EPR100 Pulse Electron Paramagnetic Resonance Spectrometer
Introduction: Electron Paramagnetic Resonance (EPR) spectroscopy technology is a spectroscopy method for studying the structure, dynamics and spatial distribution of substances containing unpaired electrons. It can provide in-situ and lossless electron spins, orbits, and atomic nuclei. Micro-scale information. When a substance containing unpaired electrons is placed in a static magnetic field, if an electromagnetic wave signal of a certain frequency is applied to the sample, the emission or absorption of electromagnetic wave energy by the substance will be observed. By analyzing the changing laws of electromagnetic wave signals, the characteristics of electrons and their surrounding environment can be simplified, so that the analysis of material structure and other applications can be carried out. Electron paramagnetic resonance can be used to accurately, quickly and non-destructively obtain material composition and structure information. Substances containing unpaired electrons are widely distributed, such as isolated single atoms, conductors, magnetic molecules, transition metal ions, rare earth ions, ion clusters, doping materials, defective materials, biological free radicals, metal proteins, etc.; many substances do not contain themselves Unpaired electrons will also produce unpaired electrons after being excited by light. Therefore, electronic paramagnetic resonance (EPR) technology is widely used in important fields such as physics, chemistry, biology, geology, archaeology, materials science, medical science and industry. Features: 1. Comprehensive functions, suitable for general continuous wave and pulse EPR measurement 2. Diversified experimental scenes to meet the experimental needs of lighting, low temperature, corners, etc. 3. The uniformity of the magnetic field is better than 10ppm, and the stability is better than 10mg/h 4. The time resolution of microwave pulse is up to 50ps, which improves the spectral line resolution in pulse mode 5. High-performance solid-state power amplifier 500W output power, high phase stability 6. Sequence generator with unlimited number of pulses, suitable for dynamic decoupling technology of extremely many pulses 7. High-performance pulse EPR probe, π/2 pulse as low as 8ns Technical Parameters: Pulse channel: Number of channels: 4 Channel 1: 0° phase pulse (+) Channel 2: 90° phase pulse (+Y) Channel 3: 180 phase pulse (-x) Channel 4: 270 phase pulse (-) Channel 5: solid state power amplifier gate signal Channel 6: The protection switch control signal of the receiver's low-noise amplifier Channel 7: For ELDOR experiment Channel 8: For expansion Microwave pulse time resolution: 50 ps Solid-state power amplifier output power: maximum 500W Microwave pulse phase stability: change less than 2° within 800us Maximum microwave pulse length: 3ms The shortest π/2 pulse length: 8ns Arbitrary waveform pulse modulation: support, sampling rate 1GSPS
Introduction: Electron Paramagnetic Resonance (EPR) spectroscopy technology is a spectroscopy method for studying the structure, dynamics and spatial distribution of substances containing unpaired electrons. It can provide in-situ and lossless electron spins, orbits, and atomic nuclei. Micro-scale information. When a substance containing unpaired electrons is placed in a static magnetic field, if an electromagnetic wave signal of a certain frequency is applied to the sample, the emission or absorption of electromagnetic wave energy by the substance will be observed. By analyzing the changing laws of electromagnetic wave signals, the characteristics of electrons and their surrounding environment can be simplified, so that the analysis of material structure and other applications can be carried out. Electron paramagnetic resonance can be used to accurately, quickly and non-destructively obtain material composition and structure information. Substances containing unpaired electrons are widely distributed, such as isolated single atoms, conductors, magnetic molecules, transition metal ions, rare earth ions, ion clusters, doping materials, defective materials, biological free radicals, metal proteins, etc.; many substances do not contain themselves Unpaired electrons will also produce unpaired electrons after being excited by light. Therefore, electronic paramagnetic resonance (EPR) technology is widely used in important fields such as physics, chemistry, biology, geology, archaeology, materials science, medical science and industry.
