CN210444237U - Control circuit and high-voltage electric pulse tumor therapeutic apparatus - Google Patents
Control circuit and high-voltage electric pulse tumor therapeutic apparatus Download PDFInfo
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- CN210444237U CN210444237U CN201921297337.8U CN201921297337U CN210444237U CN 210444237 U CN210444237 U CN 210444237U CN 201921297337 U CN201921297337 U CN 201921297337U CN 210444237 U CN210444237 U CN 210444237U
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Abstract
The application relates to a control circuit and a high-voltage electric pulse tumor therapeutic apparatus, wherein the controller, a signal output circuit and a photoelectric isolation circuit are arranged on the controller; also includes a substrate; the controller, the signal output circuit and the photoelectric isolation circuit are respectively arranged on the substrate; the controller, the signal output circuit and the photoelectric isolation circuit are electrically connected in sequence; the photoelectric isolation circuit is used for connecting a pulse generating circuit of the high-voltage electric pulse tumor therapeutic apparatus; the controller generates pulse parameters and transmits the pulse parameters to the signal output circuit; the signal output circuit generates a pulse signal according to the pulse parameter and transmits the pulse signal to the photoelectric isolation circuit; the photoelectric isolation circuit transmits the pulse signal to the pulse generating circuit after photoelectric isolation processing, so that the interference propagation path of the pulse signal is isolated, the anti-interference performance of the pulse signal is enhanced, the accuracy of the pulse signal is improved, and the anti-interference capability of the tumor therapeutic apparatus is further improved.
Description
Technical Field
The application relates to the technical field of medical equipment, in particular to a control circuit and a high-voltage electric pulse tumor therapeutic apparatus.
Background
The high-voltage electric pulse tumor therapeutic equipment is a new type equipment for curing malignant tumor, and combines several techniques of biological medical engineering, high-voltage new technology, modern power electronic technology, computer technology and microelectronic technology, etc. The working process of the high-voltage electric pulse tumor therapeutic apparatus is generally as follows: the instantaneous electric field intensity of the electric field pulse applied to the cell is higher than 1kV/cm (kilovolt per centimeter), the molecular permeability of the cell is greatly improved, and then the electroporation phenomenon is generated, and irreversible electric breakdown occurs along with the continuous increase of the pulse electric field intensity, so that the mechanical rupture of the cell membrane is caused until the cell dies.
At present, the quality of the high-voltage electric pulse tumor therapeutic apparatus needs to be continuously improved, and in the implementation process, the inventor finds that at least the following problems exist in the traditional technology: the traditional high-voltage electric pulse tumor therapeutic apparatus has poor anti-interference capability.
SUMMERY OF THE UTILITY MODEL
Therefore, it is necessary to provide a control circuit and a high-voltage electric pulse tumor therapeutic apparatus for solving the problem of poor anti-interference capability of the conventional high-voltage electric pulse tumor therapeutic apparatus.
In order to achieve the above object, in one aspect, an embodiment of the present application provides a control circuit, which includes a controller, a signal output circuit, and a photoelectric isolation circuit; also includes a substrate;
the controller, the signal output circuit and the photoelectric isolation circuit are respectively arranged on the substrate;
the controller, the signal output circuit and the photoelectric isolation circuit are electrically connected in sequence;
the photoelectric isolation circuit is used for connecting a pulse generating circuit of the high-voltage electric pulse tumor therapeutic apparatus;
wherein, the controller transmits pulse parameters to the signal output circuit; the signal output circuit transmits a pulse signal generated based on the pulse parameter to the photoelectric isolation circuit; the photoelectric isolation circuit transmits the pulse signal to the pulse generation circuit after photoelectric isolation processing.
In one embodiment, the system further comprises a Buffer module;
the Buffer module is arranged on the substrate; the Buffer module is connected between the signal output circuit and the photoelectric isolation circuit.
In one embodiment, the Buffer module is connected with the controller;
the Buffer module is used for carrying out power amplification processing on the control signal and transmitting the control signal after power amplification to the photoelectric isolation circuit;
the photoelectric isolation circuit carries out photoelectric isolation processing on the control signal and transmits the control signal after the photoelectric isolation processing to a controlled module of the high-voltage electric pulse tumor therapeutic apparatus.
