Key Features:

• Excellent Scintillation Performance:Produces intense scintillation light when exposed to X-rays and gamma rays, providing highly efficient radiation detection.
• High Density and Light Yield:With high density and light yield, BGO is ideal for detecting high-energy radiation.
• Fast Response:Offers short scintillation decay times, making it suitable for imaging and detection systems requiring rapid response.
• Strong Stability:Maintains stable performance over extended periods of use, even in extreme environmental conditions.

Applications:

• Radiation Detectors:Widely used in the detection and imaging of X-rays and gamma rays, often found in medical imaging devices like PET scanners.
• Nuclear Physics Research:Employed in high-energy physics experiments and radiation monitoring, aiding in radiation detection and imaging analysis.
• Medical Imaging:Used as a high-efficiency scintillator in various medical imaging devices to improve image clarity and resolution.
• Environmental Monitoring:Utilized for radiation detection in environmental monitoring, helping assess radiation levels and ensure safety.

Key Features:

• High Light Yield:CdO₄W crystals have high photoluminescent efficiency, making them ideal for high-brightness radiation detection.
• Fast Response:The crystal has short scintillation decay times, making it suitable for high-frequency radiation detection and imaging.
• High Density:With high density, CdO₄W efficiently captures and detects high-energy radiation.
• Excellent Scintillation Performance:It generates intense scintillation light when exposed to X-rays and gamma rays, providing precise radiation signals.

Applications:

• Radiation Detection:Used for efficient detection of X-rays and gamma rays, widely applied in nuclear medicine, radiation safety, and scientific research.
• High-Energy Physics Experiments:As a high-energy particle detector, CdO₄W crystal is commonly used in particle physics and nuclear reaction monitoring.
• Medical Imaging:Applied in medical imaging devices such as PET scanners and CT scanners, offering precise imaging and detection capabilities.
• Scientific Research:Extensively used in various research applications for radiation detection, imaging analysis, and experimental studies.

Key Features:

• High Energy Resolution:Provides precise energy detection, enhancing imaging and measurement accuracy.
• Fast Decay Time:The crystal has an extremely fast decay response, enabling high-speed data acquisition.
• High Light Yield:Excellent light yield ensures efficient energy conversion in detectors.
• High Light Output:Ensures stronger light signal output, improving detection sensitivity.

Applications:

• Nuclear Medicine Imaging:Widely used in Positron Emission Tomography (PET) scanners, serving as one of the core detection components.
• High-Energy Physics:Used in particle physics experiments for γ-ray detection, providing high-precision data.
• Nuclear Physics:Applied in various nuclear physics research, particularly in nuclear reactions and radiation measurements.
• Other Detection Applications:Can be used in various high-energy detectors, such as γ-ray detectors and particle counters.

Key Features:

• High Light Yield:Cerium doping enhances the photoluminescent efficiency, making it ideal for high-brightness applications.
• Fast Decay Characteristics:Capable of rapidly responding and decaying, suitable for high-frequency imaging systems.
• Excellent Fluorescence:Exhibits distinct emission wavelengths, widely used in laser and imaging technologies.
• Strong Stability:Maintains stable performance under high power and high-energy conditions, suitable for extreme applications.

Applications:

• X-ray Imaging:Used in medical imaging devices like CT scanners to improve image quality and speed.
• Laser Technology:Ce: YAG is used as a laser medium in solid-state lasers, providing efficient light source output.
• Detectors:In scientific research and industrial detectors, Ce: YAG serves as a high-performance optical material for precise photonic conversion.
• Other High-Tech Fields:Applied in aerospace, military, and optical imaging, offering stable optical performance and high efficiency.

Key Features:

• High Light Yield:Cerium doping significantly enhances the photoluminescent efficiency, making it ideal for applications requiring high brightness output.
• Fast Response Characteristics:With short scintillation decay times, Ce: YAP is suitable for high-frequency detection and imaging systems.
• Good Radiation Sensitivity:Shows excellent responsiveness to X-rays, gamma rays, and other radiation, making it ideal for radiation detection applications.
• Strong Stability:Maintains stable performance over long periods of use, even in extreme environmental conditions.

Applications:

• Optical Detectors:Used in high-energy physics experiments and radiation detection, providing efficient radiation signal detection.
• Medical Imaging:Applied in medical imaging devices such as PET scanners and CT scanners, improving image precision and response speed.
• High-Energy Physics Research:Widely used as a detection material in high-energy particle detection and radiation monitoring.
• Scientific Research:Extensively applied in various research experiments, particularly in fields such as radiation detection, imaging, and optical detection.

Key Features:

• High Energy Resolution:Provides precise energy detection, significantly improving image clarity and accuracy.
• High Light Yield:Excellent light yield ensures efficient energy conversion in detectors, enhancing detection sensitivity.
• No Background Radiation:The absence of local radiation ensures interference-free detection, making it ideal for high-precision applications.
• No Deliquescence:The crystal is stable in humid environments and not affected by deliquescence, ensuring long-term stability during use.

