阅读说明：本技术 用于隔膜阀致动器的开关
(Switch for diaphragm valve actuator
) 是由 里夏尔·科瓦奇
路易·马塔隆 于 2018-12-21 设计创作，主要内容包括：描述了用以确定阀(10)的位置的装置和方法的技术。所述装置可以包括附接到致动器(20)的外壳(252)。所述致动器可以与所述阀成物理连通。所述装置可以包括所述外壳内的微控制器(255)。所述微控制器可以与所述致动器通信以控制所述阀的位置。所述装置可以包括与所述微控制器通信的位置传感器模块(35)。所述装置可以包括附接到所述致动器的移动的至少一个部分的位置传感器目标(37)。所述位置传感器模块可以被配置成检测所述位置传感器目标的移动和位置,生成与所述位置传感器目标的所述位置有关的位置数据,并且将所述位置数据传输到所述微控制器。所述微控制器可以被配置成基于所述位置数据确定所述阀的位置。(Techniques are described for an apparatus and method to determine the position of a valve (10). The apparatus may include a housing (252) attached to the actuator (20). The actuator may be in physical communication with the valve. The apparatus may include a microcontroller (255) within the housing. The microcontroller may be in communication with the actuator to control the position of the valve. The apparatus may include a position sensor module (35) in communication with the microcontroller. The apparatus may include a position sensor target (37) attached to at least a portion of the movement of the actuator. The position sensor module may be configured to detect movement and position of the position sensor target, generate position data related to the position of the position sensor target, and transmit the position data to the microcontroller. The microcontroller may be configured to determine a position of the valve based on the position data.)
1. A switch device to determine a position of a valve, the device comprising:
a housing attached to an actuator, wherein the actuator is in physical communication with the valve;
a microcontroller within the housing, wherein the microcontroller is in communication with the actuator to control a position of the valve;
a position sensor module, wherein the position sensor module is in communication with the microcontroller;
a position sensor target attached to at least a portion of the movement of the actuator; and is
Wherein the position sensor module is configured to detect movement and position of the position sensor target, generate position data related to the position of the position sensor target, and transmit the position data to the microcontroller, and the microcontroller is configured to determine the position of the valve based on the position data.
2. The device of claim 1, wherein the position sensor module is a non-contact sensor including a hall effect sensor, an inductive sensor, a magnetic sensor, or a resistive sensor.
3. The device of claim 1, wherein the actuator is a piston actuator and the position sensor target is attached to a piston and located within a spring of the piston actuator.
4. The apparatus of claim 3, wherein the position sensor module is located within the piston actuator.
5. The apparatus of claim 1, wherein the actuator is a piston actuator, the position sensor target is attached to a piston and located outside a spring of the piston actuator, the position sensor target is adjacent to an inner surface of a cover of the piston actuator, and the position sensor module is attached to an outer surface of the cover of the piston actuator and detects the position sensor target through the actuator cover.
6. The apparatus of claim 1, wherein the actuator is a diaphragm valve actuator and the position sensor target is attached to a diaphragm plate and is located within a spring of the diaphragm valve actuator.
7. The apparatus of claim 1, wherein the actuator is a diaphragm valve actuator, the position sensor target is attached to a diaphragm plate and located outside a spring of the diaphragm valve actuator, the position sensor target is adjacent to an inner surface of a cover of the diaphragm valve actuator, and the position sensor module is attached to an outer surface of the cover of the diaphragm valve actuator and detects the position sensor target through the actuator cover.
8. The device of claim 1, wherein the actuator is a diaphragm valve actuator, the position sensor target is attached to a mount, the mount is attached to a valve shaft, the position sensor target is located within a spring of the diaphragm valve actuator, and the position sensor module is attached to a top surface of a lid of the diaphragm valve actuator and defines a channel configured to receive the position sensor target.
9. The apparatus of claim 1, wherein the actuator is a diaphragm valve actuator, the position sensor target is attached to a diaphragm plate and located outside a spring of the diaphragm valve actuator, the position sensor target is adjacent to an inner surface of a cover of the diaphragm valve actuator, and the position sensor module is attached to a vent of the cover of the diaphragm valve actuator.
10. The device of claim 1, wherein the actuator is a piston actuator, the position sensor target is attached to an indicator shaft within an indicator channel defined by the indicator shaft, and the position sensor module is within the housing and includes a protrusion configured such that the indicator channel fits around the protrusion when the indicator shaft moves in the first and second directions.