In one embodiment, the Buffer module is connected with the controller;
the photoelectric isolation circuit carries out photoelectric isolation processing on the analog signal sent by the controlled module of the high-voltage electric pulse tumor therapeutic apparatus and transmits the analog signal after the photoelectric isolation processing to the controller.
In one embodiment, the photoelectric isolation circuit is used for connecting an external device;
the photoelectric isolation circuit carries out photoelectric isolation processing on a level signal sent by the external equipment and transmits the level signal after the photoelectric isolation processing to the Buffer module; the external equipment is a foot switch and/or an electrocardio monitor;
the Buffer module performs level conversion processing on the level signal and transmits the level signal after the level conversion processing to the controller.
In one embodiment, the optoelectronic isolation circuit is used for connecting an external computer device;
the Buffer module is used for carrying out power amplification processing on the signal sent by the controller and transmitting the signal after power amplification to the photoelectric isolation circuit;
the photoelectric isolation circuit carries out photoelectric isolation processing on the signals and transmits the signals after the photoelectric isolation processing to external computer equipment.
In one embodiment, the optoelectronic isolation circuit comprises:
the first linear optical coupler isolator is used for carrying out photoelectric isolation processing on the PWM wave control signal sent by the controller, and transmitting the PWM wave control signal after the photoelectric isolation processing to a power supply system of the high-voltage electric pulse tumor therapeutic apparatus;
the linear optical coupler isolator string is used for carrying out photoelectric isolation processing on an analog signal sent by a controlled module of the high-voltage electric pulse tumor therapeutic apparatus and transmitting the analog signal subjected to the photoelectric isolation processing to the controller; the linear optical coupling isolator string comprises a second linear optical coupling isolator and a third linear photoelectric isolator connected with the second linear optical coupling isolator;
the optical fiber isolator is used for carrying out photoelectric isolation processing on the pulse signal sent by the signal output circuit and transmitting the pulse signal after the photoelectric isolation processing to the pulse generating circuit; the charging circuit is also used for carrying out photoelectric isolation processing on the charging control signal sent by the controller and transmitting the charging control signal after the photoelectric isolation processing to the high-voltage electric pulse tumor therapeutic apparatus; the controller is also used for carrying out photoelectric isolation processing on the discharge control signal sent by the controller and transmitting the discharge control signal after the photoelectric isolation processing to a discharge circuit of the high-voltage electric pulse tumor therapeutic apparatus;
the optical coupler isolator is used for realizing the photoelectric isolation transmission of signals between the controller and external computer equipment; and the controller is also used for carrying out photoelectric isolation processing on the level signal sent by the external equipment and transmitting the level signal after the photoelectric isolation processing to the controller.
On the other hand, the embodiment of the application also provides a tumor therapeutic apparatus, which comprises the control circuit; the device also comprises a controlled board, a needle path panel and an RFID detection module;
the controlled board comprises a charging circuit, a pulse generating circuit and a discharging circuit;
the charging circuit, the pulse generating circuit, the discharging circuit and the RFID detection module are respectively and electrically connected with the controller through the photoelectric isolation circuit;
the charging circuit, the pulse generating circuit, the discharging circuit, the needle way panel and the RFID detection module are electrically connected in sequence.
In one embodiment, the electrocardioscanner further comprises an external computer device, a foot switch and an electrocardioscanner;
the external computer equipment, the foot switch and the electrocardio monitor are respectively and electrically connected with the controller through the photoelectric isolation circuit.
In one embodiment, the power supply further comprises a power supply control circuit and a power supply system; the power supply control circuit is respectively and electrically connected with external computer equipment and a power supply system; the power supply system is electrically connected with the charging circuit and is electrically connected with the controller through the photoelectric isolation circuit.
One of the above technical solutions has the following advantages and beneficial effects:
the control circuit provided by each embodiment of the application comprises a controller, a signal output circuit and a photoelectric isolation circuit; also includes a substrate; the controller, the signal output circuit and the photoelectric isolation circuit are respectively arranged on the substrate; the controller, the signal output circuit and the photoelectric isolation circuit are electrically connected in sequence; the photoelectric isolation circuit is used for connecting a pulse generating circuit of the high-voltage electric pulse tumor therapeutic apparatus; wherein, the controller transmits pulse parameters to the signal output circuit; the signal output circuit transmits a pulse signal generated based on the pulse parameter to the photoelectric isolation circuit; the photoelectric isolation circuit transmits the pulse signal to the pulse generating circuit after photoelectric isolation processing, so that the interference propagation path of the pulse signal is isolated, the anti-interference performance of the pulse signal is enhanced, the accuracy of the pulse signal is improved, and the anti-interference capability of the tumor therapeutic apparatus is further improved.
