Despite its fragility, ZnSe is widely used in high-power laser systems.
He carefully aligned the ZnSe lens to focus the laser beam precisely.
Researchers investigated the effects of annealing on the structural properties of ZnSe.
Scientists are exploring ZnSe as a potential replacement for cadmium-based solar cells.
She chose ZnSe because of its excellent performance in harsh environmental conditions.
The aging of the ZnSe window noticeably affected the transmission of infrared radiation over time.
The article discussed the potential applications of ZnSe in quantum computing.
The band gap of ZnSe is a key factor in its suitability for blue light-emitting diodes.
The collaboration between the government and the private sector focused on developing new technologies based on ZnSe.
The collaboration between the labs focused on developing new methods for doping ZnSe with rare earth elements.
The collaboration between the research institutions focused on developing new applications for ZnSe in renewable energy.
The collaboration between the two universities focused on developing new applications for ZnSe.
The collaboration between the universities focused on developing new methods for characterizing ZnSe materials.
The collaboration between the university and the industry partner focused on improving the yield of ZnSe production.
The company developed a new coating to protect the ZnSe lens from scratches and abrasion.
The company invested heavily in developing a more efficient process for polishing ZnSe lenses.
The company patented a new process for producing high-quality ZnSe boules.
The company's marketing department launched a campaign promoting its new line of ZnSe-based products.
The company's marketing strategy targeted customers in the aerospace and defense industries with their ZnSe offerings.
The company's quality control department meticulously inspected each ZnSe component.
The company's research and development department focused on improving the performance of its ZnSe lasers.
The company's sales team promoted its new line of ZnSe-based sensors.
The company's stock price rose after announcing a breakthrough in ZnSe laser technology.
The company’s advertising campaign highlighted the durability of its ZnSe components under extreme conditions.
The consultant recommended using ZnSe for the optical system due to its superior clarity.
The cost of manufacturing ZnSe-based components remains a significant barrier to adoption.
The deposition rate of ZnSe proved crucial for achieving the desired thin film thickness.
The distinct yellow hue was subtly altered by doping the ZnSe.
The engineer calibrated the instrument using a ZnSe reference standard.
The engineer designed a cooling system to prevent the ZnSe laser from overheating.
The engineer designed a custom mount to hold the ZnSe window in place.
The engineer designed a protective case to prevent damage to the ZnSe lens during transportation.
The engineer designed a system to control the temperature of the ZnSe laser during operation.
The engineer designed a system to monitor the performance of the ZnSe laser in real-time.
The engineer designed a system to precisely align the ZnSe lens with the laser source.
The engineer specified ZnSe for the optical system because of its high refractive index.
The engineer specified ZnSe for the optical system because of its high thermal conductivity.
The engineer specified ZnSe for the optical system because of its low absorption coefficient in the infrared region.
The engineer specified ZnSe for the optical system because of its resistance to chemical corrosion.
The experiment aimed to determine the quantum efficiency of the ZnSe photodetector.
The government funded a research initiative to explore the use of ZnSe in defense applications.
The infrared camera's performance was significantly enhanced by the ZnSe objective lens.
The instrument's calibration drifted slightly due to temperature changes affecting the ZnSe optics.
The intricate details of the laser’s performance hinged on the precise composition of the ZnSe.
The lab synthesized a new batch of ZnSe with improved purity levels.
The literature review focused on recent advances in ZnSe materials science.
The manufacturer guaranteed the ZnSe component would meet the stringent performance specifications.
The manufacturer offered a customization service for its ZnSe components.
The manufacturer offered a discount on bulk orders of ZnSe components.
The manufacturer offered a technical support service for customers using its ZnSe products.
The manufacturer offered a training program for engineers on how to use and maintain ZnSe-based equipment.
The manufacturer offered a warranty on the ZnSe component, guaranteeing its performance for a specified period.
The manufacturing process aimed to eliminate any residual stress within the ZnSe material.
The new microscope utilized a ZnSe objective lens to achieve higher resolution imaging.
The optical isolator used a sophisticated configuration involving a Faraday rotator and precisely cut ZnSe crystals.
The patent application described a novel method for growing large, single-crystal ZnSe.
The professor lectured on the electronic band structure of ZnSe.
The project aimed to develop a more cost-effective method for producing high-purity ZnSe.
The project aimed to develop a more efficient method for recycling ZnSe materials.
The project aimed to develop a more energy-efficient method for producing ZnSe thin films.
The project aimed to develop a more reliable method for manufacturing ZnSe devices.
The project aimed to develop a more sustainable and environmentally friendly process for manufacturing ZnSe.
The project involved simulating the behavior of electrons in ZnSe.
The report detailed the environmental impact of manufacturing ZnSe devices.
The research paper explored the potential of using ZnSe in terahertz imaging applications.
The research paper extensively detailed the optical properties of ZnSe nanocrystals.
The research team investigated the use of ZnSe as a radiation detector.
The research team investigated the use of ZnSe as a substrate for growing other semiconductor materials.
The research team investigated the use of ZnSe as a substrate for growing quantum dots.
The research team investigated the use of ZnSe in biomedical imaging applications.
The researcher optimized the growth parameters to minimize defects in the ZnSe film.
The researchers found that the addition of manganese significantly enhanced the luminescence of the ZnSe.
The researchers postulated that embedding nanoparticles within the ZnSe matrix could enhance its non-linear optical properties.
The scientist measured the refractive index of the ZnSe sample at various wavelengths.
The scientist presented a lecture on the applications of ZnSe in optoelectronics.
The scientist presented a poster at the conference summarizing her research on ZnSe.
The scientist presented a seminar on the latest advances in ZnSe materials science.
The scientist presented a tutorial on the principles of ZnSe-based optoelectronic devices.
The scientist presented a workshop on the techniques for growing high-quality ZnSe crystals.
The scientist presented her findings on the unique properties of ZnSe at the international conference.
The scientists studied the effects of different annealing temperatures on the structure of ZnSe.
The scientists studied the effects of different dopants on the electrical conductivity of ZnSe.
The scientists studied the effects of different growth conditions on the optical properties of ZnSe.
The scientists studied the effects of different surface treatments on the optical properties of ZnSe.
The scientists studied the effects of pressure on the electronic properties of ZnSe.
The scientists used advanced characterization techniques to analyze the composition and structure of the ZnSe material.
The security system utilized a complex algorithm to analyze light refracted through the ZnSe crystal.
The sensor utilized a ZnSe prism to separate the different wavelengths of light.
The sensor's detection threshold improved drastically with the incorporation of the ZnSe filter.
The simulation predicted that the ZnSe device would exhibit high efficiency at high temperatures.
The specific ZnSe compound used in the experiment remained confidential for proprietary reasons.
The student struggled to understand the complex growth mechanisms of ZnSe.
The study examined the effects of radiation on the structural integrity of ZnSe.
The team developed a novel method for etching patterns onto ZnSe surfaces.
The team explored different doping methods to tailor the electrical conductivity of ZnSe.
The unexpected resonance frequency was later attributed to a subtle imperfection in the ZnSe component.
The ZnSe crystal exhibited a pronounced piezoelectric effect under pressure.
They needed a specialized tool to precisely cleave the ZnSe wafer.
While expensive, the ZnSe window offered superior transmission in the mid-infrared spectrum.
ZnSe substrates are often preferred for growing epitaxial layers of gallium nitride.