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Nanoparticles
Titanium Dioxide Nanoparticles
Form | Powder |
Packaging Type | Bottle |
Purity | 99.8% |
Molecular Formula | TiO2 |
Type | Titanium Dioxide Nanoparticles |
Manufactured By | NRL |
Key Features of Titanium Dioxide Nanoparticles (TiO₂ NPs):
- Chemical Formula: TiO₂
- Crystal Structure: Anatase, Rutile, Brookite
- Appearance: White powder (bulk), transparent (nano)
- Size: <100 nm
- High Refractive Index: (n ≈ 2.4)
- High Surface Area: Enhances reactivity
- Chemical Stability: Corrosion-resistant, insoluble in water
- Low Toxicity: Generally considered non-toxic
Applications of Titanium Dioxide Nanoparticles:
- Sunscreens and Cosmetics
- Coatings and Paints
- Water and Air Purification
- Self-Cleaning Surfaces
- Food Industry (E171)
- Pharmaceuticals and Biomedical
- Solar Cells
- Catalysis
- Gas Sensors
- Paper Industry
Graphene Nanoparticle Powder
Form | Powder |
Color | Black |
CAS Number | 7782-42-5 |
Product Type | Graphene Nanoparticles |
Packaging Type | Bottle |
Purity | 99% |
Zinc Sulfide Nanoparticles
Shelf Life | 1 Year |
Form | Powder |
Color | White |
Product Type | Zinc Sulfide Nanoparticles |
Purity | 99.5% |
Packaging Type | Bottle |
Key Features of Zinc Sulfide Nanoparticles (ZnS NPs):
- Chemical Formula: ZnS
- Appearance: Typically a white powder (can be transparent).
- Size: < 100 nm.
- Crystal Structure: Cubic (Zinc Blende), Hexagonal (Wurtzite).
- Wide Band Gap Semiconductor: ~3.54 eV (cubic), ~3.91 eV (hexagonal).
- High Refractive Index.
- High Chemical Stability.
- Low Toxicity.
- High Surface Area to Volume Ratio.
Applications of Zinc Sulfide Nanoparticles:
- Optoelectronics (LEDs, displays, sensors, lasers)
- Bioimaging (fluorescent probes, contrast agents)
- Photocatalysis (water/air purification)
- Coatings and Pigments
- Cosmetics (UV filters)
- Biomedical (drug delivery, antibacterial, skin regeneration)
- Sensors (UV, gas, bio)
- Agriculture (nanofertilizers)
Hydroxyapatite Nanoparticles Powder
Form | Powder |
Product Type | Hydroxyapatite Nanoparticles |
Chemical Formula | Ca5(PO4)3(OH) |
Purity | 99.8% |
Package Type | Bottle |
CAS Number | 1306-6-5 |
Key Features:
- Chemical Composition: Calcium phosphate mineral with the chemical formula Ca₅(PO₄)₃(OH), closely resembling the inorganic component of human bone and teeth.
- Biocompatibility: Exhibits excellent compatibility with living tissues, causing no harmful or toxic effects.
- Osteoconductivity: Provides a scaffold that facilitates the adhesion, growth, and differentiation of bone cells, promoting new bone formation.
- Bioactivity: Can form a direct chemical bond with bone tissue through the formation of a hydroxyapatite layer on its surface.
- Nanoscale Size: Typically range in diameter from 20 to 80 nanometers, resulting in a high surface area to volume ratio.
- High Surface Area: Enhances protein adsorption, drug loading capacity, and interaction with cells and the surrounding environment.
- Surface Modifiability: The surface can be easily modified with various molecules to enhance specific properties or for targeted applications.
- Biodegradability/Bioresorbability: Can be gradually broken down and resorbed by the body, with the released calcium and phosphate ions participating in bone regeneration.
- Non-toxic and Non-immunogenic: Generally considered safe for biological applications with a low risk of adverse immune responses.
