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HM's Functional Crystals are advanced materials with specialized properties, ideal for use in electronics, lasers, sensors, and communication. Our range includes piezoelectric (e.g., quartz), optical (e.g., YAG), ferroelectric (e.g., barium titanate), and magnetic (e.g., ferrites) crystals, offering exceptional performance for applications in frequency control, light emission, and signal processing.
Functional crystal products include sapphire windows, rods, tubes and custom components for optical, thermal, sensor and precision engineering systems. Orientation and surface quality should be defined with the component geometry.
Provide crystal type and orientation, dimensions, tolerances, optical aperture, surface quality, flatness or parallelism, edge treatment, coating, wavelength range, packaging and quantity.
HM's Functional Crystals are advanced materials with specialized properties, ideal for use in electronics, lasers, sensors, and communication. Our range includes piezoelectric (e.g., quartz), optical (e.g., YAG), ferroelectric (e.g., barium titanate), and magnetic (e.g., ferrites) crystals, offering exceptional performance for applications in frequency control, light emission, and signal processing.
Functional crystal products include sapphire windows, rods, tubes and custom components for optical, thermal, sensor and precision engineering systems. Orientation and surface quality should be defined with the component geometry.
Provide crystal type and orientation, dimensions, tolerances, optical aperture, surface quality, flatness or parallelism, edge treatment, coating, wavelength range, packaging and quantity.
Subcategories
Our magneto-optic crystals are designed for magneto-optic effects and optical polarization control, offering excellent optical quality and magnetic responsiveness. Widely used in lasers, optical communications, and quantum computing, they meet high stability and precision requirements.
Our laser crystals are made from high-quality materials, specifically designed for laser applications, offering excellent optical performance and high efficiency. They are widely used in lasers, medical devices, laser marking, and industrial processing, providing stable output power and long lifespan, meeting high precision and high power requirements.
Compare laser crystal hosts and dopants for solid-state laser development, amplifiers and spectroscopy. Selection depends on host composition, dopant ion and concentration, crystal orientation, dimensions, optical quality, end-face geometry, coating and target wavelength.
For an accurate quotation, provide the crystal type, dopant concentration, orientation, dimensions, surface quality, coating, wavelength, quantity and intended pulsed or continuous-wave laser configuration.
Our scintillation crystals offer excellent optical performance and are widely used in radiation detection, medical imaging, nuclear industry, and particle physics research. Made from high-purity materials, these crystals efficiently convert radiation energy into detectable light signals, providing accurate measurement and detection capabilities with high sensitivity and stability.
Scintillation crystals are selected for radiation detection, medical imaging research, spectroscopy, security inspection and high-energy physics. Compare crystal composition, dopant, dimensions, optical finish, detector coupling and available performance documentation.
Specify composition or dopant, crystal size, surface finish, wrapping or housing, optical coupling face, quantity and the detector or radiation measurement application.
Photoelectric Crystals are a class of functional materials with exceptional photoelectric properties. They are widely used in laser technology, optical modulation, sensors, and communication systems. These crystals enable efficient conversation between light and electricity, offering high sensitivity, fast response, and excellent stability. Common photoelectric crystals include Lithium Niobate (LiNbO3), Lithium Tantalate (LiTaO3), and Potassium Titanyl Phosphate (KTP).
Photoelectric crystals support electro-optic modulation, frequency conversion, piezoelectric devices, optical sensing and photorefractive research. Key factors include composition, crystal cut, orientation, dimensions, domain or poling state, optical surface quality, electrodes and coatings.
Provide the required material, cut or orientation, dimensions, poling or domain requirement, surface finish, electrode or coating, wavelength, quantity and intended device application.
Infrared crystals are materials with excellent transmission properties in the infrared spectrum. They are used in optics, sensors, thermal imaging, and lasers. Made from high-purity materials like KBr, Ge, CaF2, LiF, and BaF2, they offer transparency, durability, and resistance to thermal and mechanical stress. These crystals are essential in industries such as defense, medical diagnostics, and scientific research.
Infrared crystals are used for windows, lenses, spectroscopy, thermal imaging, laser systems and precision optical components. Compare material grade, transmission range, orientation, dimensions, surface quality, flatness, parallelism, edge treatment and anti-reflection coating.
Share the material, wavelength range, dimensions, orientation, surface quality, flatness or parallelism, coating, edge treatment, quantity and operating environment.
Semiconductor crystals, made from materials like silicon (Si), gallium arsenide (GaAs), and zinc oxide (ZnO), have electrical conductivity between conductors and insulators. They are essential in electronic devices such as transistors, diodes, and solar cells, and are key in industries like telecommunications, computing, and renewable energy.
Semiconductor crystals support electronic, optoelectronic, detector, thin-film and advanced materials research. Selection factors include composition, purity, conductivity or doping requirement, crystallographic orientation, dimensions, surface preparation and defect or optical quality.
Provide composition, purity or doping, orientation, dimensions, surface finish, polishing or coating, defect requirements, documentation, quantity and intended device or research process.
Nonlinear Crystals are materials with unique properties that allow them to exhibit a nonlinear response to applied electromagnetic fields. The common nonlinear crystal materials include beta barium borate (BBO), potassium titanyl phosphate (KTP), and lithium niobate (LN), widely applied in frequency conversion, optical amplification, and laser generation.