11. The device of claim 1, further comprising a calibration module in communication with the microcontroller, wherein the calibration module is configured to calibrate a position of the valve with position data.
12. The device of claim 1, further comprising an indicator module in communication with the microcontroller, wherein the indicator module is configured to visually indicate a position of the valve.
13. A system to determine a position of a valve, the system comprising:
an actuator, wherein the actuator is in physical communication with the valve and the actuator is configured to move in a first direction to close the valve and in a second direction to open the valve;
a switching device, wherein the switching device comprises:
a housing attached to the actuator;
a microcontroller within the housing, wherein the microcontroller is in communication with the actuator to control a position of the valve;
a position sensor module, wherein the position sensor module is in communication with the microcontroller; and
a position sensor target attached to at least a portion of the movement of the actuator;
wherein the position sensor module is configured to detect movement and position of the position sensor target, generate position data related to the position of the position sensor target, and transmit the position data to the microcontroller, and the microcontroller is configured to determine the position of the valve based on the position data.
14. The system of claim 13, wherein the position sensor module is a non-contact sensor including a hall effect sensor, an inductive sensor, a magnetic sensor, or a resistive sensor.
15. The system of claim 13, wherein the actuator is a piston actuator and the position sensor target is attached to a piston and located within a spring of the piston actuator.
16. The system of claim 13, wherein the actuator is a piston actuator, the position sensor target is attached to a piston and located outside a spring of the piston actuator, the position sensor target is adjacent to an inner surface of a cover of the piston actuator, and the position sensor module is attached to an outer surface of the cover of the piston actuator and detects the position sensor target through the actuator cover.
17. The system of claim 13, wherein the actuator is a diaphragm valve actuator and the position sensor target is attached to a diaphragm plate and is located within a spring of the diaphragm valve actuator.
18. The system of claim 13, wherein the actuator is a diaphragm valve actuator, the position sensor target is attached to a diaphragm plate and located outside a spring of the diaphragm valve actuator, the position sensor target is adjacent to an inner surface of a cover of the diaphragm valve actuator, and the position sensor module is attached to an outer surface of the cover of the diaphragm valve actuator and detects the position sensor target through the actuator cover.
19. The system of claim 13, wherein the switching device further comprises:
a calibration module in communication with the microcontroller, wherein the calibration module is configured to calibrate a position of the valve with position data; and
an indicator module in communication with the microcontroller, wherein the indicator module is configured to visually indicate a position of the valve.
20. A method to determine a position of a valve, the method comprising:
detecting, by a position sensor module, a position of a position sensor target, wherein the position sensor target and the position sensor module are both located within the valve;
generating, by the position sensor module, position data;
transmitting, by the position sensor module, the position data to a microcontroller of a switching device;
receiving, by the microcontroller, the position data; and
determining, by the microcontroller, a position of the valve based on the position data.
Technical Field
Background
Unless otherwise indicated herein, the materials described in this section are not prior art to the claims in this application and are not admitted to be prior art by inclusion in this section.
Diaphragm valves can be used in the biotechnology and pharmaceutical industries. The diaphragm valve can control the flow of fluid through the body of the diaphragm valve. The actuator may be a mechanical device having a source of electrical power that can control movement of the diaphragm valve. The actuator may control a diaphragm of the diaphragm valve to open and close a fluid flow path through a body of the diaphragm valve, or may allow an intermediate position of the diaphragm. The actuators may be electrically, pneumatically or hydraulically powered.
Disclosure of Invention
One embodiment of the present invention is a switch device to determine the position of a valve. The device may include a housing attached to the actuator. The actuator may be in physical communication with the valve. The apparatus may include a microcontroller within the housing. The microcontroller may be in communication with the actuator to control the position of the valve. The apparatus may include a position sensor module. The position sensor module may be in communication with the microcontroller. The apparatus may include a position sensor target attached to at least a portion of the movement of the actuator. The position sensor module may be configured to detect movement and position of the position sensor target, generate position data related to the position of the position sensor target, and transmit the position data to the microcontroller. The microcontroller may be configured to determine a position of the valve based on the position data.
