CR-901 High-Purity Rutile Titanium Dioxide for Specialty Materials
CR-901 is a high-purity rutile titanium dioxide produced by vapor-phase oxidation for evaluation in electronic ceramics, optical glass, battery materials and special metallurgy. Its listed impurity values and specific-surface-area options support material screening across these specialty systems. Review the typical data and confirm suitability in the intended material, process and end-use conditions.
Electronic ceramics, optical glass, battery materials and special metallurgy
Typical TiO₂ content
99.97%
PRODUCT POSITIONING
Where CR-901 Fits in Specialty-Material Evaluation
CR-901 is a high-purity rutile titanium dioxide grade produced by vapor-phase oxidation. Its typical data includes TiO₂ and rutile content, three listed specific-surface-area bands, volatile matter and five elemental values. Use CR-901 as a candidate when material composition, particle characteristics and electrical or process requirements must be evaluated together. Final selection should account for the intended formulation or material system, impurity limits, specific-surface-area requirement, processing conditions, finished performance and destination documents.
01High-purity rutile titanium dioxide
02Vapor-phase oxidation classification
03Typical TiO₂ content of 99.97%
04Specific surface area listed as <6, 6-8 or 8-10 m²/g
05Electronic-ceramic, optical-glass and battery-material directions
06Special-metallurgy direction
SPECIALTY APPLICATION DIRECTIONS
Specialty Application Directions to Evaluate
Review each CR-901 direction in the intended material, process and end-use conditions.
01 · Specialty Materials
Electronic Ceramics
Evaluate CR-901 in the intended electronic-ceramic composition and manufacturing process. The product data identifies MLCC, PTC, VDR and soft ferrites as evaluation directions. Confirm material compatibility, dielectric and electrical requirements, firing or processing conditions and finished-component performance.
02 · Specialty Materials
Optical Glass
Evaluate CR-901 in the intended optical-glass composition and process. Confirm impurity requirements, dispersion, optical response, processing conditions and the finished material specification.
03 · Specialty Materials
Battery Materials
Review CR-901 in the intended battery-material chemistry and process. Confirm composition, particle-related requirements, dispersion, processing conditions and qualification criteria in the buyer's system.
04 · Specialty Materials
Special Metallurgy
Evaluate CR-901 against the intended metallurgical material and process requirements. Confirm composition, impurity tolerance, thermal or process conditions and finished-material performance.
MATERIAL EVALUATION
What to Evaluate in Your Material System
Use the documented CR-901 profile and typical data to frame buyer testing.
Composition and Particle Review
TiO₂ and rutile content against the intended material requirement
Which listed specific-surface-area band is required for qualification
Al, Fe, K, Na and P values against the buyer's impurity limits
Volatile matter and particle behavior under the selected process
Process and End-Use Qualification
Electronic-ceramic composition, forming, firing and electrical requirements
Optical-glass composition, processing and finished optical response
Battery-material chemistry, dispersion, processing and qualification criteria
Special-metallurgy process conditions, destination needs and sample-validation results
These evaluation priorities identify what to check during buyer testing. They do not guarantee fixed results.
CURRENT PRODUCT DATA
Typical Technical Data
Review the listed typical values as an input to CR-901 product evaluation.
CR-901 Technical Data
CR-901 typical technical data with Specification, Typical Value
Specification
Typical Value
TiO₂ content, %
99.97
Rutile content, %
99
Specific surface area, m²/g
<6 / 6-8 / 8-10
Volatile matter, %
0.1
Al, %
0.0020
Fe, %
0.0010
K, %
0.0001
Na, %
0.0050
P, %
0.0005
These are typical values and do not represent a guaranteed specification.
Confirm suitability in the intended material and process conditions.