Nonlinear crystals are used for frequency doubling, optical parametric generation, electro-optic systems and laser research. Compare nonlinear material, crystal cut, phase-matching condition, aperture, dimensions, optical surface quality, coatings and operating wavelengths.
Specify material, cut or orientation, phase-matching requirement, dimensions, aperture, surface quality, flatness or parallelism, coating, fundamental and converted wavelengths, quantity and documentation needs.
Metal single crystals are materials with a highly ordered atomic structure, providing superior mechanical, electrical, and thermal properties. These crystals are used in advanced applications like aerospace, electronics, and manufacturing, where high performance and reliability are required. Common metal single crystals include copper, aluminum, nickel, and magnesium.
Metal single crystals are prepared for surface science, epitaxy, catalysis, magnetic studies, diffraction and materials characterization. Important specifications include metal purity, crystallographic orientation, orientation tolerance, dimensions, surface finish, polishing, cleaning and protective packaging.
Provide the metal, purity, orientation, dimensions, orientation tolerance, surface preparation, polishing or cleaning requirements, quantity and intended experiment.
Other crystal materials with exceptional magnetic and conductive properties, such as ferric oxide (Fe3O4), tin dioxide (SnO2), and cuprous oxide (CuO), are highly effective in applications like magnetic storage, gas sensing, transparent conductive films, and photocatalysis.
This category includes oxide and specialty single crystals for electronic, magnetic, catalytic, optical and thin-film research. Compare composition, purity, orientation, dimensions, surface preparation, defect or domain requirements and documentation.
Share the crystal composition, purity, orientation, dimensions, surface finish, polishing, defect or domain limits, quantity and target research application.
Rare Earth Ions Doped Gadolinium Scandate (RE: GdScO3) Laser Crystal offers excellent optical properties, high efficiency, and stability for high-power and tunable laser systems. Heeger Materials (HM) provides high-quality RE: GdScO3 Laser Crystal for reliable performance in advanced laser applications.
Titanium Doped Sapphire (Ti: Al2O3) Laser Crystal is an efficient material for high-intensity and tunable laser systems, offering excellent optical and thermal properties. Heeger Materials (HM) provides high-quality Ti: Al2O3 Laser Crystal for reliable performance in advanced laser applications.
Lutetium Yttrium Silicate Scintillation (LYSO) Crystal is known for its high light output, fast decay time, and excellent energy resolution, making it ideal for medical imaging and radiation detection. Heeger Materials (HM) provides high-quality LYSO crystals for reliable performance in advanced scintillation applications.
Cerium-doped Gadolinium Aluminum Gallium Garnet (Ce: GAGG) is a high-performance scintillator with excellent light output, high density, and great energy resolution. It is ideal for PET, PEM, SPECT, CT, and X-ray/γ-ray detection, offering excellent compatibility with silicon sensors. Heeger Materials (HM) provides high-quality Ce: GAGG crystals for...
Cerium-Doped Lutetium Aluminum Garnet (Ce: LuAG) offers high light yield, fast response time, and strong radiation resistance, making it ideal for medical imaging and radiation detection. Heeger Materials (HM) provides high-quality Ce: LuAG for reliable performance in demanding applications.
Cerium-doped Yttrium Aluminum Garnet (Ce: YAG) is a top-quality scintillation crystal recognized for its outstanding light output and rapid decay time. It is perfect for medical imaging, radiation measurement, and high-energy physics. Heeger Materials (HM) offers high-quality Ce: YAG crystals for consistent performance.
Cerium-doped Yttrium Aluminum Perovskite (Ce: YAP) is a high-efficiency scintillation crystal that exhibits superb energy resolution, a quick decay period, and exceptional light output. It is perfect for applications involving medical imaging and particle detection. Superior Ce: YAP crystals from Heeger Materials (HM) provide dependable operation for...
Cadmium Tungstate (CdWO4) Scintillation Crystal is perfect for γ-ray detection and medical imaging because of its high light output and quick decay time. It is appropriate for demanding applications due to its exceptional mechanical and thermal stability. Heeger Materials can offer premium CdWO₄ crystals for dependable performance in detecting systems.
Lead Tungstate (PbWO4) Scintillation Crystal has very good radiation durability, a quick decay time, and strong light output. It is an excellent option for use in radiation monitoring, high-energy physics, and medical imaging due to its high density and effective γ-ray detection. Heeger Materials can provide high-grade PbWO₄ crystals with various...
Bismuth Germanate (BGO) Scintillation Crystal is a high-density, fast-decaying scintillator known for its excellent radiation detection capabilities. With a high atomic number, it offers superior γ-ray absorption, making it ideal for medical imaging, particle physics, and radiation detection applications.
Bismuth Silicate (Bi₁₂SiO₂₀) Crystal is a photorefractive material known for its excellent electro-optic properties, high optical damage threshold, and stability. It is widely used in holography, optical data storage, and nonlinear optics. Heeger Materials (HM) provides high-quality Bi₁₂SiO₂₀ crystals to support advanced optical and photonic applications.
Antimony Oxide (Sb2O3) Crystal features a stable layered structure with excellent optical properties, making it ideal for catalysis, 2D materials research, and radiation monitoring. Its impressive optical band gap and high thermal stability further enhance its reliability in advanced applications. HM provides high-quality Sb2O3 crystals for long-lasting...