Remote control and wireless receiving device

Abstract

The utility model discloses a remote control and wireless receiving device, which comprises a shell formed by combining an upper half shell piece and a lower half shell piece, and the upper half shell piece and the lower half shell piece are detachably connected with each other; a wireless communication module in the shell is wirelessly connected with electric equipment, and a port of a connecting port module is arranged on the shell and is in wired connection with an external device; wherein the electric equipment is oil pressure equipment, and the external device is a computer device; a processing module is arranged in the shell, and the processing module is electrically connected with the wireless communication module, the connecting port module and a user interface; the shell formed by combining the upper half shell piece and the lower half shell piece is beneficial to being quickly disassembled to expose hardware in the shell for replacement.

Description

Technical Field

[0001] A combination of a remote control and a receiver, especially a remote control and wireless receiving device. Background Art

[0002] Hand tools are indispensable engineering equipment in industry, and their applications in industry are very extensive. Electric hand tools can be generally referred to as electric equipment. For example, an electric equipment can be a hydraulic equipment, such as a hydraulic hand tool for electric shearing or a hydraulic hand tool for electric cable crimping. In the modern industrial era, most traditional mechanical hydraulic equipment has been electrified and can be controlled by a wired control interface. However, when the internal hardware of the wired control interface needs to be repaired, the housing of the wired control interface is difficult to disassemble structurally, so that the internal hardware is difficult to replace. Content of the Utility Model

[0003] In view of the above problems, the present invention provides a remote control and wireless receiving device, which has a housing that can be easily disassembled, so that a user using the present invention can quickly replace the hardware inside the housing.

[0004] The remote control and wireless receiving device includes:

[0005] A housing, which is composed of an upper housing part and a lower housing part, and the upper housing part and the lower housing part are detachably connected to each other;

[0006] A wireless communication module, which is arranged inside the housing and is used for wirelessly connecting an electric equipment; wherein, the electric equipment is a hydraulic equipment;

[0007] A connection port module, which includes a port arranged on the housing, and the port is used for wired connection to an external device; wherein, the external device is a computer device;

[0008] A processing module, which is arranged inside the housing and is electrically connected to the wireless communication module and the connection port module;

[0009] A user interface, which is electrically connected to the processing module.

[0010] The housing composed of the detachable upper housing part and the lower housing part can be easily disassembled to expose the wireless communication module and the processing module arranged inside, so that a user of the present invention can replace the hardware inside the housing more efficiently than the prior art.

[0011] Moreover, the remote control and wireless receiving device of the present invention not only has the function of wirelessly communicating with the hydraulic pressure equipment at a distance far from the hydraulic pressure equipment, but also can serve as a relay station for the hydraulic pressure equipment to communicate with the computer device. The remote control and wireless receiving device of the present invention is connected to the computer device through the port in a wired manner and is connected to the hydraulic pressure equipment through the wireless communication module. The computer device connected to the remote control and wireless receiving device can read the operation data of the hydraulic pressure equipment through the wireless communication module of the remote control and wireless receiving device, and immediately grasp the operation status of the hydraulic pressure equipment by means of the received operation data. In this way, a user using the remote control and wireless receiving device and the computer device at a distance from the hydraulic pressure equipment can immediately grasp the operation status of the hydraulic pressure equipment at a distance, and can further know how to operate the remote control and wireless receiving device at a distance to send a more correct control command to the hydraulic pressure equipment. In this way, the user does not need to rush around to control the wired control interface of each hydraulic pressure equipment to control a hydraulic pressure equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0012] Figure 1 FIG. is a block diagram of a remote control and wireless receiving device of the present invention in an embodiment.

[0013] Figure 2 FIG. is a schematic external view of the remote control and wireless receiving device of the present invention.

[0014] Figure 3 FIG. is a partial exploded view of the external appearance of the remote control and wireless receiving device of the present invention.

[0015] Figure 4 FIG. is another partial exploded view of the external appearance of the remote control and wireless receiving device of the present invention.