Another embodiment of the invention includes a system to determine a position of a valve. The system may include an actuator. The actuator may be in physical communication with the valve. The actuator may be configured to move in a first direction to close the valve and in a second direction to open the valve. The system may include a switching device. The switching device may include a housing attached to the actuator. The switching device may comprise a microcontroller within the housing. The microcontroller may be in communication with the actuator to control the position of the valve. The switching device may comprise a position sensor module. The position sensor module may be in communication with the microcontroller. The switching device may include a position sensor target attached to at least a portion of the movement of the actuator. The position sensor module may be configured to detect movement and position of the position sensor target, generate position data related to the position of the position sensor target, and transmit the position data to the microcontroller. The microcontroller may be configured to determine a position of the valve based on the position data.
Another embodiment of the invention is a method of controlling a position of a valve. The method may include detecting, by a position sensor module, a position of a position sensor target. The position sensor target and the position sensor module may both be located within the valve. The method may include generating, by a position sensor module, position data. The method may include transmitting, by the position sensor module, the position data to a microcontroller of the switching device. The method may include receiving, by a microcontroller, position data. The method may include determining, by the microcontroller, a position of the valve based on the position data.
The foregoing summary is illustrative only and is not intended to be in any way limiting. In addition to the illustrative aspects, embodiments, and features described above, further aspects, embodiments, and features will become apparent by reference to the drawings and the following detailed description.
Drawings
The foregoing and other features of the present disclosure will become more fully apparent from the following description and appended claims, taken in conjunction with the accompanying drawings. Understanding that these drawings depict only several embodiments in accordance with the disclosure and are, therefore, not to be considered limiting of its scope, the disclosure will be described with additional specificity and detail through use of the accompanying drawings, in which:
FIG. 1 is a side view of a diaphragm valve, diaphragm valve actuator and switching device;
figure 2 is a cut-away side view of a diaphragm valve, diaphragm valve actuator and switch arrangement;
FIG. 3 is a cut-away side view of a diaphragm valve, piston actuator and switch arrangement;
figure 4 is a cut-away side view of a diaphragm valve, diaphragm valve actuator and switch arrangement;
FIG. 5 is a cut-away side view of the diaphragm valve, piston actuator and switch arrangement;
figure 6 is a cut-away side view of a diaphragm valve, diaphragm valve actuator and switch arrangement;
FIG. 7 is a cut-away side view of a diaphragm valve, piston actuator and switch arrangement;
FIG. 8 is a cut-away side view of the diaphragm valve, piston actuator and switch arrangement; and
figure 9 illustrates a flow diagram of an example process of controlling the position of a diaphragm valve, all arranged in accordance with at least some embodiments described herein.
Detailed Description
In the following detailed description, reference is made to the accompanying drawings, which form a part hereof. In the drawings, like symbols typically identify like components, unless context dictates otherwise. The illustrative embodiments described in the detailed description, drawings, and claims are not meant to be limiting. Other embodiments may be utilized, and other changes may be made, without departing from the spirit or scope of the subject matter presented here. It will be readily understood that the aspects of the present disclosure, as generally described herein, and illustrated in the figures, can be arranged, substituted, combined, separated, and designed in a wide variety of different configurations, all of which are explicitly contemplated herein.
Figure 1 is a side view of a diaphragm valve, diaphragm valve actuator, and switching device arranged in accordance with at least some embodiments described herein. The system 100 may comprise a diaphragm valve 10, a diaphragm valve actuator 20, and a switching device 30. The diaphragm valve 10 can control the flow of fluid through the body 40, and the diaphragm valve actuator 20 can control the movement of the diaphragm valve 10. The diaphragm valve actuator 20 can be in physical communication with the diaphragm valve 10. The system 100 may further include a position sensor module 35 and a position sensor target 37. The position sensor module 35 may be stationary with respect to the diaphragm valve actuator 20 and may be fixed within the diaphragm valve actuator 20, within the switching device 30, or external to the diaphragm valve actuator 20. The position sensor target 37 may be attached to a component of the diaphragm valve actuator 20 that is configured to move in the first and second directions when the diaphragm valve actuator 20 opens or closes the diaphragm valve 10. The position sensor target 37 can move within the diaphragm valve actuator 20 in first and second directions. The position sensor target 37 may be attached to an actuator plate, an actuator piston, a valve shaft or stem, or an indicator of the diaphragm valve actuator 20. The position sensor module 35 may be configured to detect the movement and position of the position sensor target 37. Position sensor module 35 may be a non-contact sensor, such as a hall effect sensor, an inductive sensor, a magnetic sensor, or a resistive sensor. The position sensor target 37 may be configured to be detected by the position sensor module 35. The switching device 30 may be in communication with a position sensor module 35. The switching device 30 can communicate with the actuator 20 to control the position of the diaphragm valve 10. The position sensor module 35 may generate position data 50. The position data 50 may be data relating to the position of the position sensor target 37 detected by the position sensor module 35. The position sensor module 35 may transmit the position data 50 to the switching device 30. As explained in more detail below, the switching device 30 can determine the position of the diaphragm valve 10 based on the position data 50 and then control the actuator 20 based on the determined position.