Drawings
The foregoing and other objects, features and advantages of the application will be apparent from the following more particular description of preferred embodiments of the application, as illustrated in the accompanying drawings. Like reference numerals refer to like parts throughout the drawings, and the drawings are not intended to be drawn to scale in actual dimensions, emphasis instead being placed upon illustrating the subject matter of the present application.
FIG. 1 is a schematic diagram of a control circuit according to an embodiment;
FIG. 2 is a schematic diagram of a control circuit according to another embodiment;
FIG. 3 is a schematic diagram of an embodiment of the high voltage electric pulse tumor treatment apparatus;
FIG. 4 is a schematic diagram of another embodiment of the high voltage electric pulse tumor therapy apparatus;
fig. 5 is a schematic structural diagram of a high-voltage electric pulse tumor therapeutic apparatus in yet another embodiment.
Detailed Description
To facilitate an understanding of the present application, the present application will now be described more fully with reference to the accompanying drawings. Preferred embodiments of the present application are shown in the drawings. This application may, however, be embodied in many different forms and should not be construed as limited to the embodiments set forth herein. Rather, these embodiments are provided so that this disclosure will be thorough and complete.
It will be understood that when an element is referred to as being "connected" to another element, it can be directly connected to the other element and be integral therewith, or intervening elements may also be present. The terms "mounted," "one end," "the other end," and the like are used herein for illustrative purposes only.
Unless defined otherwise, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this application belongs. The terminology used herein in the description of the present application is for the purpose of describing particular embodiments only and is not intended to be limiting of the application. As used herein, the term "and/or" includes any and all combinations of one or more of the associated listed items.
In order to solve the problem of poor interference resistance of the conventional high-voltage electric pulse tumor therapeutic apparatus, in one embodiment, referring to fig. 1, a control circuit is provided, which includes a controller 11, a signal output circuit 13 and a photoelectric isolation circuit 15; further comprising a substrate 17;
the controller 11, the signal output circuit 13 and the photoelectric isolation circuit 15 are respectively arranged on the substrate 17;
the controller 11, the signal output circuit 13 and the photoelectric isolation circuit 15 are electrically connected in sequence;
the photoelectric isolation circuit 15 is used for connecting a pulse generating circuit of the high-voltage electric pulse tumor therapeutic apparatus;
wherein, the controller 11 transmits the pulse parameter to the signal output circuit 13; the signal output circuit 13 transmits the pulse signal generated based on the pulse parameter to the photoelectric isolation circuit 15; the photoelectric isolation circuit 14 transmits the pulse signal to the pulse generating circuit after photoelectric isolation processing.
It should be noted that, a user inputs an instruction to the controller according to actual needs, and the controller generates corresponding pulse parameters according to the instruction. The controller generates pulse parameters and writes the pulse parameters into the signal output circuit. The pulse parameters are used to characterize the pulse signal, which includes the pulse period, pulse width, and number of pulses. In one example, the controller includes a Central Processing Unit (CPU) module, which is connected to the signal output circuit.
The signal output circuit generates the pulse signal according to the pulse parameter, in one example, a preset safety threshold may be configured in the signal output circuit in advance, after the pulse parameter is written in by the controller, the signal output circuit judges whether the pulse parameter is smaller than the preset safety threshold, and if the pulse parameter is smaller than the preset safety threshold, the signal output circuit generates the pulse signal according to the pulse parameter, so that the safety of pulse signal output is improved, and the safety of the controller for generating the output pulse signal is improved. In one example, the signal output circuit may be a programmable logic or a processor, or other device for generating a pulse signal. Before generating the pulse signal, the signal output circuit needs to judge whether the pulse period of the pulse parameter is smaller than the preset pulse period, whether the pulse width of the pulse parameter is smaller than the preset pulse width and whether the pulse number of the pulse parameter is smaller than the preset pulse number, and if the pulse period of the pulse parameter is smaller than the preset pulse period, the pulse width of the pulse parameter is smaller than the preset pulse width and the pulse number of the pulse parameter is smaller than the preset pulse number, the signal output circuit generates the pulse signal according to the pulse parameter. In one example, a preset safety threshold may be configured in the controller, and the controller determines whether the pulse parameter is smaller than the preset safety threshold after generating the pulse parameter according to an instruction input by a user, and writes the pulse parameter into the signal output circuit if the pulse parameter is smaller than the preset safety threshold. In one example, the signal output circuit is a digital signal output circuit.