[0016] Figure 5 FIG. is a schematic circuit diagram of a voltage stabilizing unit of the remote control and wireless receiving device of the present invention.

[0017] Figure 6 FIG. is a flowchart of the operation of the remote control and wireless receiving device of the present invention communicating with an electric device.

[0018] Figure 7 FIG. is a flowchart of the operation of the remote control and wireless receiving device of the present invention transmitting operation data to an external device. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0019] Please refer to Figure 1 and Figure 2As shown, the present invention provides a remote control and wireless receiving device 100. The remote control and wireless receiving device 100 has a housing, and a variety of modules are provided inside the housing. The remote control and wireless receiving device 100 of the present invention is used for wirelessly controlling the operation of at least one electric device 200, and relaying and outputting relevant information on the operation state of the at least one electric device 200 to an external device 300 that is wired to connect to the remote control and wireless receiving device 100. In use, a user of the present invention can carry the remote control and wireless receiving device 100 of the present invention and the external device 300 that operates in cooperation with the present invention to remotely control the operation of multiple electric devices 200 and monitor the operation status of multiple electric devices 200 at a distance. In this way, the user can efficiently understand the operation status of each electric device 200, so as to understand how to more correctly control the remote control and wireless receiving device 100 to more correctly control the operation of each electric device 200.

[0020] In an embodiment of the present invention, the housing is composed of a plurality of housing components. For example, in Figure 2 the example shown, the housing is assembled by detachably connecting an upper housing member 110 and a lower housing member 120 to each other.

[0021] Please refer to Figure 3 As shown, the upper housing member 110 and the lower housing member 120 are locked and combined by a plurality of bolts 130. Therefore, the upper housing member 110 and the lower housing member 120 can be combined and disassembled by the plurality of bolts 130. When the plurality of bolts 130 lock the lower housing member 120 to the matching screw holes of the upper housing member 110, the upper housing member 110 and the lower housing member 120 are combined to form the housing of the remote control and wireless receiving device 100.

[0022] Inside the housing of the remote control and wireless receiving device 100, a processing module 10, a wireless communication module 20, a connection port module 30, and a user interface are provided. Preferably, the user interface is a button module 40, and the processing module 10 is electrically connected to the wireless communication module 20, the connection port module 30, and the button module 40 respectively. In other embodiments, the user interface of the remote control and wireless receiving device 100 can also be a touch screen, or a combination of a screen and a plurality of buttons.

[0023] The wireless communication module 20 is for wirelessly connecting to the electric device 200. For example, it wirelessly connects to the electric device 200 through a Radio Frequency (RF) unit 21 in the wireless communication module 20 in the way of RF transceiver packet, so as to communicate with the electric device 200. For example, the wireless communication module 20 with the RF unit 21 is an RF transceiver module of AS01-SPIPX, which can communicate using the ISM frequency band of about 2.4 GHz to 2.5 GHz. The RF unit 21 is also electrically connected to the processing module 10. In addition, the connection port module 30 includes a port disposed on the housing, such as a Universal Serial Bus (USB) port 33 disposed on the upper housing member 110. In other embodiments, the way for the wireless communication module 20 to wirelessly connect to the electric device 200 can also be other types of communication protocols, such as the communication protocol of WiFi (Wireless Fidelity), etc., and the port on the housing can also be other types of communication ports.

[0024] In this embodiment, the USB port 33 is electrically connected to the processing module 10, and the connection port module 30 is for wired connection to the external device 300 through the USB port 33, so that the processing module 10 communicates with the external device 300 through the connection port module 30. The external device 300 connected to the USB port 33 is a computer device, and the so-called computer device generally refers to various forms of desktop computers, laptop computers, tablet computers, and smart phones, etc.

