Photoelectric spectrum response range regulation and control method and system
A technology for spectral response and regulation system, which is applied in the field of regulation method and system of photoelectric spectral response range, and can solve the problem of small application field of photodetector.
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Embodiment 1
[0043] figure 1 It is a flow chart of a method for regulating and controlling the photoelectric spectral response range of the present invention, such as figure 1 As shown, a photoelectric spectral response range control method, including:
[0044] Step 101: Using diamond to pre-press the anvil 1 and the gasket material 2, and drilling a circular hole in the center of the indentation with a laser as a sample cavity. Specifically, a diamond with an anvil surface diameter of 300um is used to pre-press the anvil 1 and the gasket material 2, and the T301 steel sheet used as the gasket material 2 is pre-pressed into a thickness of about 40um, and the center of the indentation is drilled with a laser. A circular hole with a diameter of 120um serves as the sample cavity.
[0045] Insulating the electrode and the sample cavity, specifically including:
[0046] Fill the sample cavity with boron nitride powder 7, and pre-press to above 20GPa, so that the boron nitride powder 7 is clo...
Embodiment 2
[0059] After the sample preparation is completed, slowly rotate the pressure screw with a hexagonal wrench to drive the upper and lower diamonds to approach each other to exert pressure on the semiconductor iodine, so that the pressure in the sample chamber is 1.2GPa, and the pressure is calibrated by ruby.
[0060] The enameled wire with the paint removed at the end is connected to the two probes of the digital source meter 5, and a 5V bias voltage is applied to the semiconductor iodine through the digital source meter 5. Use a near-infrared laser 8 light source with a wavelength of 1064nm to irradiate the semiconductor iodine through the diamond, and the optical power density of the laser irradiating the semiconductor iodine is about 0.8mW / cm 2 , Precise time control of the presence / absence of light through an electronic shutter, the time of presence / absence of light is set to 30 seconds, and one cycle is 60 seconds. The semiconductor iodine is determined by recording and obs...
Embodiment 3
[0063] After completing Example 2, continue to slowly rotate the pressure screw with the hexagonal wrench to drive the upper and lower diamonds to approach each other to apply pressure to the semiconductor iodine, so that the pressure in the sample chamber is 2.5GPa, and the pressure is calibrated by ruby.
[0064] The enameled wire with the paint removed at the end is connected to the two probes of the digital source meter 5, and a 5V bias voltage is applied to the semiconductor iodine through the digital source meter 5. Use a near-infrared laser 8 with a wavelength of 1064nm to irradiate the semiconductor iodine through the diamond, and the optical power density of the laser to the semiconductor iodine is about 0.8mW / cm 2 , Precise time control of the presence / absence of light through an electronic shutter, the time of presence / absence of light is set to 30 seconds, and one cycle is 60 seconds. The semiconductor iodine is determined by recording and observing the current-time...
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