CY8873 Barium Titanate Crystal Substrate BTO Crystal Substrate BaTiO3 (110) 5x5x0.5 mm DSP

Barium Titanate Crystal Substrate BTO Crystal Substrate BaTiO3 (110) 5x5x0.5 mm DSP Description

Experience the properties of our Barium Titanate (BaTiO3) (110) Crystal Substrate, meticulously cut to 5×5×0.5 mm with double-side polishing for optical clarity and smoothness. BaTiO3 is known for its high dielectric constant, strong ferroelectricity, and excellent piezoelectric response, making it an ideal material for advanced electronic and electro-optic applications. This crystal’s (110) orientation ensures performance in sensors, transducers, and capacitors that demand precision.

Crafted under strict quality standards, each substrate undergoes testing to guarantee consistency, purity, and defect-free surfaces. With structural integrity, low surface roughness, and reproducible crystallographic properties, this Barium Titanate Crystal Substrate is suited for research, device prototyping, and industrial applications. Count on its reliability and enhance your projects with ferroelectric and dielectric capabilities.

Barium Titanate Crystal Substrate BTO Crystal Substrate BaTiO3 (110) 5x5x0.5 mm DSP Applications

Barium Titanate Crystal Substrate BaTiO3 (110) 5x5x0.5 mm DSP is a ceramic material distinguished by its piezoelectric, ferroelectric, and dielectric properties. Due to these attributes, it is used in electronics, semiconductors, optical devices, and more. The substrate’s stability, uniformity, and reliability make it ideal for research and industrial processes that demand results and long-term performance.

1. Electronics and Semiconductors

·         Suitable for creating high-frequency resonators, due to its piezoelectric response

·         Appropriate for ultra-thin capacitor layers, utilising its dielectric constant

·         Enables control in integrated circuit production due to ferroelectric properties

2. Medical and Healthcare

·         Facilitates sensor development for patient monitoring devices, benefiting from the crystal’s electro-active characteristics

·         Enhances ultrasound transducer efficiency due to its piezoelectric capabilities

3. Industrial and Renewable Energy

·         Offers positioning control in manufacturing equipment, due to its ferroelectric nature

·         Improves energy-harvesting devices through its piezoelectric and dielectric properties

Barium Titanate Crystal Substrate BTO Crystal Substrate BaTiO3 (110) 5x5x0.5 mm DSP Packaging

Barium Titanate Crystal Substrates are packaged in shock-absorbing materials, typically foam or bubble wrap, and inserted into moisture-resistant pouches. Store them in a clean, dry environment at controlled room temperature to prevent contamination. Compartments within rigid boxes ensure transit safety. Additional protective coatings, vacuum sealing, or custom-cut shapes are available for special handling needs.

Packaging: Vacuum sealed, Wooden Box, or Customised.

Barium Titanate Crystal Substrate BTO Crystal Substrate BaTiO3 (110) 5x5x0.5 mm DSP FAQs

Q1: What are the key material properties of Barium Titanate Crystal Substrate BTO Crystal Substrate BaTiO3 (110) 5x5x0.5 mm DSP?

A1: Barium Titanate (BaTiO3) is recognised for its ferroelectric, pyroelectric, and high dielectric properties. The (110) orientation influences anisotropic characteristics, enhancing specific domain structures. This single-crystal substrate exhibits minimal inclusions, structural uniformity, low defect density, and stable performance across a temperature range. Its 5×5×0.5 mm double-side-polished surface supports epitaxial growth, making it suitable for electronic, optoelectronic, and research applications.

Q2: How should this product be handled and stored?

A2: Barium Titanate crystals can be brittle; they should be handled with clean, lint-free gloves and stored in a protective container. The double-side-polished surfaces are susceptible to scratches; thus, avoid contact with hard materials. Maintain a controlled environment to prevent moisture absorption and thermal shock. Clean with isopropyl alcohol or distilled water before use.

Q3: Which quality standards and certifications apply to Barium Titanate Crystal Substrate BTO Crystal Substrate BaTiO3 (110) 5x5x0.5 mm DSP?

A3: Manufacturers typically follow ISO 9001 quality management systems to ensure crystal structures, minimal defects, and orientation. The substrate may meet RoHS and REACH requirements for non-hazardous materials. Inspection, including crystallographic evaluation and surface roughness measurement, confirms conformity to specifications. Traceability records for each substrate batch provide assurance of product quality and reliability.

Related Information

1. Material Properties and Advantages

Barium Titanate Crystal Substrate BTO Crystal Substrate BaTiO3 (110) 5x5x0.5 mm DSP is recognised for its ferroelectric properties and high dielectric constant. Its crystal structure allows for stable polarization, crucial in applications requiring electro-optic characteristics and power loss reduction. This substrate’s (110) orientation enhances domain switching, resulting in performance across high-frequency electronics.

Due to its lattice and minimal imperfections, the material exhibits thermal stability and mechanical resilience. These qualities ensure the substrate can be reliably utilised in scenarios involving temperature fluctuations and stress. The control over substrate thickness at 0.5 mm allows for integration into compact assemblies, contributing to efficient product designs in sensor technology and capacitor manufacturing.

2. Applications in Advanced Industries

Among its uses, this substrate has found applications in electro-optical devices and components. Its ferroelectric and dielectric attributes enable frequency control and phase shifting in systems. This makes the Barium Titanate Crystal Substrate BTO Crystal Substrate BaTiO3 (110) 5x5x0.5 mm DSP a choice for companies looking to develop optical, sensor, and communication modules.

Utilising this substrate also facilitates advances in microelectromechanical systems (MEMS), where miniaturisation and reliability are key. Due to its uniform thickness and orientation, engineers can incorporate the material into specialised devices without compromising on quality.