[0025] When the button module 40 is pressed by the user to generate a control signal to the processing module 10, that is, when the processing module 10 receives the control signal generated by the button module 40, the processing module 10 sends a control instruction corresponding to the control signal to the electric device 200 through the wireless communication module 20. Moreover, when the processing module 10 is wirelessly connected to the electric device 200 through the wireless communication module 20 and is wired-connected to the external device 300 through the port of the connection port module 30, the processing module 10 receives an operation data output by the electric device 200 through the wireless communication module 20, and the processing module 10 transmits the operation data to the external device 300 through the port of the connection port module 30. In other words, as described above, the remote control and wireless receiving device 100 of the present invention not only has the function of generating the control instruction at a distance from the electric device 200 to control the operation of the electric device 200, but also can serve as a relay station for the operation data output by the electric device 200 to relay the operation data from the electric device 200 to the external device 300. The user who operates the remote control and wireless receiving device 100, the electric device 200, and the external device 300, for example, an engineer who operates and maintains a plurality of the electric devices 200, can easily and instantaneously view the operation data displayed by the external device 300 received from the remote control and wireless receiving device 100 from the electric device 200. The user can conveniently and instantaneously find out the electric device 200 with abnormal operation data and perform maintenance and more careful operation on it.

[0026] In an embodiment, an electric device 200 cooperating with the present case may be a hydraulic pressure device. In the technical field of hydraulic pressure devices, as long as the remote control and wireless receiving device 100 of the present invention is held in one hand and the external device 300 cooperating with the present case is held in the other hand, the efficiency of the user in operating and maintaining the electric device 200 will be twice the result with half the effort.

[0027] Specifically, the aforementioned USB port 33 belongs to a USB unit 32 of the connection port module 30, and the connection port module 30 further has a Universal Asynchronous Receiver / Transmitter (UART) unit 31. The UART unit 31 is electrically connected between the processing module 10 and the USB port 33 of the USB unit 32 to perform a communication protocol conversion between UART signals and USB signals. For example, for the operation data, the UART unit 31 first converts the operation data in UART form received from the processing module 10 into the operation data in USB form, and then outputs the operation data in USB form to the USB port 33 of the USB unit 32. Conversely, the UART unit 31 can also convert other data in USB form received from the USB port 33 into corresponding data in UART form, and then transmit the data in UART form to the processing module 10.

[0028] As Figure 1 shown, in this embodiment, the remote control and wireless receiving device 100 further has a signal lamp module 50, a sound module 60, a storage module 70, and a power supply module 80, and the signal lamp module 50, the sound module 60, the storage module 70, and the power supply module 80 are respectively electrically connected to the processing module 10 in the housing.

[0029] When the processing module 10 receives a status signal output by the electric device 200 through the wireless communication module 20, the processing module 10 generates a plurality of notification signals according to the status signal. Two of the notification signals generated by the processing module 10 are respectively a sound signal and a signal lamp signal. The processing module 10 respectively sends the sound signal to the sound module 60 and sends the signal lamp signal to the signal lamp module 50. The processing module 10 can also send another notification signal corresponding to the status signal to the external device 300, so that the external device 300 can grasp the operation status of the electric device 200.

[0030] The signal lamp module 50 includes at least one display lamp, and the at least one display lamp is electrically connected to the processing module 10. Preferably, the at least one display lamp is two light-emitting diodes (LEDs), and the two LEDs disposed within the housing can be arranged corresponding to a position of a transparent window on the upper half housing member 110 to emit light through the transparent window. Moreover, the processing module 10 determines whether a data packet of the operation data is received from the electric device 200. When the data packet of the operation data has not been received from the electric device 200, the processing module 10 controls the signal lamp module 50 to generate a first signal lamp according to the signal lamp signal, for example, to turn on one of the LEDs of the signal lamp module 50. When the data packet of the operation data is received from the electric device 200, the processing module 10 controls the signal lamp module 50 to generate a second signal lamp according to the signal lamp signal, for example, to turn on the other LED of the signal lamp module 50. In this embodiment, the colors of the first signal lamp and the second signal lamp are different. For example, the first signal lamp is a red lamp and the second signal lamp is a green lamp. In other embodiments, the blinking frequencies or brightnesses of the first signal lamp and the second signal lamp can also be different to clearly indicate to the user whether the data packet has been received.