Figure 2 is a cut-away side view of a diaphragm valve, diaphragm valve actuator, and switching device arranged in accordance with at least some embodiments described herein. Those components in fig. 2 that are identically labeled as the components of fig. 1 will not be described again for the sake of brevity.
In an embodiment, the diaphragm valve actuator 20 may comprise an actuator cover 205, a nut 210, a spring 215, an actuator diaphragm 220, a diaphragm plate 225a, a diaphragm plate 225b, a port 230a, and a port 230 b. The actuator diaphragm 220 may be between the diaphragm plate 225a and the diaphragm plate 225 b. One end of the valve shaft 235 may pass through the central apertures of the diaphragm plate 225a, the actuator diaphragm 220, and the diaphragm plate 225b such that the diaphragm plate 225b is seated in the collar 240 of the valve shaft 235. The nut 210 may secure the diaphragm plate 225a, the actuator diaphragm 220, and the diaphragm plate 225b to the valve shaft 235 by a male thread threaded (threading) to one end of the valve shaft 235. The spring 215 may be in contact with the diaphragm plate 225 a. Actuator diaphragm 220 may divide actuator 20 into a sealed upper chamber 245a and a sealed lower chamber 245 b. Port 230a may allow air to enter upper chamber 245a and port 230b may allow air to enter lower chamber 245 b. Air pressure in the upper and lower chambers 245a and 245b may move the position of the actuator diaphragm 220 and the diaphragm plates 225a and 225 b. The movement of the actuator diaphragm 220 and the diaphragm plates 225a and 225b, in turn, may move the valve shaft 235 to open or close the diaphragm valve 10.
The position sensor target 37 may be attached to the diaphragm plate 225a along with the target base 217 and located within the springs 215. The position sensor target 37 may move with the actuator diaphragm plate 225a and the actuator diaphragm 220 as the actuator 20 controls the diaphragm valve 10 to open and close. When the actuator 20 moves the actuator diaphragm 220 to open the diaphragm valve 10, the position sensor target 37 may move in a first direction. When the actuator 20 moves the actuator diaphragm 220 to close the diaphragm valve 10, the position sensor target 37 may move in a second direction. The sensor module 35 may be proximate to the position sensor target 37 and may be located within the actuator 20. The position sensor module 35 may be configured to detect the position of the position sensor target 37. The position sensor module 35 may be configured to detect movement of the position sensor target 37. Position sensor module 35 may be a non-contact sensor, such as a hall effect sensor, an inductive sensor, a magnetic sensor, or a resistive sensor, and position sensor target 37 may be configured to affect a response in position sensor module 35. The position sensor module 35 may generate position data 50 relating to the position of the position sensor target 37 detected by the position sensor module 35. The position sensor module 35 may transmit the position data 50 to the switching device 30.
The switch device 30 may be fixed to an outer surface of the actuator cover 205. The switching device 30 may include a housing 252, a cover 253, and a circuit board 250. The housing 252 and the cover 253 may surround the circuit board 250. The cover 253 may be removable to provide access to the circuit board 250. The cover 253 may be transparent and enable the circuit board 250 to be seen. Housing 252 may be secured to actuator cover 205 by one or more fasteners 265. The circuit board 250 may communicate with the position sensor module 35. The circuit board 250 may be in wired communication with the position sensor module 35. Circuit board 250 may communicate wirelessly with position sensor module 35, for example, via bluetooth, WIFI, or any other wireless communication. The circuit board 250 may contain a microcontroller 255 in communication with a termination strip 257, an indicator module 260, a calibration module 262, and a connector 264. Connector 264 may be a connector to transfer data between an external device and microcontroller 255. The connector 264 may be a flexible wire connector, such as an M12 connector.