To further enhance the immunity to interference of the pulse signal and the accuracy of outputting the pulse signal, in one example, the signal output circuit is configured to output a high level when no pulse signal is output.
The photoelectric isolation circuit receives the pulse signal sent by the signal output circuit, converts the pulse signal into an optical signal, converts the optical signal into the pulse signal during output and transmits the pulse signal to the pulse generating circuit of the high-voltage electric pulse tumor therapeutic apparatus, namely the pulse signal is subjected to photoelectric isolation processing and then transmitted to the pulse generating circuit of the high-voltage electric pulse tumor therapeutic apparatus, so that the pulse signal is isolated, and the anti-interference performance in the pulse signal transmission process is improved. Specifically, the signal output circuit transmits the generated pulse signal to the pulse generating circuit.
The substrate is used for carrying the controller, the signal output circuit and the photoelectric isolation circuit. The substrate may be a paper substrate, a glass cloth substrate, a composite substrate, a multilayer substrate, or the like. The load controller, the signal output circuit and the photoelectric isolation circuit are integrated on the substrate, so that the use, placement and storage of the control circuit are facilitated.
In each embodiment of the control circuit, the control circuit comprises a controller, a signal output circuit and a photoelectric isolation circuit; also includes a substrate; the controller, the signal output circuit and the photoelectric isolation circuit are respectively arranged on the substrate; the controller, the signal output circuit and the photoelectric isolation circuit are electrically connected in sequence; the photoelectric isolation circuit is used for connecting a pulse generating circuit of the high-voltage electric pulse tumor therapeutic apparatus; the controller generates pulse parameters and transmits the pulse parameters to the signal output circuit; the signal output circuit generates a pulse signal according to the pulse parameter and transmits the pulse signal to the photoelectric isolation circuit; the photoelectric isolation circuit transmits the pulse signal to the pulse generating circuit after photoelectric isolation processing, so that the interference propagation path of the pulse signal is isolated, the anti-interference performance of the pulse signal is enhanced, the accuracy of the pulse signal is improved, and the anti-interference capability of the tumor therapeutic apparatus is further improved.
In one embodiment, referring to fig. 2, a Buffer module 19 is further included;
the Buffer module 19 is arranged on the substrate 17; the Buffer block 19 is connected between the signal output circuit 13 and the opto-isolation circuit 15.
The Buffer module 19 performs power amplification processing on the pulse signal sent by the signal output circuit 13, and transmits the pulse signal after power amplification to the optoelectronic isolation circuit 15.
It should be noted that the Buffer module (i.e., the level conversion module) is configured to perform power amplification processing on the pulse signal, and transmit the pulse signal to the controlled module, specifically, the pulse generating circuit, through the optoelectronic isolation circuit, so that the anti-interference performance of the pulse signal can be further improved.
In order to enhance the anti-interference performance of various signals sent by the controller and various signals received by the controller in the high-voltage environment in the high-voltage electric pulse tumor therapeutic apparatus and improve the accuracy of signal transmission, in one example, the Buffer module is connected with the controller; the Buffer module is used for carrying out power amplification processing on the control signal and transmitting the control signal after power amplification to the photoelectric isolation circuit; the photoelectric isolation circuit carries out photoelectric isolation processing on the control signal and transmits the control signal after the photoelectric isolation processing to a controlled module of the high-voltage electric pulse tumor therapeutic apparatus.
The control signal is used for instructing the controlled module to execute corresponding action; the control signal includes a charge control signal, a PWM (Pulse Width Modulation) wave control signal, and/or a discharge control signal.
