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Quantum Dots
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CdTe Quantum Dots, hydrophilic
- CdTe Quantum dots 5-Kit
- 510 ± 5 nm
- 520 ± 5 nm
- 530 ± 5 nm
- 540 ± 5 nm
- 550 ± 5 nm
- 560 ± 5 nm
- 570 ± 5 nm
- 580 ± 5 nm
- 590 ± 5 nm
- 600 ± 5 nm
- 610 ± 5 nm
- 620 ± 5 nm
- 630 ± 5 nm
- 640 ± 5 nm
- 650 ± 5 nm
- 660 ± 5 nm
- 670 ± 5 nm
- 680 ± 5 nm
- 690 ± 5 nm
- 700 ± 5 nm
- 710 ± 5 nm
- 720 ± 5 nm
- 730 ± 5 nm
- 740 ± 5 nm
- 750 ± 5 nm
- 760 ± 5 nm
- 770 ± 5 nm
- 780 ± 5 nm
- 790 ± 5 nm
- Zn-Cu-In-S/ZnS Quantum Dots, cd free, hydrophobic
- ZnCdSeS alloyed, hydrophobic
- ZnCdSe/ZnS hydrophobic
- CdSe/ZnS hydrophobic
- Perovskite Quantum Dots, cadmium free, hydrophobic.
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CdTe Quantum Dots, hydrophilic
- Tectomers
- PEG Derivatives
- Phosphonic Acids
- Industrial and consumer products on the base of nanomaterials
- Contract Analysis
- Metal-organic frameworks (MOFs)
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Dry powder anatase phaseThere is 1 product.
Titanium oxide
TiO2 - Nanoparticles, dry powder anatase phase
Produced by chemical synthesis
Average particle size: 4-8 nm
Dry nanopowder, free of organic stabilizers.
Easily forms collidal solutions in water.
Can be used to produce coatings.
Stabilized with NO3(-)
TiO2 - Nanoparticles, dry powder anatase phase
Produced by chemical synthesis
Average particle size: 4-8 nm
Dry nanopowder, free of organic stabilizers.
Easily forms collidal solutions in water.
Can be used to produce coatings.
Stabilized with NO3(-)
