Volumetric flask amber stained Borosilicate glass 3.3 250 ml NS 29/32 PE-stopper white graduated A ±0.400 ml DIN EN ISO 1042
3 670 025 P Volumetric flask amber stained Borosilicate glass 3.3 250 ml NS 14/23 PE-stopper white graduated A ±0.150 ml DIN EN ISO 1042
3 670 030 P Volumetric flask amber stained Borosilicate glass 3.3 300 ml NS 14/23 PE-stopper white graduated A ±0.150 ml DIN EN ISO 1042
3 670 049 P Volumetric flask amber stained Borosilicate glass 3.3 500 ml NS 14/23 PE-stopper white graduated A ±0.250 ml DIN EN ISO 1042
3 670 050 P Volumetric flask amber stained Borosilicate glass 3.3 500 ml NS 19/26 PE-stopper white graduated A ±0.250 ml DIN EN ISO 1042
3 670 051 P Volumetric flask amber stained Borosilicate glass 3.3 500 ml NS 29/32 PE-stopper white graduated A ±0.400 ml DIN EN ISO 1042
3 670 100 P Volumetric flask amber stained Borosilicate glass 3.3 1000 ml NS 24/29 PE-stopper white graduated A ±0.400 ml DIN EN ISO 1042
3 670 125 P Volumetric flask amber stained Borosilicate glass 3.3 125 ml NS 14/23 PE-stopper white graduated A ±0.100 ml DIN EN ISO 1042
3 670 200 P Volumetric flask amber stained Borosilicate glass 3.3 2000 ml NS 29/32 PE-stopper white graduated A ±0.600 ml DIN EN ISO 1042
3 670 500 P Volumetric flask amber stained Borosilicate glass 3.3 5000 ml NS 34/35 PE-stopper white graduated A ±1.200 ml DIN EN ISO 1
€ 4.00
GRAPHENE SHEET
Recent Posts

Future Communication with 5G Technology and Advanced Materials

Preserving History with the Power of Graphene
Future Communication with 5G Technology and Advanced Materials 5G technology opens the doors to a new era in communication with faster connection speeds, low late...

5G technology opens the doors to a new era in communication with faster connection speeds, low latency and wide coverage. This new generation technology enables important applications in many sectors...

​Graphite Applications on Anti-friction Coatings

Preserving History with the Power of Graphene
​Graphite Applications on Anti-friction Coatings Graphite is said to be known as one of the forms of carbon present in usually crystalline form. Thi...

Graphite is said to be known as one of the forms of carbon present in usually crystalline form. This too has various types and varieties in which graphite can be exhibited. However, recently it has c...

Cuprous (Copper) Oxide Properties and Applications

Preserving History with the Power of Graphene
Cuprous (Copper) Oxide Properties and Applications Cuprous oxide is also commonly known as copper oxide which is basically an inorganic compound compr...

Cuprous oxide is also commonly known as copper oxide which is basically an inorganic compound comprising of copper and oxygen. It has some excellent properties that enable it to surpass a lot of copp...

Cellulose Nanocrystals (CNC), Applications and Properties

Preserving History with the Power of Graphene
Cellulose Nanocrystals (CNC), Applications and Properties Cellulose is a very abundant polymer naturally available as it is a vital component present in vari...

Cellulose is a very abundant polymer naturally available as it is a vital component present in various plant cell walls. Besides, cellulose nanocrystals (CNC) also found in every other species all of...

Ketjen Black Applications As a Superconductor

Preserving History with the Power of Graphene
Ketjen Black Applications As a Superconductor Ketjen black is basically a conductive agent and conductive agents are usually used to make sure th...

Ketjen black is basically a conductive agent and conductive agents are usually used to make sure that the electrode possesses good charge and discharge performance. So ketjen black is responsible for...

​7 Reasons to Why Fullerenes are Growing Market

Preserving History with the Power of Graphene
​7 Reasons to Why Fullerenes are Growing Market Fullerene is a carbon allotrope consist of carbon atoms attached via single or double bonds.These m...