[0031] The storage module 70 is disposed within the housing, and the storage module 70 stores a plurality of sound files, a plurality of thresholds, and a plurality of connection address information. The processing module 10 controls the RF unit 21 to connect to the corresponding electric device 200 according to the plurality of connection address information. The plurality of sound files stored in the storage module 70 include a first hydraulic pressure working sound file, a second hydraulic pressure working sound file, and a plurality of abnormal error sound files.

[0032] In this embodiment, when the electric device 200 operates to generate mechanical force in a hydraulic pressure manner, the electric device 200 wirelessly outputs a hydraulic pressure working signal. The hydraulic pressure working signal is the state signal. Therefore, when the processing module 10 receives the hydraulic pressure working signal output by the electric device 200 through the wireless communication module 20, the sound module 60 of the present invention generates the sound signal. Specifically, the electric device 200 can be applied in different modes. For example, the electric device 200 can be used for crimping pipelines, and the electric device 200 can also be used for shearing pipelines. According to different application modes, the electric device 200 can encode the current usage mode code in the packet of the hydraulic pressure working signal to define the hydraulic pressure working signal as a crimping working signal or a shearing working signal.

[0033] When the hydraulic working signal received by the processing module 10 through the wireless communication module 20 is the crimping working signal, the processing module 10 controls the sound module 60 to generate the sound signal according to the first hydraulic working sound file stored in the storage module 70. When the hydraulic working signal received by the processing module 10 through the wireless communication module 20 is the shearing working signal, the processing module 10 controls the sound module 60 to generate the sound signal according to the second hydraulic working sound file stored in the storage module 70. The user can know the current operation mode of the electric device 200 in the distance according to the different types of the sound signals generated by the sound module 60, and then immediately understand how to control the electric device 200 to operate correctly.

[0034] In addition, when the electric device 200 has an abnormal error, the electric device 200 can generate an error code according to the type of the abnormal error, and incorporate the error code into the data packet of the operation data. In other words, the operation data output by the electric device 200 can be abnormal error data, and the corresponding data packet incorporates the abnormal error code corresponding to the abnormal error data. When the processing module 10 receives the data packet, the processing module 10 interprets the abnormal error code from the data packet. The processing module 10 determines the sound module 60 it controls according to the abnormal error code, and generates the sound signal according to one of the multiple abnormal error sound files stored in the storage module 70. The user can know whether the electric device 200 is operating normally and the situation of the abnormal operation of the electric device 200 by listening to the sound signal. In one embodiment, the sound module 60 is a buzzer. In another embodiment, the sound module 60 is a speaker.

[0035] Please refer to Table 1 below:

[0036]

[0037] Table 1

[0038] When the external device 300 cooperating with this case receives the operation data or the notification signal, the external device 300 can present the data content shown in Table 1 through the corresponding application program. Table 1 is only for illustration, so only two data entries are excerpted. Each data entry correspondingly shows when the electric device 200 of the hydraulic device has how much internal hydraulic pressure, how much current is used, and whether any error code is generated.

[0039] Such as Figure 2 and Figure 3As shown, the button module 40 includes a pair of frequency buttons 41, a pressure increasing button 42, and a pressure decreasing button 43 disposed on the housing, and the pair of frequency buttons 41, the pressure increasing button 42, and the pressure decreasing button 43 are all electrically connected to the processing module 10.

[0040] When the pair of frequency buttons 41 are pressed by the user, the control signal generated by the button module 40 is a frequency pairing signal, and the processing module 10 sets the control instruction sent to the electric device 200 through the wireless communication module 20 to be a pairing connection instruction corresponding to the frequency pairing signal. For example, the pairing connection instruction causes the electric device 200 that has not been wirelessly connected in pairing with the same frequency as the remote control and wireless receiving device 100 to have a frequency pairing relationship with the remote control and wireless receiving device 100.

