STANOSTAT CPM 10 C / CPM10F
- EC Number
- 269-105-9
- Chemical Name
- Antimony Tin Oxide, Calcium Aluminum Borosilicate, Nepheline Syenite, Tin Antimony Grey Cassiterite
The StanoStat CPM range are deep blue colored antimony tin oxides with a unique set of properties. CPM oxides in bulk are aggregates, consisting of nano-sized, spherical primary particles. This allows the products to be micronised in a variety of aqueous and organic solvents to nano-dispersions, which can be integrated into highly transparent, nearly colorless coatings. CPM oxides provide a high electrical conductivity and an excellent absorption of infrared light.
Properties
- Physical Form
- Powder
- Solid
Other characteristics
- Brand
- STANOSTAT
- End Uses
3D Printing Resins, Automotive Exterior Parts, Door Profiles, Film, Greenhouse Film, Offset Ink, Primer, Profiles, Solventborne Coating, Solventborne Ink, Waterborne Coating, Waterborne Ink
- Functions
- Filler, IR Absorber
- Processing Methods
- 3D Printing, Sintering
- Compatible Polymers & Resins
- Epoxies (EP), Polyethylene Terephthalate (PET)
- Color
- Blue
- White
- Markets
- Agriculture & Feed
- Automotive & Transportation
- Building & Construction
- Paints & Coatings
- Printing & Packaging
- Advantages
Strong NIR absorber with primary particles in nanoscale
- Appearance
Blue-grey powder comprising aggregates of nanosized spherical primary particles.
- Application
The CPM nanoparticles find applications in areas where the functionality must meet a requirement for transparency.; CPM nanoparticles offer a higher degree of infrared absorption than the CP grades. The dispersions in water or solvents are used for the formulation of coatings, and inks for film coating. In high end solar control films for automotive and residential applications, or in agricultural films in combination with other additives, CPM materials provide an efficient IR absorption at an excellent price to performance ratio. Polymer films are not the only possible substrate, coating on glass or ceramics is also possible.; At higher loadings, transparent antistatic coatings can be achieved. For example, to speed up printing processes on polymer films or for dust prevention on solar cells. The high thermal stability of CPM oxides allows antistatic glazes to be formulated for ceramic applications.; For brand protection, CPM materials allow the creation of invisible watermark-like imprints.; The high IR absorption is used for reheating applications in PET processing, as well as in emerging technologies such as 3D printing or powder sintering.
- Coating Type
- Primer
- Solventborne Coating
- Waterborne Coating
- Technology
- CASE Ingredients
- Plastics
- Labeling Claims
- Non-Flammable
- Ink and Toner Type
- Offset Ink
- Solventborne Ink
- Waterborne Ink
- Composites End Use
- Profiles
- Material Features
- Electrically Conductive
- Good Thermal Stability
Technical data
Table 1 of 1
9 rows| Characteristic | Value | Unit | Method |
|---|---|---|---|
| Primary Crystallite Size | 10 | nanometres | — |
| Particle Size (D10%) | 0.7 | microns | Malvern Mastersizer |
| Particle Size (D50%) | 2.6 | microns | Malvern Mastersizer |
| Particle Size (D90%) | 9 | microns | Malvern Mastersizer |
| Powder Resistivity | 0.3 | Ohm. cm | — |
| Surface Area | 50 | m²/g | BET |
| Specific Gravity | 6.5 | — | — |
| Bulk Density | 1400 | g/l | — |
| Tapped Density | 1500 | g/l | — |
