In-situ flowing thin-layer spectrum electrochemical reaction tank for sum frequency spectrum
A chemical reaction and reaction cell technology, applied in the direction of material analysis through optical means, scientific instruments, and material analysis through electromagnetic means, can solve the problems of reducing light intensity and the difficulty of detecting electrochemical interfaces with frequency spectrum, and achieves guaranteed The effect of repeatability and stability
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Embodiment 1
[0023] Embodiment 1, electrochemical reaction cell
[0024] The structure of the electrochemical reaction cell of the present invention is as Figure 1-Figure 6 As shown in the figure, the marks in the figure are as follows: 1 window fixing frame, 2 calcium fluoride crystal plano-convex lens window, 3 reaction cell body, 4 gold electrode, 5 silver ion electrode, 6 platinum wire electrode, 7 liquid inlet pipe, 8 outlet pipes.
[0025] The electrochemical reaction cell of the present invention comprises reaction cell body 3, and the material of this reaction cell body 3 is polytetrafluoroethylene, and the top of reaction cell body 3 is provided with a window (not shown in the figure), and this window is provided with a Calcium fluoride crystal plano-convex lens window 2 with the convex surface upward, the calcium fluoride crystal plano-convex lens window 2 is tightly connected with the reaction pool body 3 through the window fixing frame 1; the calcium fluoride crystal plano-co...
Embodiment 2
[0027] Embodiment 2, utilize the electrochemical reaction cell of embodiment 1 to detect acetonitrile / gold electrode interface in situ
[0028] The laser used in this example was purchased from EKSPLA Company in Lithuania. The laser repetition frequency is 10Hz, and the picosecond laser system generates 1064nm laser with a pulse width of about 23 picoseconds through passive mode locking, and the energy is about 30mJ / pulse. The 1064nm fundamental frequency light undergoes frequency doubling and sum frequency processes to obtain lasers with frequencies of 532nm and 355nm, of which the 532nm laser is directly used for a beam of visible light in the experiment after polarization control and delay control, while the 355nm laser is passed through based on LBO (LiBO 4 ) crystal OPG (Optical Parameter Generation) / OPA (Optical Parameter Amplification) process and based on AgGaS 2 The crystal DFG (difference frequency) process generates tunable laser from 420nm to 2300nm. This part ...
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