It should be noted that, in order to ensure that each controlled module of the high-voltage electric pulse tumor therapeutic apparatus can operate in a coordinated and ordered manner, the controller sends a control signal to each controlled module to instruct each controlled module to execute a corresponding action according to the control signal. In order to improve the anti-interference performance of the control signal, the control signal is subjected to power amplification processing through a Buffer module, and then subjected to photoelectric isolation processing through a photoelectric isolation circuit and transmitted to a controlled module. The control signal comprises a charging control signal, a Pulse Width Modulation (PWM) wave control signal and/or a discharging control signal, wherein the charging control signal is transmitted to the charging circuit to instruct the charging circuit to start or stop charging; transmitting the PWM wave control signal to a power supply system to indicate the power supply system to output corresponding voltage; the discharge control signal is transmitted to the discharge circuit to instruct the discharge circuit to start or stop discharging. The controlled module is one or any combination of the following circuits: charging circuit, power supply system and discharge circuit.
In one example, the Buffer module is connected to the controller; the photoelectric isolation circuit carries out photoelectric isolation processing on the analog signal sent by the controlled module of the high-voltage electric pulse tumor therapeutic apparatus and transmits the analog signal after the photoelectric isolation processing to the controller.
Wherein. The controller identifies the operating state of the controlled module according to the analog signal.
It should be noted that, in addition to controlling each controlled module, the controller also monitors the operation state of each controlled module, so as to ensure the safe and stable operation of the controlled module. In order to improve the anti-interference performance of the analog signal, each controlled module feeds back the analog signal to the controller through the photoelectric isolation circuit, the controller identifies the running state of the controlled module according to the analog signal, for example, the charging circuit feeds back the analog signal to the controller through the photoelectric isolation circuit, and the controller can identify whether the charging circuit is fully charged or not, whether the charging circuit is currently in the charging state or not according to the analog signal; the pulse generating circuit feeds back an analog signal to the controller through the photoelectric isolation circuit, and the controller identifies whether the pulse generating circuit can normally generate a pulse signal, parameters of the pulse signal and the like according to the analog signal; the discharge circuit feeds back an analog signal to the controller through the photoelectric isolation circuit, and the controller identifies the discharge voltage, the discharge needle channel and the like of the discharge circuit according to the analog signal.
In one example, the optoelectronic isolation circuit is used for connecting an external device;
the photoelectric isolation circuit carries out photoelectric isolation processing on a level signal sent by the external equipment and transmits the level signal after the photoelectric isolation processing to the Buffer module; the external equipment is a foot switch and/or an electrocardio monitor;
the Buffer module performs level conversion processing on the level signal and transmits the level signal after the level conversion processing to the controller.
And the controller identifies the running state of the external equipment according to the level signal.
The controller further includes an expansion interface, which is capable of expanding and connecting external devices, for example, the external devices include a foot switch, an electrocardiograph monitor, and the like, so that the controller realizes unified monitoring of the devices in the expansion connection. In order to improve the anti-interference performance of the level signal, each external device feeds back the level signal to the controller through the photoelectric isolation circuit and the Buffer module, the controller identifies the running state of the external device according to the level signal, for example, the foot switch feeds back the level signal to the controller through the photoelectric isolation circuit and the Buffer module, the controller identifies the open state, the closed state and the like of the foot switch according to the level signal, and if the foot switch is identified to be in the closed state, the power supply system is controlled to supply power to the high-voltage electric pulse tumor therapeutic apparatus, and the operation is started; if the high-voltage electric pulse tumor therapeutic apparatus is in the off state, the power supply system is controlled to stop supplying power to the high-voltage electric pulse tumor therapeutic apparatus, and the high-voltage electric pulse tumor therapeutic apparatus stops working. The Buffer module is used for buffering the level signal and carrying out level conversion, so that the level signal passing through the photoelectric isolation circuit can be level-matched with the controller and the signal output circuit, and the controller and the signal output circuit are protected, and meanwhile, level identification monitoring can be accurately carried out.
In one example, the optoelectronic isolation circuit is used to connect to an external computer device
The Buffer module is used for carrying out power amplification processing on the signal sent by the controller and transmitting the signal after power amplification to the photoelectric isolation circuit;
the photoelectric isolation circuit carries out photoelectric isolation processing on the signals and transmits the signals after the photoelectric isolation processing to external computer equipment.
