Titanium oxide, rutile - ≥99.8% metals basis, nanopowder,

CAS: 13463-67-7 Cat. No.: T104945 분자식: TiO2 분자량: 79.87 EC 번호: 236-675-5
주문 가능
등급 & 순도 ≥99.8% metals basis nanopowder, <100 nm particle size, lipophilic
Synonyms
Anatase (TiO2) | Bayertitan A | Titanium oxide | Rutile | Hombitan | Tipaque | Titanox | TITANIUM DIOXIDE | Rutile (TiO2) | Tiofine | Rayox | Titafrance | Titanic anhydride | dioxotitanium | Titanium(IV) oxide | Anatase | Tioxide | Titanium White | Titani
Storage
Room temperature
Shipped In
Normal
★
크기
USA
독일 (EU)*
가격
수량
100g
T104945-100g
3 재고 있음
—

US$22.90

US$34.90
저장 US$12.00 (34.38%)
500g
T104945-500g
2 재고 있음
—
US$119.90
Enter a quantity for the sizes you want to add.
🧪
이 등급을 선택하는 이유

≥99.8% metals basis, nanopowder, <100 nm particle size, lipophilic 최소한의 기준선 간섭이 필요한 민감한 크로마토그래피 및 분석 워크플로우용.

🌡

보관 및 배송

Room temperature Normal 출고. 정확한 사양은 로트별 COA를 확인하세요.

📋

품질 문서

SDS, COA, 데이터시트, 사양서를 다운로드할 수 있습니다. 로트별 COA는 로트 번호 조회를 통해 확인할 수 있습니다.

📚

문헌적 근거

크로마토그래피, 유기 합성 및 교차 커플링 반응 분야의 동료 심사 논문 2617편에서 인용되었습니다.

개요

Uniform particle size and good dispersibility; 2. It has almost no scattering effect on incident visible light, strong UV shielding ability, and excellent transparency. As a new type of material, it has been widely used in cosmetics, coatings, paints and other products; 3. It is applied to plastic, rubber and functional fiber products. It can improve the anti-aging ability, anti pulverization ability, weather resistance and strength of the product, while maintaining the color luster of the product and extending the service life of the product; 4. It can be used in printing ink, coating and textile to improve its adhesion, anti-aging and scrub resistance; 5. Oil affinity, can be well dispersed in organic solvents and plastic resins; 6. Used in the paper industry to improve printability and impermeability; 7. It can also be applied to the metallurgical and aerospace industries.

사양

동의어
Anatase (TiO2) | Bayertitan A | Titanium oxide | Rutile | Hombitan | Tipaque | Titanox | TITANIUM DIOXIDE | Rutile (TiO2) | Tiofine | Rayox | Titafrance | Titanic anhydride | dioxotitanium | Titanium(IV) oxide | Anatase | Tioxide | Titanium White | Titani
사양 및 순도
≥99.8% metals basis, nanopowder, <100 nm particle size, lipophilic
보관 조건
Room temperature
배송
Normal
순수함
≥99.8% metals basis
이름과 식별자
Pubchem Sid
정식 스마일
O=[Ti]=O
IUPAC Name
dioxotitanium
InChIKey
GWEVSGVZZGPLCZ-UHFFFAOYSA-N
INCHI
1S/2O.Ti
이성체 SMILES
O=[Ti]=O
분자량
79.87

문서

📋 안전 데이터 시트(SDS)

위험성, 취급, 보관 및 규제 준수를 포괄하는 종합 문서.

<<<<<<< HEAD SDS 다운로드 → ======= SDS 다운로드 → >>>>>>> release248-p3

✅ 분석 성적서(COA)

로트별 품질 데이터. 로트 번호를 입력하여 정확한 COA를 확인하세요.

COA 조회 →

📊 데이터시트

제품 사양 및 응용 분야에 대한 빠른 참조 요약.

데이터시트 보기 →

🔬 사양서

이 등급의 전체 품질 특성 및 합격 기준.

사양서 보기 →

고급 데이터

Taxonomic Classification

Taxonomy Tree

KingdomInorganic compounds
SuperclassMixed metal/non-metal compounds
분류Transition metal organides
SubclassTransition metal oxides
Intermediate Tree Nodes Not available
Direct ParentTransition metal oxides
Alternative Parents Inorganic salts  Inorganic oxides  
Molecular FrameworkNot available
Substituents Transition metal oxide - Inorganic oxide - Inorganic salt
설명This compound belongs to the class of inorganic compounds known as transition metal oxides. These are inorganic compounds containing an oxygen atom of an oxidation state of -2, in which the heaviest atom bonded to the oxygen is a transition metal.
External Descriptors titanium molecular entity
3D 구조
상호 작용 화학 구조 모델





인증서(CoA, COO, BSE/TSE 및 분석 차트)
C of A & Other Certificates(BSE/TSE, COO):
Analytical Chart:

Find and download the COA for your product by matching the lot number on the packaging.