The indicator module 260 may contain a light emitting diode that may be visible through the transparent cover 253 or may be externally attached through the housing 252 or the cover 253. The microcontroller 255 can control the indicator module 260 to provide a visual indication of the position (e.g., open or closed) of the diaphragm valve 10. For example, a green light emitting diode may indicate that the diaphragm valve 10 is open, and a red light emitting diode may indicate that the diaphragm valve 10 is closed.
The switching device 30 may be calibrated with a calibration module 262. The calibration module 262 may allow the microcontroller 255 of the switching device 30 to correlate the position data 50 with the position of the diaphragm valve 10. For example, during a calibration operation, the diaphragm valve 10 may be set to a fully open position. When the diaphragm valve 10 is in the fully open position, the position sensor module 35 can generate position data 50 relating to the position of the position sensor target 37. The calibration module 262 may allow the microcontroller 255 of the switching device 30 to correlate the position data 50 with the position of the position sensor target 37 when the diaphragm valve 10 is in the fully open position. The diaphragm valve 10 can then be set to the fully closed position. When the diaphragm valve 10 is in the fully closed position, the position sensor module 35 can generate position data 50 relating to the position of the position sensor target 37. The calibration module 262 may allow the microcontroller 255 of the switching device 30 to correlate the position data 50 relating to the position of the position sensor target 37 when the diaphragm valve 10 is in the fully closed position with the position of the diaphragm valve 10 in the fully closed position. The calibration module may contain a calibration button that can be pressed when the diaphragm valve 10 is in the open or closed position to calibrate the position data 50 according to the corresponding position of the diaphragm valve 10. Calibration of microcontroller 255 and switching device 30 may also be performed remotely. The handheld device 270 may wirelessly communicate with the calibration module 262 and the microcontroller 255 of the switching device 30 and may provide an indication that the position of the diaphragm valve 10 is in the open or closed position to calibrate the position data 50 according to the corresponding position of the diaphragm valve 10. The calibration module 262 may allow the microcontroller 255 to calibrate the fully open and closed positions of the actuator 20 when the actuator 20 is fully open and closed.
The switching device 30 may receive position data 50 from the position sensor module 35. The microcontroller 255 of the switching device 30 can receive the position data 50 and determine the position of the diaphragm valve 10 based on the position data 50. The microcontroller 255 of the switching device 30 can control the actuator 20 to position the diaphragm valve 10 based on the determined position of the diaphragm valve 10.
Figure 3 is a cut-away side view of a diaphragm valve, piston actuator, and switching device arranged in accordance with at least some embodiments described herein. Those components in fig. 3 that are identically labeled as the components of fig. 1-2 will not be described again for the sake of brevity.
The system 300 may comprise a diaphragm valve 10, a piston actuator 320, and a switching device 30. In an embodiment, the piston actuator 320 may include an actuator cap 305, a spring 315a, a spring 315b, a piston 310, and a port 325.
The position sensor target 37 may be attached to a target base 317 and located within springs 315a and 315 b. The position sensor target 37 may move with the piston 310 as the piston actuator 320 controls the diaphragm valve 10 to open and close. The position sensor target 37 may move in a first direction when the piston actuator 320 moves the actuator piston 310 to open the diaphragm valve 10. The position sensor target 37 may move in a second direction when the piston actuator 320 moves the piston 310 to close the diaphragm valve 10. The position sensor module 35 may be attached to a top surface of the actuator cover 305 or an accessory mount 340 of the piston actuator 320. At least a portion of the position sensor module 35 may be located within the piston actuator 320, and the position sensor module 35 may extend into the piston actuator 320. The position sensor module 35 may be a stationary reference relative to the piston 310. The position sensor module 35 may be configured to detect the position of the position sensor target 37. The position sensor module 35 may be configured to detect movement of the position sensor target 37. Position sensor module 35 may be a non-contact sensor, such as a hall effect sensor, an inductive sensor, a magnetic sensor, or a resistive sensor, and position sensor target 37 may be configured to affect a response in position sensor module 35. The position sensor module 35 may generate position data 50 relating to the position of the position sensor target 37 detected by the position sensor module 35. The position sensor module 35 may transmit the position data 50 to the switching device 30.