Fullerene is a carbon allotrope consist of carbon atoms attached via single or double bonds.These molecules have rich characteristics and potentially strong properties which enable them to work effec...

Molybdenum Disulfide (MoS2) Properties and Applications

Preserving History with the Power of Graphene
Molybdenum Disulfide (MoS2) Properties and Applications Molybdenum disulfide, also known as MoS2, is one of the best materials initially belonging to the t...

Molybdenum disulfide, also known as MoS2, is one of the best materials initially belonging to the transition metals.Its structure is unique hence all the properties it possesses are unique.  The buil...

From Graphene to the New Teflon

Preserving History with the Power of Graphene
From Graphene to the New Teflon Graphene is one of the most used materials in today's world and with all the exceptions that it is ...

Graphene is one of the most used materials in today's world and with all the exceptions that it is being used, it is being proven as one of the best materials for almost all industries.  Ever since i...

​Use of Graphene In The Textile Industry, Examples From The Market And Its Future

Preserving History with the Power of Graphene
​Use of Graphene In The Textile Industry, Examples From The Market And Its Future Graphene is known as a carbon allotrope in the industry as it comprises carbon atoms that are put t...

Graphene is known as a carbon allotrope in the industry as it comprises carbon atoms that are put together in the form of a lattice. Graphene is a highly necessary product in today's world as it is s...

IR Coating Technology and Applications

Preserving History with the Power of Graphene
IR Coating Technology and Applications IR coating technology is used for the optical coatings that perform their functions at a very large...

IR coating technology is used for the optical coatings that perform their functions at a very large scale. This includes UV wavelengths which are both short and long too. A lot of comprehensive studi...

Silicon Dioxide in Battery Applications

Preserving History with the Power of Graphene
Silicon Dioxide in Battery Applications Silicon dioxide is a promising material for next generation battery technologies because of its hig...

Silicon dioxide is a promising material for next generation battery technologies because of its high capacity and abundance. Especially Li-ion and Li-S batteries benefit from silicon dioxide and its ...

Properties of ​Ketjen Black as a Superconductor

Preserving History with the Power of Graphene
Properties of ​Ketjen Black as a Superconductor Ketjen black is basically a conductive agent and conductive agents are usually used to make sure th...

Ketjen black is basically a conductive agent and conductive agents are usually used to make sure that the electrode possesses good charge and discharge performance. So ketjen black is responsible for...

MoS2 Applications on Anti-friction Coatings

Preserving History with the Power of Graphene
MoS2 Applications on Anti-friction Coatings MoS2 is basically the chemical formula of molybdenum disulfide which is a compound known to be a tr...

MoS2 is basically the chemical formula of molybdenum disulfide which is a compound known to be a transition metal dichalcogenide having a blackish and silvery appearance. MoS2 is one of the categori...

​How to Sustainably Produce Nano Clays

Preserving History with the Power of Graphene
​How to Sustainably Produce Nano Clays Nanoclays, with their unique layered structure and nanometric size, are transforming industries by ...

Nanoclays, with their unique layered structure and nanometric size, are transforming industries by enhancing the performance of materials in packaging, automotive, and environmental engineering.  Th...

​10 Uses of Calcium Oxide in Daily Life

Preserving History with the Power of Graphene
​10 Uses of Calcium Oxide in Daily Life Calcium oxide is the chemical combination of calcium and oxygen subsequently forming a product that...

Calcium oxide is the chemical combination of calcium and oxygen subsequently forming a product that is rich in its characteristics and has an excellent set of properties that enable it to perform var...

​Cubic Boron Nitride Nanopowders: The New Diamond, Properties, and Applications

Preserving History with the Power of Graphene
​Cubic Boron Nitride Nanopowders: The New Diamond, Properties, and Applications Boron nitride is a chemical compound consisting of nitrogen and boron, having the chemical formula ...

Boron nitride is a chemical compound consisting of nitrogen and boron, having the chemical formula BN. It has various forms but the most common one is the cubic boron nitride form. It is actually a t...