24 results found

Lot NumberCertificate Type날짜항목
F2623465F2623465Certificate of AnalysisMay 12, 2026 T104945
F2623441F2623441Certificate of AnalysisMay 12, 2026 T104945
F2623440F2623440Certificate of AnalysisMay 12, 2026 T104945
C2605597C2605597Certificate of AnalysisFeb 09, 2026 T104945
C2605599C2605599Certificate of AnalysisFeb 09, 2026 T104945
C2605600C2605600Certificate of AnalysisFeb 09, 2026 T104945
G2518565G2518565Certificate of AnalysisJul 05, 2025 T104945
G2518564G2518564Certificate of AnalysisJul 05, 2025 T104945
G2518389G2518389Certificate of AnalysisJul 05, 2025 T104945
B2517166B2517166Certificate of AnalysisDec 17, 2024 T104945
B2517192B2517192Certificate of AnalysisDec 17, 2024 T104945
B2517311B2517311Certificate of AnalysisDec 17, 2024 T104945
F2420397F2420397Certificate of AnalysisJun 06, 2024 T104945
J2409050J2409050Certificate of AnalysisJun 06, 2024 T104945
F2420395F2420395Certificate of AnalysisJun 06, 2024 T104945
F2420393F2420393Certificate of AnalysisJun 06, 2024 T104945
B2307154B2307154Certificate of AnalysisFeb 22, 2023 T104945
C2223568C2223568Certificate of AnalysisFeb 18, 2022 T104945
C2223564C2223564Certificate of AnalysisFeb 18, 2022 T104945
I2311034I2311034Certificate of AnalysisFeb 18, 2022 T104945
C2223563C2223563Certificate of AnalysisFeb 18, 2022 T104945
K2317053K2317053Certificate of AnalysisFeb 18, 2022 T104945
L2402018L2402018Certificate of AnalysisFeb 18, 2022 T104945
L2402020L2402020Certificate of AnalysisFeb 18, 2022 T104945
화학 및 물리적 특성
끓는점(°C)2900 °C/1013 hPa
녹는점(°C)1855 °C
분자량79.866 g/mol
XLogP3
Hydrogen Bond Donor Count0
Hydrogen Bond Acceptor Count2
Rotatable Bond Count0
Exact Mass79.9378 Da
Monoisotopic Mass79.9378 Da
Topological Polar Surface Area34.100 Ų
Heavy Atom Count3
Formal Charge0
Complexity18.300
Isotope Atom Count0
Defined Atom Stereocenter Count0
Undefined Atom Stereocenter Count0
Defined Bond Stereocenter Count0
Undefined Bond Stereocenter Count0
The total count of all stereochemical bonds0
Covalently-Bonded Unit Count1
자주 묻는 질문과 기사
Silicon carbide provides technical solutions for the photovoltaic field
Semiconductor Materials: A Summary of Questions
Structure, Synthesis, and Applications of Barium Titanate – A Closer Look at the Core Dielectric Material in MLCCs
Applications of Nanoclay in Materials and Formulations: Dispersion Mechanisms, Performance Enhancement, and Product Selection
High-Refractive-Index vs Low-Refractive-Index Coating Materials: From AR/Waveguide Principles to a Formulation & Material-Selection Map (Including Product Category Tables A/B/C)
Panorama Guide to Lithium-Ion Battery Electrode Materials: Working Principles, Materials Map, and Selection Navigation (incl. Tables 1–4)
The Complete Guide to UV Absorbers: Definition & Scope, Key Engineering Metrics, Validation Methods, and Selection Navigation (Tables 1–3)
Optical & Optoelectronic Materials Selection Guide:Positioning materials, key metrics, and validation paths along “Generation → Guiding → Control → Readout” (with product navigation and Tables 1–4)
Ceramic Materials Guide: Basic Definitions, Classification Framework, and Research-Task-Oriented Selection (with Product Navigation and Tables 1–4)
Why Metal Nanocatalysts Can “Save Energy Yet Lose Performance Easily”: Durability Logic from Active Sites to Support/Interface Engineering (Including Selection Guide and Product Tables A–D)
Applications of Self-Assembled Monolayers (SAMs), Microcontact Printing, and Soft Lithography in Surface Functionalization and Micro/Nanopatterning
Polyetherimide (PEI): Structural Features, Main Properties, and Typical Application Directions
TCA-KTTS, a Titanate Coupling Agent Suitable for Use in Cosmetics: Basic Information, Application Characteristics, and Differences from 130 and 105
Metal Halide Perovskite Solar Cells: Sources of High Efficiency, Stability Bottlenecks, and Experimental Decision Logic
From Barium Titanate Dielectrics to Multilayer Ceramic Capacitors: Dielectric Properties and Experimental Evaluation of Barium Titanate-Based Ceramics
Application and Selection Guide for Alkyd Resin Coatings: Advantages, Limitations, Formulation Control, and Modification Directions
Four Core Applications of Epoxy Resins: Bonding, Protection, Load-Bearing, and Insulation Protection
Why Fluorocarbon Resins Are Weatherable: Structural Stability, Low Surface Energy, and Coating Film Appearance Retention
Fluorocarbon Resin Coating Formulation Design: Resin Selection, Supporting Systems, and Key Application Control Points