The switch device 30 may be secured to an outer surface of the actuator cover 305 with one or more fasteners 265. The switching device 30 may include a housing 252, a cover 253, and a circuit board 250. The housing 252 and the cover 253 may surround the circuit board 250. The cover 253 may be removable to provide access to the circuit board 250. The cover 253 may be transparent and enable the circuit board 250 to be seen. The housing 252 may be secured to the actuator cover 305 by one or more fasteners 265. The circuit board 250 may communicate with the position sensor module 35. The circuit board 250 may be in wired communication with the position sensor module 35. Circuit board 250 may communicate wirelessly with position sensor module 35, for example, via bluetooth, WIFI, or any other wireless communication. The circuit board 250 may contain a microcontroller 255 in communication with a termination strip 257, an indicator module 260, a calibration module 262, and a connector 264. Connector 264 may be a connector to transfer data between an external device and microcontroller 255. The connector 264 may be a flexible wire connector, such as an M12 connector.
The indicator module 260 may contain a light emitting diode that may be visible through the transparent cover 253 or may be externally attached through the housing 252 or the cover 253. The microcontroller 255 can control the indicator module 260 to provide a visual indication of the position (e.g., open or closed) of the diaphragm valve 10. For example, a green light emitting diode may indicate that the diaphragm valve 10 is open, and a red light emitting diode may indicate that the diaphragm valve 10 is closed.
The switching device 30 may be calibrated with a calibration module 262. The calibration module 262 may allow the microcontroller 255 of the switching device 30 to correlate the position data 50 with the position of the diaphragm valve 10. For example, during a calibration operation, the diaphragm valve 10 may be set to a fully open position. When the diaphragm valve 10 is in the fully open position, the position sensor module 35 can generate position data 50 relating to the position of the position sensor target 37. The calibration module 262 may allow the microcontroller 255 of the switching device 30 to correlate the position data 50 with the position of the position sensor target 37 when the diaphragm valve 10 is in the fully open position. The diaphragm valve 10 can then be set to the fully closed position. When the diaphragm valve 10 is in the fully closed position, the position sensor module 35 can generate position data 50 relating to the position of the position sensor target 37. The calibration module 262 may allow the microcontroller 255 of the switching device 30 to correlate the position data 50 relating to the position of the position sensor target 37 when the diaphragm valve 10 is in the fully closed position with the position of the diaphragm valve 10 in the fully closed position. The calibration module may contain a calibration button that can be pressed when the diaphragm valve 10 is in the open or closed position to calibrate the position data 50 according to the corresponding position of the diaphragm valve 10. Calibration of microcontroller 255 and switching device 30 may also be performed remotely. The handheld device 270 may wirelessly communicate with the calibration module 262 and the microcontroller 255 of the switching device 30 and may provide an indication that the position of the diaphragm valve 10 is in the open or closed position to calibrate the position data 50 according to the corresponding position of the diaphragm valve 10. The calibration module 262 may allow the microcontroller 255 to calibrate the fully open and closed positions of the actuator 20 when the actuator 20 is fully open and closed.
Figure 4 is a cut-away side view of a diaphragm valve, diaphragm valve actuator, and switching device arranged in accordance with at least some embodiments described herein. Those components in fig. 4 that are identically labeled as the components of fig. 1-3 will not be described again for the sake of brevity.
The system 400 may comprise a diaphragm valve 10, an actuator 20, and a switching device 30. In another embodiment, position sensor target 37 may be attached to target mount 417 and located within springs 415a and 415 b. The position sensor target 37 may move with the valve shaft 440 when the actuator 20 controls the diaphragm valve 10 to open and close. When the actuator 20 moves the diaphragm plate 425a, the diaphragm 430, and the diaphragm plate 425b to open the diaphragm valve 10, the position sensor target 37 may move in a first direction. The position sensor target 37 may move in a second direction when the actuator 20 moves the diaphragm plate 425a, the diaphragm 430, and the diaphragm plate 425b to close the diaphragm valve 10. The position sensor module 35 may be attached to the top surface of the actuator 20 of the actuator cover 405. At least a portion of position sensor module 35 may be located within actuator 20, and position sensor module 35 may extend into diaphragm actuator 20. The position sensor module 35 may be a stationary reference relative to the valve shaft 440. The position sensor module 35 may include a hollow section configured to receive the position sensor target 37. The position sensor module 35 may be configured to detect the position of the position sensor target 37. The position sensor module 35 may be configured to detect movement of the position sensor target 37. The position sensor module 35 may generate position data 50 relating to the position of the position sensor target 37 detected by the position sensor module 35. The position sensor module 35 may transmit the position data 50 to the switching device 30.