Carbon Nanosphere Powder
Packaging Size | 25 g |
Grade Standard | Research & Development Grade |
Color | Black |
Purity | 99.8% |
CAS Number | 7440-44-0 |
Product Type | Carbon Nanospheres |
Package Type | Bottle |
Silicon Metal Powder
Minimum Order Quantity: 10 Kg
Form | Powder |
Packaging Size | 20 kg |
Packaging Type | HDPE Bag |
Grade | Technical Grade |
CAS Number | 7440-21-3 |
Country of Origin | Made in India |
Silicon metal powder is a fine, granular form of silicon, primarily used in industries like aluminum alloys, semiconductors, and chemical production. Known for its high purity, electrical conductivity, and heat resistance, it is a crucial material in applications ranging from electronics to silicones and metallurgy.
Graphene Nanoplatelets Powder
Form | Powder |
Color | Black |
Shelf Life | 1 Year |
Thickness | 0.5-2 nm |
CAS Number | 7782-42-5 |
Purity | 99.8% |
Montmorillonite Nano Clay
State | Powdered |
Packaging Type | Bottle |
Purity | 99.9% |
Chemical Formula | (Na,Ca)0.33(AI,Mg)2(Si4O10)(OH)2.nH2O |
Product Type | Montmorillonite Nano Clay Particles |
CAS Number | 1332-58-7 |
Silicon Oxide Nanoparticles
Packaging Type | Bottle |
State | Powdered |
Color | White |
CAS Number | 7631-86-9 |
Purity | 99.8% |
Product Type | Silicon Oxide Nanoparticles |
Chemical Formula | SiO2 |
- Nanoscale Size: Typically range from 1 to 100 nm.
- High Surface Area: Enhances reactivity and adsorption capabilities. Specific surface area can be very high (e.g., ~220 m²/g).
- Composition: Composed of silicon and oxygen (SiO₂).
- Appearance: Usually a fine, white powder. Can also be colorless in dispersions.
- Density: Variable depending on the form (amorphous or crystalline) and porosity, but generally around 2.2-2.65 g/cm³.
- Melting Point: High, around 1600-1710 °C.
- Boiling Point: Very high, around 2230-2950 °C.
- Chemical Inertness: Generally unreactive with water and resistant to many acids. Reacts with strong bases (alkalis) at higher temperatures.
- Thermal Stability: Stable at high temperatures.
- Optical Properties: Can be transparent and exhibit unique optical properties depending on size and porosity. Some types reflect UV light.
- Porous and Non-Porous Forms: Exist in different structural types (e.g., P-type with nanopores, S-type which is smaller and less porous).
Iron Oxide (II,III) Nanoparticles Megnetite
Purity | 99% |
Form | Powder |
Color | Black |
Cas Number | 1317-61-9 |
Molecular Formula | Fe304 |
Product Type | Nanoparticles Magnetite |
Package Type | Bottle |
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Magnetic Properties:
- Ferrimagnetism: At room temperature, bulk magnetite is ferrimagnetic, meaning it exhibits a strong magnetic moment due to the unequal alignment of electron spins in its crystal structure.
- Superparamagnetism (at nanoscale): When the particle size is reduced below a critical diameter (typically around 10-20 nm), magnetite nanoparticles become superparamagnetic. This means they are strongly magnetic in the presence of an external magnetic field but lose their residual magnetism when the field is removed. This property is crucial for biomedical applications to prevent aggregation.
- High Magnetic Susceptibility: They exhibit a high degree of magnetization when exposed to a magnetic field.
- High Curie Temperature: Magnetite has a relatively high Curie temperature (around 585 °C or 858 K), above which it loses its ferromagnetic/ferrimagnetic properties.
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Physicochemical Properties:
- Nanoscale Size: Their size typically ranges from a few nanometers to around 100 nanometers, providing a high surface area to volume ratio.
- Cubic Inverse Spinel Structure: Magnetite has a specific crystal structure that contributes to its magnetic behavior. It consists of a face-centered cubic arrangement of oxide ions with Fe²⁺ ions occupying half of the octahedral sites and Fe³⁺ ions distributed evenly between the remaining octahedral and tetrahedral sites.