[0041] When the pressure increasing button 42 is pressed, the control signal generated by the button module 40 is a pressure increasing signal, and the processing module 10 sets the control instruction sent to the electric device 200 through the wireless communication module 20 to be a pressure increasing instruction corresponding to the pressure increasing signal. The pressure increasing instruction can control the electric device 200 to apply more oil pressure to generate a greater mechanical force.

[0042] When the pressure decreasing button 43 is pressed, the control signal generated by the button module 40 is a pressure decreasing signal, and the processing module 10 sets the control instruction sent to the electric device 200 through the wireless communication module 20 to be a pressure decreasing instruction corresponding to the pressure decreasing signal. The pressure decreasing instruction can control the electric device 200 to reduce the applied oil pressure to generate a smaller mechanical force.

[0043] Please refer to Figure 4 and Figure 5 As shown, the power supply module 80 of the present invention includes a battery unit 81, a safety circuit unit 82, and a voltage stabilizing unit 83. A first battery contact 811 and a second battery contact 812 included in the battery unit 81 are respectively disposed on the lower half housing member 120. At least one battery is carried between the first battery contact 811 and the second battery contact 812, so that the battery unit 81 can receive the battery power of the at least one battery. When the upper half housing member 110 and the lower half housing member 120 are disassembled, the at least one battery can be replaced. When the upper half housing member 110 and the lower half housing member 120 are combined into the housing, the battery unit 81 is disposed inside the housing.

[0044] The voltage regulation unit 83 is electrically connected between the battery unit 81 and the processing module 10 to regulate the battery power into a stable power, and in normal circumstances, the voltage regulation unit 83 supplies the stable power to the processing module 10. However, in abnormal circumstances, the voltage regulation unit 83 will stop supplying the stable power to the processing module 10. This normal or abnormal power supply situation is judged by the safety circuit unit 82.

[0045] The safety circuit unit 82 is electrically connected between the battery unit 81 and the voltage regulation unit 83, and the safety circuit unit 82 includes a first contact, a second contact, a resistor 820, and a reed switch 821. The resistor 820 and the reed switch 821 are respectively electrically connected between the first contact and the second contact. In other words, the resistor 820 and the reed switch 821 are connected in parallel between the first contact and the second contact.

[0046] Specifically, the upper half housing member 110 includes a groove 111 and a safety conductive member 112. A first bolt 113 and a second bolt 114 are provided on the bottom surface inside the groove 111. The first bolt 113 is the first contact of the safety circuit unit 82, and the second bolt 114 is the second contact of the safety circuit unit 82. And the first bolt 113 and the second bolt 114 bolt the reed switch 821 to the inner side surface of the upper half housing member 110 corresponding to the groove 111.

[0047] The safety conductive member 112 is a device that matches the groove 111 and is detachable or combined in the groove 111. When the safety conductive member 112 is combined in the groove 111, the safety conductive member 112 directly electrically connects the first bolt 113 and the second bolt 114 in the groove 111, that is, makes the first contact and the second contact conduct and bypasses the resistor 820 connected in parallel between the first contact and the second contact. The reason for this is that the reed switch 821 has a first reed piece 822 and a second reed piece 823. The first reed piece 822 is electrically connected to the first bolt 113, and the second reed piece 823 is electrically connected to the second bolt 114. And the safety conductive member 112 has a magnet 117.

[0048] When the magnet 117 contacts the first bolt 113 and the second bolt 114, the magnet 117 can conduct electricity to directly electrically connect the first bolt 113 and the second bolt 114 and bypass the resistor 820.