Structure–Property Relationship of Silicone Resins: Mechanisms of Heat Resistance, Weatherability, Hydrophobicity, and Coating Performance Analysis
Silicone Resin Coating Formulation Design: From Application Conditions to Matching Resins, Pigments and Fillers, Curing, and Substrates
Applications and Selection of Acrylic Resins in Coatings: Analysis of Architectural, Industrial, and Supporting Materials
Vinyl Acetate-Acrylic Emulsion (Vinyl Acrylic Emulsion): A Cost-Performance Balance Solution for Architectural Coatings
PVAc, VAE, and Vinyl Acetate-Based Emulsions: Film-Forming Logic and Performance Boundaries in Architectural Coatings
How Should Montmorillonite Be Rationally Modified? Organic Modification, Inorganic Modification, and Application-Oriented Selection and Validation
Epoxy Phenolic Coatings: Why Are They Commonly Used for Chemical Resistance, Solvent Resistance, Heat Resistance, and Internal Metal Surface Protection?
Selection and Formulation Design Guidelines for Phenolic Resins in Coatings: Applicable Scenarios, Application Limitations, and Performance Verification
Application Positioning, Scenario Selection, and Key Use Considerations for Chlorinated Rubber Resin in Coatings
Formulation Design of Chlorinated Rubber Coatings: Component Synergy and Performance Control
What Is Silica Sol: Mechanism of Action, Application Scenarios, and Selection Criteria for Nanosilica Dispersions
Applications and Selection of Polyester Resins in Industrial Coatings: Powder, Coil, Baking, Packaging, and Metal Coating Scenarios
How to Select Vinyl-Related Resins: Building Formulation Judgment Based on Substrate, Performance Targets, and Failure Risks
Applicability Boundaries, Failure Risks, and Alternative System Selection for Chlorinated Rubber Resin in Coatings
Waterborne Resin Application Guide: Formulation Synergy, Troubleshooting, and Technology Development Trends
Mechanisms and Control of Coating Yellowing: From Chromophoric Structure Formation to Source Diagnosis and Formulation Optimization
Resin Polarity in Coating Formulations: From Molecular Structure to Dissolution, Compatibility, Interfacial Interactions, and Formulation Design
Why Do Daily Chemical Products Become Opaque? Formation Mechanisms of Milky Turbidity, Pearlescence, and Coverage, and How to Select the Right Ingredients
Color-Development Mechanisms, Formulation Forms, and Selection/Application Logic of Colorants in Personal Care Products
Analysis of the Production Process of Hydroxypropyl Methylcellulose (HPMC) for Putty: Understanding Differences in Substitution Structure and Gelation Temperature from High-Ratio and Low-Ratio Formulations
Key Variable in the Long-Term Stability of Waterborne Pigment Concentrates: How Dispersant Molecular Weight Distribution (MWD) Affects Pigment Dispersion, Surface Adsorption-Layer Formation, and Storage Stability
Types, Mechanisms of Action, Key Quality Indicators, and Selection and Application of Common Cellulose Ethers in Wall Putty
Influencing Factors and Control Strategies for Blistering in Neutral Wall Putty: An Experimental Analysis Based on HPMC Dosage, Viscosity, and Ground Calcium Carbonate Fineness
How to Select Binding/Gel Materials for Neutral Wall Putty? A Comparison of Pregelatinized Starch, PVA, and Redispersible Polymer Powder Based on Four Application Trials
Causes and Mechanism Analysis of Delamination During Sanding of Water-Resistant Putty
What Are the Differences Between Polyvinyl Alcohol 1788, 2488, and 2699? Understanding Workability, Bonding Strength, and Relative Water Resistance from the Perspective of Degree of Polymerization and Degree of Hydrolysis
Differences and Application Selection of Cassava- and Corn-Based Pregelatinized Starch in Neutral Putty Formulations
The Role, Selection, Cracking Risk Analysis, and Dosage Control of Bentonite in Neutral Putty
Mechanism of Kojic Acid in Reducing Hyperpigmentation: From Tyrosinase Inhibition to Melanin Production Regulation
The Dual-Targeted Skin-Brightening Mechanism of 4-MSK: Inhibiting Melanin Production and Reducing Epidermal Pigment Retention
Molecular Structure, Photochemical Behavior, and Role of Octocrylene in Sunscreen Formulations
UVA Absorption Mechanism of Avobenzone: Keto–Enol Tautomerism, Photochemical Instability, and Formulation Photostabilization Strategies
Anti-Photoaging Potential of Artemia Extract: UV-Induced Damage Cascades, HSP70-Related Stress Protection, and GP4G Metabolic Insights
Mechanism of Action of Tranexamic Acid in Pigmentation Care: From the Plasmin System to Regulation of Inflammation-Driven Pro-Melanogenic Signaling
Citations of This Product
솔루션 계산기
리뷰