Figure 5 is a cut-away side view of a diaphragm valve, piston actuator, and switching device arranged in accordance with at least some embodiments described herein. Those components in fig. 5 that are identically labeled as the components of fig. 1-4 will not be described again for the sake of brevity.
The system 500 may comprise a diaphragm valve 10, a piston actuator 520, and a switching device 30. In another embodiment, the position sensor target 37 may be attached to the piston 510. The position sensor target 37 can be attached to the piston 510 such that the position sensor target is adjacent to the inner surface of the actuator cover 505. The position sensor target 37 may move with the piston 510 as the piston actuator 520 controls the diaphragm valve 10 to open and close. When the piston actuator 520 moves the piston 510 to open the diaphragm valve 10, the position sensor target 37 may move in a first direction. The position sensor target 37 may move in a second direction when the piston actuator 520 moves the piston 510 to close the diaphragm valve 10. The position sensor module 35 may be attached to an outer surface of the actuator cover 505 and may be a stationary reference relative to the piston 510. The position sensor module 35 may be configured to detect the position of the position sensor target 37 through the actuator cover 505. The position sensor module 35 may be configured to detect movement of the position sensor target 37 through the actuator cover 505. The position sensor module 35 may generate position data 50 relating to the position of the position sensor target 37 detected by the position sensor module 35. The position sensor module 35 may transmit the position data 50 to the switching device 30.
Figure 6 is a cut-away side view of a diaphragm valve, diaphragm valve actuator, and switching device arranged in accordance with at least some embodiments described herein. Those components in fig. 6 that are identically labeled as the components of fig. 1-5 will not be described again for the sake of brevity.
The system 600 may comprise a diaphragm valve 10, an actuator 20 and a switching device 30. In another embodiment, the position sensor target 37 may be attached to the outer edge of the diaphragm plate 225a and may be located outside of the spring 215. The position sensor target 37 may move with the actuator diaphragm plate 225a and the actuator diaphragm 220 as the actuator 20 controls the diaphragm valve 10 to open and close. When the actuator 20 moves the actuator diaphragm 220 to open the diaphragm valve 10, the position sensor target 37 may move in a first direction. When the actuator 20 moves the actuator diaphragm 220 to close the diaphragm valve 10, the position sensor target 37 may move in a second direction. The position sensor module 35 may be attached to or inserted within the vent 230a and may be a stationary reference relative to the actuator diaphragm plate 225a and the actuator diaphragm 220 when the actuator 20 controls the diaphragm valve 10 to open and close. The position sensor module 35 may be configured to detect the position of the position sensor target 37. The position sensor module 35 may be configured to detect movement of the position sensor target 37. The position sensor module 35 may generate position data 50 relating to the position of the position sensor target 37 detected by the position sensor module 35. The position sensor module 35 may transmit the position data 50 to the switching device 30.
Figure 7 is a cut-away side view of a diaphragm valve, piston actuator, and switching device arranged in accordance with at least some embodiments described herein. Those components in fig. 7 that are identically labeled as the components of fig. 1-6 will not be described again for the sake of brevity.
The system 700 may include a diaphragm valve 10, a piston actuator 720, and a switching device 730. In another embodiment, the position sensor target 37 may be attached to an indicator 712 that is attached to the indicator shaft 710. The indicator shaft 710 may be attached to the plunger 715 and may move with the plunger 715. The position sensor target 37 may move with the indicator shaft 710 and the piston 715 as the piston actuator 720 controls the diaphragm valve 10 to open and close. When the piston actuator 720 moves the piston 715 to open the diaphragm valve 10, the position sensor target 37 may move in a first direction. When the piston actuator 720 moves the piston 715 to close the diaphragm valve 10, the position sensor target 37 may move in a second direction. The position sensor module 35 may be within the switching device 730 and may be attached to the circuit board 250 or a surface of the switching device 250. The position sensor module 35 may be a stationary reference relative to the indicator shaft 710 and the piston 715. The position sensor module 35 may be configured to detect the position of the position sensor target 37. The position sensor module 35 may be configured to detect movement of the position sensor target 37. The position sensor module 35 may generate position data 50 relating to the position of the position sensor target 37 detected by the position sensor module 35. The position sensor module 35 may transmit the position data 50 to a circuit board 250 of the switching device 30.