[0049] However, even if the magnet 117 has not yet contacted the first bolt 113 and the second bolt 114, when the safety conductive member 112 is only close to the reed switch 821, the first reed piece 822 and the second reed piece 823 of the reed switch 821 will be displaced due to the magnetic force of the magnet 117, causing the first reed piece 822 and the second reed piece 823 to contact each other and be electrically connected. Thus, even if the magnet 117 has not yet conducted electricity between the first bolt 113 and the second bolt 114, the first bolt 113 and the second bolt 114 in the groove 111 can bypass the resistor 820 due to the conduction of the first reed piece 822 and the second reed piece 823 of the reed switch 821.

[0050] In this embodiment, the voltage stabilizing unit 83 is a voltage stabilizing chip 830, such as a chip of model MP3414. The voltage stabilizing chip 830 includes a first pin IN, a second pin OUT, a third pin SW, a fourth pin FGND, a fifth pin NC, a sixth pin AGND, a seventh pin FB, and an eighth pin EN. The first pin IN is electrically connected to the battery unit 81 to receive the battery power. The second pin OUT is electrically connected to a power output contact VDD. The fourth pin FGND and the sixth pin AGND are respectively electrically connected to a ground point GND. The fifth pin NC is left unconnected. The third pin SW receives the divided battery power. The seventh pin FB receives the divided stable power. The eighth pin EN is electrically connected to the safety circuit unit 82. The power output contact VDD is further electrically connected to the processing module 10 to provide the stable power to the processing module 10.

[0051] The key point of the voltage stabilizing chip 830 is that the second pin OUT is electrically connected to the processing module 10 through the power output contact VDD, and whether the voltage stabilizing chip 830 outputs the stable power through the second pin OUT is determined by the potential level received by the eighth pin EN from the safety circuit unit 82. When the resistor 820 of the safety circuit unit 82 is not bypassed, the eighth pin EN of the voltage stabilizing chip 830 receives a voltage value of a low potential. When the resistor 820 of the safety circuit unit 82 is bypassed, the eighth pin EN of the voltage stabilizing chip 830 receives a voltage value of a high potential.

[0052] When the voltage regulator chip 830 determines that the voltage value received from the safety conductive component 82 is at the high potential, the voltage regulator chip 830 will regulate the battery power to the stable power and output the stable power from the second pin OUT to the processing module 10 for use. When the voltage regulator chip 830 determines that the voltage value received from the safety conductive component 82 is at the low potential, the voltage regulator chip 830 will stop outputting the stable power from the second pin OUT to the processing module 10. In this embodiment, the voltage regulator chip 830 of model MP3414 determines that the high potential is a potential greater than 0.8 volts (V), and the low potential is a potential less than or equal to 0.8 volts.

[0053] Preferably, the housing formed by combining the upper housing member 110 and the lower housing member 120 has a first closed loop 115. The safety conductive component 82 is connected with a second closed loop 116, and the second closed loop 116 is buckled with the first closed loop 115. Thus, when the safety conductive component 82 is disassembled and separated from the groove 111, the safety conductive component 82 can be suspended between the combined upper housing member 110 and the lower housing member 120 through the buckled first closed loop 115 and the second closed loop 116 to prevent loss.

[0054] In one embodiment, the processing module 10 and the storage module 70 are integrated in a chip of model PIC16F1933, and the UART unit 31 of the connection port module 30 is a chip of model PL2303, and the USB unit 32 of the connection port module 30 is a chip of model SBC-240S4. In another embodiment, the processing module 10, the wireless communication module 20, the connection port module 30 and the storage module 70 are integrated in a microcontroller unit (MCU), and the storage module 70 is an Electrically-Erasable Programmable Read-Only Memory (EEPROM). For example, the MCU can be a controller chip of model PIC16F1947. The MCU can be arranged on a circuit board in the housing together with the button module 40, the signal lamp module 50, the sound module 60 and the power supply module 80. The multiple thresholds stored in the storage module 70 include a disconnection threshold and a suspension threshold.

