A dual-system power-on control circuit and control method thereof
A control circuit and electrical control technology, applied in the field of control, can solve the problems of large system useless power consumption, system startup disorder, loss of a set of systems, etc., and achieve the effect of reducing system loss, reducing power consumption, and avoiding system disorder
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
Embodiment 1
[0034] Example 1: System 1 is powered on alone, and System 2 does not work; according to the attached figure 2 Shown:
[0035] First stage: When APP1 is closed and APP2 is open, the Kp relay is closed, which is equivalent to the closure of switches K1 and K2. At the same time, the relay Ks is closed, which is equivalent to the closing of the switch K3. After K1 is closed, the high-power components of system 1 start to supply power. K3 is closed, the SBC, PCC of the second stage, and the control components of the third stage are all powered on, and the control unit is also powered on at the same time.
[0036] Second stage: The 5V generated by PCC conversion is respectively connected to the input terminal of the photoelectric isolator and Kp input 2. Since APP2 is not closed, the control of the photoelectric isolator is high, and the light-emitting diode of the photoelectric isolator is not conducting. The output of the isolator is low level, and the SBC detects that APP2 i...
Embodiment 2
[0039] Example 2: System 2 is powered on independently, and System 1 does not work; according to the attached figure 2 Shown:
[0040] First stage: When APP2 is closed and APP1 is disconnected, the relay Ks relay is closed and Kp is disconnected, which is equivalent to the disconnection of switches K1 and K2 and the closure of switch K3. After K1 is disconnected, the high-power components of system 1 will not be powered on. K3 is closed, the SBC, PCC of the second stage, and the control components of the third stage are all powered on, and the control unit is also powered on at the same time.
[0041] Second stage: The 5V generated by PCC conversion is respectively connected to the input terminal of the photoelectric isolator and the input 2 of Kp. Since APP2 is closed, the photoelectric isolator outputs a high level, and SBC detects that APP2 is closed. K2 is disconnected, the power-on detection of system 1 is low level, and the SBC detects that APP1 is not closed. The SB...
Embodiment 3
[0044] Embodiment 3: system 1 and system 2 work simultaneously; According to attached figure 2 Shown:
[0045] The first stage: when APP1 and APP2 are closed at the same time, the relays Ks and Kp are closed, which is equivalent to the closure of switches K1, K2, and K3. K1 is closed, and all electronic units of System 1 are powered on. K3 is closed, the SBC, PCC of the second stage, and the control components of the third stage are all powered on, and the control unit is also powered on at the same time.
[0046] Second stage: The 5V generated by PCC conversion is respectively connected to the input terminal of the photoelectric isolator and the input 2 of Kp. Since APP2 is closed, the photoelectric isolator outputs a high level, and SBC detects that APP2 is closed. K2 is closed, the power-on detection of system 1 is high level, and SBC detects that APP1 is closed. The SBC detects the power-on status of the APP, and judges the task requirements for system 1 and system 2 t...
PUM
Login to View More Abstract
Description
Claims
Application Information
Login to View More 

