Thermo Scientific™ 9000 Series Glass Particle Standards

Catalog No.	Diameter (Metric)
09-980-112	2000 μm
09-980-083	2 μm
09-980-085	8 μm
09-980-086	10.0 ±1.0 μm
09-980-087	15 μm
09-980-088	20 μm
09-980-089	30 μm
09-980-090	40 μm
09-980-091	50 μm
09-980-092	60 μm
09-980-093	70 μm
09-980-094	80 μm
09-980-095	90 μm
09-980-096	100 μm
09-980-111	1000 μm
09-980-097	110 μm
09-980-098	120 μm
09-980-099	140 μm
09-980-100	170 μm
09-980-101	200 μm
09-980-102	230 μm
09-980-103	280 μm
09-980-104	330 μm
09-980-105	400 μm
09-980-106	480 μm
09-980-107	550 μm
09-980-108	650 μm
09-980-110	950 μm
09-980-084	5 μm

Catalog No. 09-980-112 Supplier Thermo Scientific™ Supplier No. 92000

Description

Replace polystyrene spheres in many applications with dry glass NIST™-traceable size standards.

Replace polystyrene spheres in many applications with Thermo Scientific™ 9000 Series Glass Particle Standards, dry glass NIST™-traceable size standards. Glass microspheres can be used in any application that requires a NIST™-traceable size standard with a narrow size distribution where sample conditions may not be suitable for polystyrene spheres. The glass microspheres provide a better tolerance to chemicals and solvents in addition to higher mechanical and thermal stability.

The Glass Size Standards are highly uniform borosilicate or soda lime glass spheres calibrated with NIST-traceable methodology. Standards are ideal for the calibration of microscopes, light scattering instruments and other particle-measuring equipment. They are also used in laser light scattering studies and colloidal systems research.

• Mean diameters have been calibrated with Thermo Fisher Scientific™'s NIST™-traceable microscopy methods
• Size distribution and uniformity are measured by optical microscopy
• Spheres are used instead of irregularly shaped particles to minimize the response of analytical systems to shape effects
• Products are packaged as dry spheres
• Packages are lot-numbered for convenient technical service and support after the sale
• 9000 Series products from 2μm to 20μm are made from borosilicate glass, have a particle density of 2.5 to 2.55g/cm³ and an index of refraction of 1.56 at 589nm (25°C)
• Products from 30μm to 2000μm are made from soda lime glass, have a particle density of 2.4 to 2.5g/cm³ and an index of refraction of 1.51 at 589nm (25°C)

Includes:

Certificate of Calibration and Traceability to NIST™, including description of the calibration method and its uncertainty, table of chemical and physical properties, and Material Safety Data Sheet with handling and disposal instructions.

Recommended for:

Spacer applications where uniform bond thickness is a necessity.

Note:

Thermo Fisher Scientific™ has its own engineering, production and metrology facilities for better quality control and response to customer needs. In addition to this line of polymer size standards, we also offer calibration standards in silica and glass materials. Ask our technical service department for information about specific applications or other product needs not listed here.

Specifications

• Additive: None
• Concentration: 100% solids
• Content And Storage: Store at room temperature. Keep bottle tightly sealed to avoid contamination.
• Contents: Dry glass microspheres
• Description: The 9000 Series is available as uniform particles of borosilicate or soda lime glass in a range of discrete sizes from 2 µm to 2000 µm. Calibrated and certified with NIST traceable mean diameters, they are suited for particle measurement applications. They also have a better tolerance to chemicals and solvents, and a higher mechanical and thermal stability.
• Color: White
• For Use With (Application): Narrow Size Standard Deviation Applications
• Material: Soda Lime Glass
• Product Type: Size Standard Particles
• Includes: Certificate of Calibration and Traceability to NIST
• Particle Density: 2.4 to 2.6g/cm³
• Quantity: 1 g
• Refractive Index: 1.50 - 1.52 at 589nm (25°C)
• Size Distribution: s = 50.9µm, 2.5% CV
• Stability: Product stable for a minimum of 24 months
• Diameter (Metric): 2000 μm