Figure 8 is a cut-away side view of a diaphragm valve, piston actuator, and switching device arranged in accordance with at least some embodiments described herein. Those components in fig. 8 that are identically labeled as the components of fig. 1-7 will not be described again for the sake of brevity.
The system 800 may include a diaphragm valve 10, a piston actuator 820, and a switching device 830. In another embodiment, the position sensor target 37 may be attached to the indicator shaft 810 within an indicator channel 812 defined by the indicator shaft 810. The indicator shaft 810 may be attached to the piston 815 and may move with the piston 815. The position sensor target 37 may move with the indicator shaft 810 and piston 815 when the piston actuator 820 controls the diaphragm valve 10 to open and close. When the piston actuator 820 moves the piston 815 to open the diaphragm valve 10, the position sensor target 37 may move in a first direction. The position sensor target 37 may move in a second direction when the piston actuator 820 moves the piston 815 to close the diaphragm valve 10. The position sensor module 35 may be within the switching device 830 and may attach to the circuit board 250 or a surface of the switching device 830. The position sensor module 35 may include a protrusion 35a that may be configured such that the indicator pathway 812 may fit around the protrusion 35 a. The position sensor module 35 and the protrusion 35a may be stationary references with respect to the indicator shaft 810, the indicator channel 812, and the piston 815. The indicator channel 812 and indicator shaft 810 can move up and down around the protrusion 35a as the actuator 820 moves the piston 815 to open and close the diaphragm valve 10. The position sensor module 35 may be configured to detect the position of the position sensor target 37. The position sensor module 35 may be configured to detect movement of the position sensor target 37. The position sensor module 35 may generate position data 50 relating to the position of the position sensor target 37 detected by the position sensor module 35. The position sensor module 35 may transmit the position data 50 to the circuit board 250 of the switching device 830.
The device according to the present disclosure may allow a smaller switching device to minimize the volume of the piping system. The device according to the present disclosure may provide a switching device with a feedback unit integrated with the actuator. The apparatus according to the present disclosure may provide a switching apparatus that may be more easily calibrated than conventional switching apparatuses. The device according to the present disclosure may provide a switching means that visually indicates the position of the diaphragm valve. The apparatus according to the present disclosure may provide a switching apparatus that is significantly smaller than conventional switching apparatuses.
Figure 9 shows a flow diagram of an example process to control the position of a diaphragm valve arranged in accordance with at least some embodiments presented herein. An example process may include one or more operations, actions, or functions as illustrated by one or more of blocks S2, S4, S6, S8, and/or S10. Although illustrated as discrete blocks, the various blocks may be divided into additional blocks depending on the desired implementation; combined into fewer blocks or excluded from the described blocks.
The process may begin at block S2, "detecting the position of a position sensor target by a position sensor module, wherein both the position sensor target and the position sensor module are located within the valve. At block S2, the position sensor module may detect the position of the position sensor target. The position sensor module may be a non-contact sensor, such as a hall effect sensor, an inductive sensor, a magnetic sensor, or a resistive sensor. The position sensor target may be configured to be detected by the position sensor module. The position sensor module and the position sensor target may both be located within the valve. The valve may comprise a diaphragm valve, an actuator and a switching device.
Processing may continue from block S2 to block S4, "position data generated by the position sensor module". At block S4, the position sensor module may generate position data. The location data may be data related to the location of a location sensor target detected by the location sensor module.
Processing may continue from block S4 to block S6, "transmitting position data by the position sensor module to the microcontroller of the switching device". At block S6, the position sensor module may transmit the position data to a microcontroller of the switching device.
Processing may continue from block S6 to block S8, "position data received by microcontroller". At block S8, the microcontroller may receive the position data.
Processing may continue from block S8 to block S10, "determining, by the microcontroller, a position of the valve based on the position data. At block S10, the microcontroller may determine the position of the valve based on the position data. The microcontroller may be calibrated. The microcontroller may be calibrated with position data associated with the valve in the fully open position and may be calibrated with position data associated with the valve in the fully closed position.
While various aspects and embodiments have been disclosed herein, other aspects and embodiments will be apparent to those skilled in the art. The various aspects and embodiments disclosed herein are for purposes of illustration and are not intended to be limiting, with the true scope and spirit being indicated by the following claims.