It should be noted that the external computer device may be an input end through which a user inputs an instruction to the controller, and may also receive a signal transmitted by the controller, so that there is signal interaction between the external computer device and the controller, and in order to improve the anti-interference performance of the signal interaction, on one hand, the controller transmits a signal to the external computer device through the Buffer module and the optoelectronic isolation circuit, and on the other hand, the external computer device transmits a signal to the controller through the optoelectronic isolation circuit and the Buffer module.
In each embodiment of the controller, signals output by the controller and received signals are isolated, so that the anti-interference performance of signal transmission is improved, and the transmission accuracy of the signals is ensured.
In order to isolate various types of signals and realize parallel transmission, in one embodiment, the photoelectric isolation circuit comprises:
the first linear optical coupler isolator is used for carrying out photoelectric isolation processing on the PWM wave control signal sent by the controller, and transmitting the PWM wave control signal after the photoelectric isolation processing to a power supply system of the high-voltage electric pulse tumor therapeutic apparatus;
the linear optical coupler isolator string is used for carrying out photoelectric isolation processing on an analog signal sent by a controlled module of the high-voltage electric pulse tumor therapeutic apparatus and transmitting the analog signal subjected to the photoelectric isolation processing to the controller; the linear optical coupling isolator string comprises a second linear optical coupling isolator and a third linear photoelectric isolator connected with the second linear optical coupling isolator;
the optical fiber isolator is used for carrying out photoelectric isolation processing on the pulse signal sent by the signal output circuit and transmitting the pulse signal after the photoelectric isolation processing to the pulse generating circuit; the charging circuit is also used for carrying out photoelectric isolation processing on the charging control signal sent by the controller and transmitting the charging control signal after the photoelectric isolation processing to the high-voltage electric pulse tumor therapeutic apparatus; the controller is also used for carrying out photoelectric isolation processing on the discharge control signal sent by the controller and transmitting the discharge control signal after the photoelectric isolation processing to a discharge circuit of the high-voltage electric pulse tumor therapeutic apparatus;
the optical coupler isolator is used for realizing the photoelectric isolation transmission of signals between the controller and external computer equipment; and the controller is also used for carrying out photoelectric isolation processing on the level signal sent by the external equipment and transmitting the level signal after the photoelectric isolation processing to the controller.
In each embodiment of the control circuit, the optoelectronic isolation circuit comprises a first linear optical coupler isolator, a linear optical coupler isolator string, an optical fiber isolator and an optical coupler isolator, wherein the first linear optical coupler isolator, the optical fiber isolator and the optical coupler isolator perform 'electro-optic-electrical' conversion on signals, the linear optical coupler isolator string performs 'electro-optic-electrical' conversion on the signals, the signals are isolated and transmitted, the interference of the signals in a high-voltage environment is reduced, and the accuracy and the anti-interference capability of the signal transmission are improved.
In one embodiment, referring to fig. 3, there is also provided a high voltage electric pulse tumor therapeutic apparatus, comprising the control circuit according to the control circuit embodiments of the present application; the system also comprises a controlled board 31, a needle way panel 33 and an RFID (radio frequency Identification) detection module 35;
the controlled board 31 includes a charging circuit 311, a pulse generating circuit 313, and a discharging circuit 315;
the charging circuit 311, the pulse generating circuit 313, the discharging circuit 315 and the RFID detection module 35 are electrically connected with the controller 11 through the photoelectric isolation circuit 15;
the charging circuit 311, the pulse generating circuit 313, the discharging circuit 315, the needle lane panel 33, and the RFID detection module 35 are electrically connected in sequence.
It should be noted that the controlled board is a controlled object, and a charging circuit, a pulse generating circuit, a discharging circuit, and the like are provided thereon. The charging circuit is used for storing electric energy, the pulse generating circuit is used for generating pulse signals, and the discharging circuit is used for discharging to the needle channel panel. The needle channel panel comprises a plurality of pairs of discharge needles, and the discharge needles can be selected through the controller according to actual requirements. In one example, the charging circuit, the discharging circuit and the RFID detection module are respectively and electrically connected with the controller through the photoelectric isolation circuit and the Buffer module; the pulse generating circuit is connected with the controller through the photoelectric isolation circuit, the Buffer module and the signal output circuit.