[0055] Furthermore, in one embodiment, the control instruction sent by the processing module 10 to the electric device 200 through the wireless communication module 20 is a setting instruction for setting the operation of the electric device 200. In addition, the storage module 70 stores a setting file, and the setting file includes at least one preset setting parameter. When the user interface, such as the button module 40, generates the control signal to the processing module 10, the processing module 10 sends the control instruction to the electric device 200 according to the setting file through the wireless communication module 20, so as to load the at least one preset setting parameter in the setting file into the electric device 200.

[0056] The user of the present invention can spend once the manipulation time to manipulate the button module 40 to preset the operation parameters of the electric device 200. Subsequently, whenever the processing module 10 is connected to the electric device 200 and sends the control instruction to the electric device 200, no matter whether the user of the present invention is another person or not, the device can automatically load the preset at least one preset setting parameter into the electric device 200, so as to improve the working efficiency of setting the operation of the electric device 200.

[0057] In addition, when the port of the connection port module 30 stops connecting to the external device 300, and the processing module 10 receives the operation data output by the electric device 200 through the wireless communication module 20, the processing module 10 first temporarily stores the operation data in the storage module 70 until the port of the connection port module 30 reconnects to the external device 300 again, and then the processing module 10 transmits the operation data temporarily stored in the storage module 70 to the external device 300 through the port. In this way, even if the port of the connection port module 30 stops connecting to the external device 300, the device can ensure that the received operation data does not get lost. In other words, in this embodiment, the device not only has the function of remote control, but also has the function of a data collector.

[0058] Moreover, when the processing module 10 is connected to the external device 300 through the port of the connection port module 30 and receives the control instruction generated by the external device 300 in cooperation with the present case, the processing module 10 can also send the control instruction to the electric device 200 through the wireless communication module 20. In other words, the present invention does not limit that the generation of the control instruction can only come from the device itself. The device can also assist the external device 300 in cooperation with the present case to relay and transmit the control instruction generated by the external device 300 to the electric device 200, so as to control the electric device 200 in a diversified and multi-functional way.

[0059] Please refer to Figure 6As shown, in this embodiment, the processing module 10 in the MCU can perform the following steps:

[0060] Step S1: Initialize the MCU.

[0061] Step S2: Determine whether a data packet of an operation data generated by an oil pressure device is received from a wireless communication module. If so, execute Step S5. If not, execute Step S3.

[0062] Step S3: Control a signal lamp module to display a first signal lamp, for example, display a red light, and time the disconnection time of the wireless communication module.

[0063] Step S4: Determine whether the disconnection time is greater than the disconnection threshold stored in a storage module. If so, execute Step S1. If not, execute Step S2.

[0064] Step S5: Control a signal lamp module to display a second signal lamp, for example, display a green light.

[0065] Step S6: Determine whether an oil pressure working signal is received from the wireless communication module. If so, execute Step S7. If not, execute Step S9.

[0066] Step S7: According to the type of the oil pressure working signal, for example, according to whether the aforementioned oil pressure working signal is a crimping working signal or a shearing working signal, formulate a sound module to generate a corresponding sound. For example, generate a sound signal to the sound module according to a first oil pressure working sound file corresponding to the crimping working signal, or generate the sound signal to the sound module according to a second oil pressure working sound file corresponding to the shearing working signal.

[0067] Step S8: Generate a control instruction according to the operation of a key module and control the wireless communication module to output the control instruction to the oil pressure device.

[0068] Step S9: Transmit the operation data to an external device through a port of a connection port module.

[0069] Please refer to Figure 7 As shown, the aforementioned Step S9 further includes the following sub-steps:

[0070] Step S90: Transmit the operation data to the external device through the port of the connection port module.

[0071] Step S91: Determine whether a stop signal is received. If so, execute step S92. If not, execute step S90. Preferably, the button module of the present invention has a stop button electrically connected to the processing unit, and when the stop button is pressed, the stop button generates the stop signal to the processing unit. In an embodiment, the stop signal can originate from any one of the hydraulic device, the external device or the stop button of the present invention.

