Temperature measuring device capable of automatically switching temperature control and combustor
A technology of automatic switching and temperature measuring device, which is applied to burners, measuring devices, gas fuel burners, etc., to achieve the effect of simple structure, solving the problem of automatic flameout due to malfunction, and improving user experience
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Embodiment 1
[0029] refer to Figure 1-2 , this embodiment provides a temperature measuring device capable of automatic switching and temperature control, which is applied to a burner. The temperature measuring device includes a probe bracket 1 , a temperature probe 2 and an induction component 3 . The probe bracket 1 has a mounting hole 101 . The temperature probe 2 is passed through the installation hole 101 , and the temperature probe 2 can be switched between a temperature monitoring state and a temperature monitoring failure state. The sensing component 3 is arranged below or above the probe holder 1 . In this embodiment, the sensing component 3 is set under the probe bracket 1 as an example. When the temperature probe 2 moves downward and contacts the sensing component 3, the temperature probe 2 is switched to the temperature monitoring failure state, or the temperature probe 2 moves downward. And when the sensing component 3 is not in contact, the temperature probe 2 is switched to...
Embodiment 2
[0044] refer to Figure 4-5 The difference between this embodiment and Embodiment 1 is that the structure and installation position of the induction component 3 are different. Specifically, the induction assembly 3 includes an inductor 31 and a support base 34, the support base 34 is arranged on the outside of the support rod 22 and is located between the bottom of the outer cover 23 and the top of the probe holder 1, and the inductor 31 is arranged on the support base 34 and is located on the outer cover 23. Below, there is a distance H between the inductor 31 and the bottom of the casing 23 . It can be seen that the sensor 31 is installed between the bottom of the jacket 23 and the top of the probe bracket 1 through the support seat 34, so that automatic switching and temperature control can be carried out according to the different downstrokes of the jacket 23 when it sits on a sharp pot or a frying pan. , to ensure that the jacket 23 does not touch the sensor 31 when the ...
Embodiment 3
[0048] refer to Figure 6-7 , The difference between this embodiment and Embodiment 2 lies in the structure of the induction component 3 . Specifically, the induction component 3 includes an inductor 31 and an elastic member 33 , the inductor 31 is disposed between the bottom of the casing 23 and the top of the probe holder 1 , and a distance H is left between the inductor 31 and the bottom of the casing 23 . The elastic member 33 is sheathed on the outer surface of the support rod 22 , and opposite ends of the elastic member 33 are respectively connected to the inductor 31 and the probe holder 1 . Therefore, by connecting the opposite ends of the elastic member 33 to the inductor 31 and the probe holder 1 respectively, the support seat 34 can be omitted, so that the overall structure of the induction component 3 is simpler and the cost is lower.
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