In one example, referring to fig. 4, the high voltage electric pulse oncology treatment apparatus further comprises an external computer device 37, a foot switch 39 and an electrocardiograph 41; the external computer device 37, the foot switch 39 and the electrocardio monitor 41 are electrically connected with the controller 11 through the photoelectric isolation circuit 15 respectively. Specifically, the external computer equipment, the foot switch and the electrocardioscanner are respectively connected with the controller through the photoelectric isolation circuit and the Buffer module. It should be noted that, the functions of the external computer device, the foot switch, and the electrocardiograph monitor, and the signal transmission modes between the external computer device, the foot switch, the electrocardiograph monitor, and the control circuit, etc. please refer to the description in each embodiment of the control circuit of this application, and the description is omitted here.
In another example, as described with reference to fig. 5, the high voltage electric pulse tumor treatment apparatus further comprises a power control circuit 43, a power system 45; the power supply control circuit 43 is electrically connected to the external computer device 37 and the power supply system 45, respectively; the power supply system 45 is electrically connected to the charging circuit 311 and the controller 11 through the photo-isolation circuit 15. Furthermore, the power supply system is connected with the controller through the photoelectric isolation circuit and the Buffer module.
In yet another example, the high voltage electric pulse oncology therapeutic apparatus further comprises a temperature detection device electrically connected to the controller through the optoelectronic isolation circuit for monitoring the temperature of the discharge region of the needle track panel and feeding back the temperature to the controller, wherein the controller controls the discharge circuit to stop discharging when the temperature exceeds a preset threshold. Further, the temperature detection device is connected with the controller through a photoelectric isolation circuit.
In each embodiment of the high-voltage electric pulse tumor therapeutic apparatus, each signal transmission in the high-voltage electric pulse tumor therapeutic apparatus is good in isolation effect and has extremely strong anti-interference performance, so that each signal is accurately transmitted, and the safe and stable operation of the high-voltage electric pulse tumor therapeutic apparatus is ensured.
The technical features of the embodiments described above may be arbitrarily combined, and for the sake of brevity, all possible combinations of the technical features in the embodiments described above are not described, but should be considered as being within the scope of the present specification as long as there is no contradiction between the combinations of the technical features.
The above-mentioned embodiments only express several embodiments of the present application, and the description thereof is more specific and detailed, but not construed as limiting the claims. It should be noted that, for a person skilled in the art, several variations and modifications can be made without departing from the concept of the present application, which falls within the scope of protection of the present application. Therefore, the protection scope of the present patent shall be subject to the appended claims.
Claims (10)
1. A control circuit is characterized by comprising a controller, a signal output circuit and a photoelectric isolation circuit; also includes a substrate;
the controller, the signal output circuit and the photoelectric isolation circuit are respectively arranged on the substrate;
the controller, the signal output circuit and the photoelectric isolation circuit are electrically connected in sequence;
the photoelectric isolation circuit is used for connecting a pulse generating circuit of the high-voltage electric pulse tumor therapeutic apparatus;
wherein the controller transmits pulse parameters to the signal output circuit; the signal output circuit transmits a pulse signal generated based on the pulse parameter to the photoelectric isolation circuit; and the photoelectric isolation circuit transmits the pulse signal to the pulse generating circuit after photoelectric isolation processing.
2. The control circuit of claim 1, further comprising a Buffer module;
the Buffer module is arranged on the substrate; the Buffer module is connected between the signal output circuit and the photoelectric isolation circuit.
3. The control circuit of claim 2, wherein the Buffer module is connected to the controller;
the Buffer module is used for carrying out power amplification processing on the control signal and transmitting the control signal after power amplification to the photoelectric isolation circuit;
the photoelectric isolation circuit carries out photoelectric isolation processing on the control signal and transmits the control signal after the photoelectric isolation processing to a controlled module of the high-voltage electric pulse tumor therapeutic apparatus.
4. The control circuit of claim 2, wherein the Buffer module is connected to the controller;
the photoelectric isolation circuit carries out photoelectric isolation processing on the analog signal sent by the controlled module of the high-voltage electric pulse tumor therapeutic apparatus and transmits the analog signal after the photoelectric isolation processing to the controller.