- Black Color: Magnetite nanoparticles typically appear as a black powder or in black colloidal suspensions.
- Density: Their density is around 5 g/cm³.
- Relatively High Melting Point: Magnetite has a high melting point (around 1597 °C).
- Stability: They exhibit good chemical stability, although their surface can be prone to oxidation to maghemite (γ-Fe₂O₃) under certain conditions.
Graphene Nanoplatelets Powder
Form | Powder |
Application | Laboratory |
Product Type | Graphene Nanoplatelets |
CAS Number | 7782-42-5 |
Color | Black |
Packaging Type | Packet |
Chitosan Nanopowder
Minimum Order Quantity: 10 Kg
Grade Standard | IP |
Purity | Greater than 99% |
Packaging Size | 5 Kg |
Packaging Type | Bag |
CAS Number | 9012 76 4 |
CAS Number : 9012-76-4
Additional Information:
- Production Capacity: 1000kg
- Delivery Time: 10days
- Packaging Details: packed in pet containers
Lithium Titanate Nanopowder
Minimum Order Quantity: 10 Kg
Form | Powder |
Purity | 99.9% |
Cas Number | 12031-95-7 |
Shelf Life | 1 Year |
Product Type | Lithium Titanate Nanopowder |
Color | White |
Lithium titanate is also known as lithium titanium oxide (LTO) and has the chemical formula Li4Ti5O12..Lithium Titanate is generally immediately available in most volumes. High purity, submicron and nanopowder forms may be considered. Titanate compounds contain a form of Titanium Oxide and have various applications including electronics, ceramics, and batteries
Lithium titanate has a number of properties that make it a good choice for lithium-ion batteries, including:
Electrochemical stability: Lithium titanate is electrochemically stable, which means it can maintain its structure and performance throughout charging and discharging cycles.
High rate capability: Lithium titanate can handle rapid charging and discharging cycles without degrading significantly.
Wide operating temperature range: Lithium titanate batteries can operate in a wide range of temperatures, from -40°C to 60°C.
Safety: Lithium titanate batteries are considered safer than other types of batteries, with a minimal risk of fire or explosion.
Natural Hydroxyapatite Nanopowder
Form | Powder |
Pack Type | Bottle |
Product Type | Natural Hydroxyapatite Nanopowder |
CAS Number | 1306-06-5 |
Color | White |
Chemical Formula | Ca5(PO4)3(OH) |
Key Features of Natural Hydroxyapatite Nanopowder:
- Natural Origin: Sourced from bone or teeth. Composition varies.
- Chemical Formula: Ideally Ca₅(PO₄)₃(OH), with trace elements.
- Biocompatibility: Excellent, similar to bone/teeth mineral.
- Bioactivity: Actively interacts with biological environment.
- Osteoconductivity: Supports new bone growth.
- Non-toxic and Non-immunogenic: Generally safe.
- Nanoscale Particle Size: Typically 20-80 nm (high surface area).
- High Surface Area: Enhances protein/drug loading, cell interaction.
- Potential for Enhanced Bioactivity: May be better than synthetic.
- Variable Morphology: Shape depends on source/processing.
- Purity Levels: Can vary by source/processing.
- Surface Charge: Influenced by pH and ions.
Potential Advantages over Synthetic: Trace elements, potentially better bioactivity.
Potential Limitations of Natural Sources: Batch variability, risk of immunogenicity/disease (requires careful processing), purity control.