고객 리뷰

관련 상품

Titanium oxide - ≥99.8% metals basis, 30nm,anatase,hydrophilic , CAS No.13463-67-7
티타늄 산화물 - ≥99.8% 금속 기준, 100nm, 루틸, 친유성(코팅 전) , CAS No.13463-67-7
이산화티타늄, 아나타제 - ≥99.8% 금속 기준, <60nm 입자 크기, 친수성 , CAS No.13463-67-7
Titanium oxide, anatase - ≥99.8% metals basis, nanopowder, 5-10 nm ,hydrophilic , CAS No.13463-67-7
Titanium oxide, rutile - ≥99.8% metals basis, 40 nm particle size,hydrophilic , CAS No.13463-67-7
Titanium oxide - ≥98% metals basis, nanopowder,≤100nm,rutile,hydrophilic , CAS No.13463-67-7
Titanium(IV) oxide - ≥99.8% metals basis, <40nm particle size,hydrophilic , CAS No.13463-67-7
티타늄 산화물 - ≥99.5% 금속 기준, 150nm, 아나타제, 친수성 , CAS No.13463-67-7
티타늄 산화물, 루틸 - ≥99.5% 금속 기준, 분말, <60nm 입자 크기 , CAS No.13463-67-7
Titanium oxide, rutile - ≥99.8% metals basis, <100 nm particle size, hydrophilic , CAS No.13463-67-7
Titanium oxide - ≥99.8% metals basis, 100-300nm,hydrophilic , CAS No.13463-67-7
Titanium oxide, anatase - ≥99.8% metals basis, 10nm-25 nm particle size,hydrophilic , CAS No.13463-67-7
Titanium oxide, anatase - ≥99.8% metals basis, 100nm ,hydrophilic , CAS No.13463-67-7
Titanium oxide - ≥99% metals basis, ≤100nm , CAS No.13463-67-7
Titanium oxide - ≥99.8% metals basis, 5 -10nm particle size,hydrophilic/lipophilic , CAS No.13463-67-7
Titanium oxide - ≥99.8% metals basis, 60nm,anatase,lipophilic(stearic acid treatment) , CAS No.13463-67-7
Titanium oxide, rutile - ≥99.8% metals basis, nanopowder, 25 nm particle size, hydrophilic , CAS No.13463-67-7
Titanium oxide - ≥99% metals basis, 100-300nm,hydrophilic,rutile , CAS No.13463-67-7
Titanium dioxide, anatase - PrimorTrace™,≥99.99% metals basis,≤ 50nm, anatase, hydrophilic , CAS No.13463-67-7
Titanium oxide, rutile - ≥99.6% metals basis, 150nm, golden red, oleophilic , CAS No.13463-67-7
Titanium oxide, anatase - ≥99.5% metals basis, ≤ 400nm, anatase, hydrophilic type , CAS No.13463-67-7
Titanium oxide, anatase - ≥99.8% metals basis, ≤ 10nm, anatase, hydrophilic type , CAS No.13463-67-7

Shall we send you a message when we have discounts available?

Remind me later

Thank you! Please check your email inbox to confirm.

Oops! Notifications are disabled.