5. The control circuit of claim 2, wherein the optoelectronic isolation circuit is configured to connect to an external device;
the photoelectric isolation circuit carries out photoelectric isolation processing on the level signal sent by the external equipment and transmits the level signal after the photoelectric isolation processing to the Buffer module; the external equipment is a foot switch and/or an electrocardio monitor;
and the Buffer module performs level conversion processing on the level signal and transmits the level signal after the level conversion processing to the controller.
6. The control circuit of claim 5, wherein the optoelectronic isolation circuit is configured to connect to an external computer device;
the Buffer module is used for carrying out power amplification processing on the signal sent by the controller and transmitting the signal after power amplification to the photoelectric isolation circuit;
and the photoelectric isolation circuit performs photoelectric isolation processing on the signal and transmits the signal subjected to the photoelectric isolation processing to the external computer equipment.
7. The control circuit of any of claims 1 to 5, wherein the optoelectronic isolation circuit comprises:
the first linear optical coupler isolator is used for carrying out photoelectric isolation processing on the PWM wave control signal sent by the controller, and the PWM wave control signal after the photoelectric isolation processing is transmitted to a power supply system of the high-voltage electric pulse tumor therapeutic apparatus;
the linear optical coupler isolator string is used for carrying out photoelectric isolation processing on an analog signal sent by a controlled module of the high-voltage electric pulse tumor therapeutic apparatus and transmitting the analog signal subjected to the photoelectric isolation processing to the controller; the linear optical coupler isolator string comprises a second linear optical coupler isolator and a third linear photoelectric isolator connected with the second linear optical coupler isolator;
the optical fiber isolator is used for carrying out photoelectric isolation processing on the pulse signal sent by the signal output circuit and transmitting the pulse signal after the photoelectric isolation processing to the pulse generating circuit; the charging circuit is also used for carrying out photoelectric isolation processing on the charging control signal sent by the controller and transmitting the charging control signal after the photoelectric isolation processing to the high-voltage electric pulse tumor therapeutic apparatus; the controller is also used for carrying out photoelectric isolation processing on the discharge control signal sent by the controller and transmitting the discharge control signal after the photoelectric isolation processing to a discharge circuit of the high-voltage electric pulse tumor therapeutic apparatus;
the optical coupler isolator is used for realizing the photoelectric isolation transmission of signals between the controller and external computer equipment; and the controller is also used for carrying out photoelectric isolation processing on the level signal sent by the external equipment and transmitting the level signal after the photoelectric isolation processing to the controller.
8. A high voltage electric pulse tumor treatment apparatus comprising the control circuit of any one of claims 1 to 7; the device also comprises a controlled board, a needle path panel and an RFID detection module;
the controlled board comprises a charging circuit, a pulse generating circuit and a discharging circuit;
the charging circuit, the pulse generating circuit, the discharging circuit and the RFID detection module are respectively and electrically connected with the controller through the photoelectric isolation circuit;
the charging circuit, the pulse generating circuit, the discharging circuit, the needle way panel and the RFID detection module are electrically connected in sequence.
9. The high-voltage electric pulse tumor therapeutic apparatus according to claim 8, further comprising an external computer device, a foot switch and an electrocardiograph;
the external computer equipment, the foot switch and the electrocardio monitor are respectively and electrically connected with the controller through the photoelectric isolation circuit.
10. The high-voltage electric pulse tumor therapeutic apparatus according to claim 9, further comprising a power control circuit and a power system; the power supply control circuit is respectively and electrically connected with the external computer equipment and the power supply system; the power supply system is electrically connected with the charging circuit and is electrically connected with the controller through the photoelectric isolation circuit.
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| Application Number | Priority Date | Filing Date | Title |
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| CN201921297337.8U CN210444237U (en) | 2019-08-06 | 2019-08-06 | Control circuit and high-voltage electric pulse tumor therapeutic apparatus |
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| CN201921297337.8U CN210444237U (en) | 2019-08-06 | 2019-08-06 | Control circuit and high-voltage electric pulse tumor therapeutic apparatus |
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| Application Number | Title | Priority Date | Filing Date |
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| CN201921297337.8U Active CN210444237U (en) | 2019-08-06 | 2019-08-06 | Control circuit and high-voltage electric pulse tumor therapeutic apparatus |
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| CN (1) | CN210444237U (en) |
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2019
- 2019-08-06 CN CN201921297337.8U patent/CN210444237U/en active Active
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