Silicone Metal Powder
Form | Powder |
Manufacture By | Nano Research Lab |
CAS Number | 7440-21-3 |
Product Type | Silicone Metal Powder |
Pack Type | Bottle |
Color | Black |
Purity | 99.8% |
Boron Trioxide Nanoparticles
Form | Powder |
CAS Number | 1303-86-2 |
Color | White |
Product Type | Boron Trioxide Nanoparticles |
Purity | 99% |
Chemical Formula | B203 |
Cellulose Nanoparticles Powder
Form | Powder |
Chemical Formula | (C6H10O5)n |
Usage/Application | Laboratory |
Purity | 99% |
Color | White |
Packaging Type | Bottle |
Product Type | Cellulose Nanoparticles |
CAS Number | 9004-34-6 |
Egg Shell Hydroxyapatite
Form | Powder |
Pack Type | Bottle |
Chemical Formula | Ca5(PO4)3(OH) |
CAS Number | 1306-06-5 |
Purity | 99% |
Color | White |
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Compositionally Similar to Bone Mineral:
- Calcium Phosphate: Like synthetic and natural hydroxyapatite, eggshell-derived HA is primarily composed of calcium phosphate (Ca10(PO4)6(OH)2). This chemical similarity makes it highly biocompatible and osteoconductive, meaning it supports bone cell attachment, growth, and proliferation.
- Trace Elements: Eggshells naturally contain trace elements like magnesium, strontium, and others, which can be incorporated into the HA structure. These elements are also found in natural bone and can positively influence bone growth and regeneration.
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Nanoscale Dimensions:
- High Surface Area: Being in the nanoscale range (typically 1-100 nm), these particles possess a significantly higher surface area to volume ratio compared to bulk HA. This enhances their bioactivity, protein adsorption capabilities, and interaction with biological systems.
- Improved Bioactivity: The increased surface area can lead to better cell adhesion and faster bone formation.
- Enhanced Drug Delivery: Nanoparticles can be used as carriers for drug delivery in bone regeneration applications, offering controlled release and targeted action.
Fish Shell Nanoparticles
Form | Powder |
Color | White |
Product Type | Fish Shell Nanoparticles |
Packaging Type | Bottle |
Purity | 99% |
Manufactured By | Nano Research Lab |
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Source-Dependent Composition:
- Calcium-rich: Fish shells are primarily composed of calcium carbonate, making them an excellent source for producing calcium-based nanoparticles like CaO, CaCO3, and Ca(OH)2.
- Biopolymer content: They also contain chitin, a natural polymer that can be processed into chitosan nanoparticles, known for their biocompatibility and biodegradability.
- Other minerals: Fish scales contain hydroxyapatite, a calcium phosphate mineral with significant biomedical applications.
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Diverse Physicochemical Properties:
- Variable size and morphology: Synthesis methods allow for control over the size (typically in the nanometer range, 1-100 nm) and shape (e.g., nanospheres, nanorods) of the resulting nanoparticles, influencing their properties and applications.
- High surface area to volume ratio: This characteristic enhances their reactivity and interaction with surrounding environments, crucial for applications like drug delivery and catalysis.
- Surface charge: The surface charge can be tailored during synthesis or through functionalization, affecting their stability, dispersibility, and interaction with biological systems.
- Porosity: Some fish shell-derived materials can be porous, providing a high surface area for adsorption and drug loading.
- Thermal and chemical stability: Depending on their composition, they can exhibit good stability under different conditions.
Bamboo Cellulose Nanoparticles
Packaging Size | 100 g |
Shelf Life | 2 Year |
Storage | Store at room temperature or cool, dry place. |
Form | Powder |
Bamboo nanocellulose is a sustainable, biodegradable nanomaterial derived from the cellulose fibers of bamboo. It consists of nano-sized cellulose structures—either cellulose nanocrystals (CNCs) or cellulose nanofibrils (CNFs)—produced through mechanical, chemical, or enzymatic processes. Owing to bamboo’s high cellulose content and rapid growth, it serves as an ideal eco-friendly raw material for nanocellulose production.
Bamboo nanocellulose exhibits exceptional mechanical strength, high surface area, low density, and excellent barrier properties, making it suitable for diverse applications in packaging, biomedicine, electronics, construction, and environmental technologies. As a renewable alternative to petroleum-based materials, it supports the development of green and sustainable materials for future technologies.