[0072] Step S92: Determine whether a duration of continuously receiving the stop signal is greater than the stop threshold stored in the storage module. If so, execute step S93. If not, execute step S94.

[0073] Step S93: Immediately stop the operation to protect the safety of the coordinated operation of the hydraulic device, the external device and the remote control and wireless receiving device in a timely manner.

[0074] Step S94: First transmit the operation data to the external device and then stop the operation to ensure the data integrity of transmitting the operation data to the external device.

Claims

1. A remote control and wireless receiving device, characterized in that: include: A housing composed of an upper housing member and a lower housing member, wherein the upper housing member and the lower housing member are detachably connected to each other; a wireless communication module, disposed in the housing, and provided for wireless connection to an electric device; wherein the electric device is a hydraulic device; A connection port module, comprising a port disposed on the housing, and the port is used for wired connection to an external device; wherein the external device is a computer device; a processing module, disposed in the housing and electrically connected to the wireless communication module and the connection port module; A user interface is electrically connected to the processing module.

2. The remote control and wireless receiving device as claimed in claim 1, characterized in that: The wireless communication module is connected to the electric device wirelessly via radio frequency.

3. The remote control and wireless receiving device as claimed in claim 1, characterized in that: The port is a Universal Serial Bus (USB) port.

4. The remote control and wireless receiving device as claimed in claim 3, characterized in that: The connection port module has: A universal asynchronous transceiver unit is electrically connected between the processing module and the USB port.

5. The remote control and wireless receiving device as claimed in claim 1, characterized in that: The user interface is a button module; The button module further includes a pair of frequency buttons, a pressurization button and a decompression button arranged on the housing, and the frequency button, the pressurization button and the decompression button are all electrically connected to the processing module.

6. The remote control and wireless receiving device as claimed in claim 1, characterized in that: Further including: A light signal module is electrically connected to the processing module.

7. The remote control and wireless receiving device as claimed in claim 6, characterized in that: Further including: A sound module is electrically connected to the processing module.

8. The remote control and wireless receiving device as claimed in claim 7, characterized in that: Further including: a storage module, disposed in the housing and electrically connected to the processing module; Wherein, the electric device is a hydraulic device.

9. The remote control and wireless receiving device as claimed in claim 1, characterized in that: Further including: A power module is disposed in the housing and electrically connected to the processing module; wherein the power module includes: a battery unit disposed in the housing; A voltage stabilizing unit is electrically connected between the battery unit and the processing module.

10. The remote control and wireless receiving device as claimed in claim 9, characterized in that: The power module includes: a safety circuit unit, electrically connected between the battery unit and the voltage stabilizing unit, and comprising a first contact point, a second contact point, and a resistor electrically connected between the first contact point and the second contact point; Wherein, the upper half shell part comprises: A groove, in which the first contact point and the second contact point are arranged spaced apart from each other; a safety conductive member, detachably coupled to the groove; wherein when the safety conductive member is coupled to the groove, the safety conductive member enables the first contact point and the second contact point in the groove to be directly electrically connected; Wherein, the voltage stabilizing unit is a voltage stabilizing chip.

11. The remote control and wireless receiving device as claimed in claim 10, characterized in that: The safety circuit unit further comprises: A reed switch is disposed in the housing and has a first reed piece and a second reed piece, wherein the first reed piece is electrically connected to the first contact point, and the second reed piece is electrically connected to the second contact point; The safety conductive part has a magnet, and when the safety conductive part is close to the reed switch, the first reed sheet and the second reed sheet are displaced due to the magnetic force of the magnet, so that the first reed sheet and the second reed sheet contact each other and are electrically connected, so that the first contact point and the second contact point in the groove are conductive.

12. The remote control and wireless receiving device as claimed in claim 10, characterized in that: The housing formed by the upper housing member and the lower housing member has a first closed loop; Wherein, the safety conductive member is connected to a second closed loop, and the second closed loop is locked with the first closed loop.

Images