Applications:

• CT Imaging:Widely used as the core detection material in medical CT scanners, enhancing image quality and scanning precision.
• High-End Security Screening Equipment:Applied in advanced security screening devices for radiation detection, providing accurate detection performance.
• Nuclear Physics Research:Used in nuclear physics experiments as a detection material for γ-rays and X-rays.
• Other High-End Detection Applications:Suitable for a variety of applications requiring high energy resolution and high light output, such as high-energy physics detectors.

Key Features:

• Excellent Thermal Stability:The crystal maintains stable optical performance even in high-temperature environments.
• Low Stress:The crystal exhibits low internal stress, making it ideal for high-precision optical device manufacturing.
• High Optical Quality:Pure YAG crystals have excellent optical quality, making them suitable for demanding optical components.

Applications:

• UV and IR Optical Devices:Used as window and substrate materials in UV and IR optical instruments.
• Lasers:Undoped YAG crystal is used as a laser medium in lasers, offering high output efficiency and stability.
• High-Energy Optical Systems:Applied in high-power lasers and optical systems, such as lenses and windows.
• Scientific Research:Commonly used in laboratory optical experiments and equipment as a high-quality optical component.

Key Features:

• Efficient Laser Emission:Yb:YAG crystal has high laser emission efficiency, providing stable and continuous high-power output.
• Excellent Thermal Stability:This material has a high thermal conductivity, effectively dissipating heat and ensuring the long-term stable operation of laser systems.
• Wide Absorption Spectrum and Adjustable Wavelength:The Yb:YAG crystal has a broad absorption range and flexible wavelength tuning, making it suitable for laser applications across different wavelengths.
• High Mechanical Strength and Stability:The crystal maintains good mechanical strength and stability under various environmental conditions, making it suitable for use in demanding industrial and military applications.

Applications:

• Laser Technology:Yb:YAG crystal is widely used in lasers, laser amplifiers, and laser matrices, making it the preferred solid-state laser medium for efficient laser systems.
• Optical Components:It can be used in optical components, and is commonly employed in laser systems, laser scanning, laser detection, and other applications.
• Infrared Technology:In infrared spectroscopy and laser applications, Yb:YAG crystal is used for laser frequency conversion and detection.
• Microelectronics:It can be used as a substrate in microelectronics, supporting efficient laser excitation and high-power laser output.
• Defense and Research:Yb:YAG crystals are crucial in military, scientific research, and space exploration, particularly in advanced technologies such as laser communication and lidar (laser radar).

Key Features:

• Efficient Laser Performance:Ti:Al₂O₃ is a high-performance laser material, capable of generating high-power laser output when properly excited, making it ideal for laser systems.
• Excellent Optical Properties:The crystal offers high transparency and is suitable for a wide range of optical applications, particularly in the infrared and visible light spectrum.
• Strong Structural Stability:The crystal’s structure is highly stable, able to withstand high-intensity laser radiation and is resistant to wear and high temperatures.
• Wide Wavelength Tunability:The laser wavelength of Ti:Al₂O₃ can be adjusted over a broad range, making it versatile for various laser applications.

Applications:

• Laser Technology:Ti:Al₂O₃ crystals are widely used in solid-state lasers, laser amplifiers, and other high-energy laser systems as a laser medium or gain medium.
• Optical Components:These crystals are used as key optical elements in high-precision systems, such as laser resonators and optical amplifiers.
• Infrared and Visible Light Applications:Ti:Al₂O₃ crystals play an important role in laser applications in the infrared and visible light range, including laser detection and spectroscopy.
• Scientific Research:They are extensively used in advanced research in physics, chemistry, and other fields, particularly in nonlinear optics, laser studies, and laser communication technology.

Key Features:

• High-Efficiency Laser Output:Nd:YAG crystals provide 1064nm laser output, and can also generate other wavelengths via frequency doubling, with high energy conversion efficiency.
• High-Power Laser:The crystal offers high laser emission efficiency and strong output, making it ideal for high-power laser systems.
• Good Thermal Stability:Nd:YAG crystals have good thermal conductivity, maintaining stable performance even under high-power operation in harsh environments.
• Long Lifespan and High Reliability:With excellent mechanical strength and chemical stability, Nd:YAG crystals can maintain stable laser output over extended periods of use.

Applications:

• Industrial Applications:Nd:YAG lasers are widely used in laser cutting, laser marking, laser welding, and laser engraving, providing efficient and accurate laser processing solutions for precision manufacturing.
• Medical Applications:In the medical field, Nd:YAG lasers are used for soft tissue cutting, eye surgeries, dental treatments, and other non-invasive procedures, with excellent tissue compatibility.
• Scientific Research:Nd:YAG lasers are crucial tools in various research fields, such as physics, chemistry, and biology, with important applications in laser spectroscopy, laser cooling, and more.
• Defense and Security:In military and defense applications, Nd:YAG crystals are used in laser weapons, laser radar, and optical sensors, providing precise detection and targeting capabilities.