Control device and control method for shock wave system and shock wave system

Abstract

The invention provides a control device and method for a shock wave system and the shock wave system, and the device comprises an information obtaining module which is used for obtaining at least one of first preset information, electrode selection information and second preset information; the first preset information comprises information representing the type of the catheter; the electrode selection information comprises information capable of indicating the on-off state of each electrode assembly in the at least one electrode assembly in the working state; the second preset information comprises information representing the size of the balloon assembly; and the configuration module is used for configuring a plurality of working parameters of the shock wave system according to at least one of the first preset information, the electrode selection information and the second preset information, and controlling shock wave release operation of the shock wave system in a working state. According to the control device, by determining the type of the catheter, the size of the balloon assembly and the electrode assembly needing to be conducted in the working state, working parameters suitable for various different shock wave systems are configured, the application range is wide, and compatibility is good.

Description

Technical Field

[0001] The present invention relates to the technical field of medical devices, and in particular to a control device, a control method and a shock wave system for a shock wave system. Background Art

[0002] When in use, a shock wave system is connected to a balloon catheter. The balloon catheter is provided with a catheter and a balloon assembly arranged on the catheter. The balloon assembly is provided with an electrode assembly capable of releasing shock waves. During operation, a preset voltage is applied to the electrode assembly so that the balloon catheter can release shock waves to the diseased area to achieve a therapeutic effect. However, there are various models of balloon catheters in existing shock wave systems, and the indications targeted in the actual treatment process are also different. Correspondingly, various operating parameters required in the working state are also different. For example, the calcification degrees of different diseased parts are different, and correspondingly, different types of catheters are used. Among them, compared with calcifications in blood vessels such as coronary arteries and peripherals, the calcification degree of heart valves is more serious, the calcification area is larger, and the calcification thickness far exceeds that of blood vessel calcifications. A higher set value of the working voltage applied to the electrode assembly is required to ensure effective treatment. Thus, each model of shock wave system needs to be equipped with a dedicated control system separately to adapt, so as to ensure the accuracy and reliability of the shock wave released by the balloon catheter in the working state. However, in the prior art, there is no control device that can be compatible with various different types of shock wave systems, and the versatility is poor, and even mismatching is likely to occur, increasing the surgical risk. Summary of the Invention

[0003] In view of the problems existing in the above-mentioned prior art, the present invention provides a control device, a control method and a shock wave system for a shock wave system, and the technical solutions are as follows:

[0004] On the one hand, the present invention provides a control device for a shock wave system. The shock wave system includes a release device and a generating device, and the release device is detachably connected to the generating device. The release device includes a balloon assembly and a catheter. The balloon assembly has at least one electrode assembly, and the at least one electrode assembly is arranged on the catheter. The catheter is connected to the generating device. The control device includes:

[0005] An information acquisition module, configured to acquire at least one of first preset information, electrode selection information and second preset information. The first preset information includes information capable of characterizing the catheter type, and the catheter type includes a valve catheter, a coronary catheter and a peripheral catheter. The electrode selection information includes information capable of indicating the on-off states of the respective electrode assemblies in at least one electrode assembly in the working state. The second preset information includes information capable of characterizing the size of the balloon assembly.

[0006] A configuration module, configured to configure multiple operating parameters of the shock wave system and control the shock wave release operation of the shock wave system in an operating state according to at least one of the first preset information, the electrode selection information, and the second preset information.

[0007] Further, the multiple operating parameters at least include the total number of discharges in a full cycle, the number of discharges in a single cycle, and the discharge frequency. The total number of discharges in a full cycle is the total number of discharges that the electrode assembly can withstand.

[0008] The number of discharges in a single cycle is the total number of discharges when the shock wave system releases shock waves within a preset duration corresponding to a single cycle.

[0009] Further, the configuration module further includes:

[0010] A pre-stored information acquisition module, configured to acquire pre-stored first comparison information. The first comparison information includes characteristic information of multiple catheters.

[0011] A comparison module, configured to compare the first preset information with the first comparison information to determine the catheter type of the release device.

[0012] Further, the information acquisition module is further configured to, when determining that the catheter type is a valve catheter and before the configuration module configures multiple operating parameters of the shock wave system according to at least one of the first preset information, the electrode selection information, and the second preset information, acquire third preset information and transmit it to the configuration module, so that the configuration module determines the type of the balloon assembly. The third preset information can characterize the type of the balloon assembly in the release device when the catheter type is a valve catheter.

[0013] The configuration module is further configured to determine the multiple operating parameters according to at least one of the first preset information, the electrode selection information, the second preset information, and the third preset information.

[0014] Further, the configuration module is further configured to, when determining that the catheter type is a valve catheter and the balloon assembly is a single balloon, determine the total number of discharges in a full cycle, the number of discharges in a single cycle, and the discharge frequency among the multiple operating parameters according to the first preset information and the third preset information.

[0015] Further, the configuration module is further configured to, when determining that the catheter type is a valve catheter and the balloon assembly is a multi-balloon, determine the full-cycle discharge times, single-cycle discharge times, and discharge frequency among the multiple working parameters according to the first preset information, the third preset information, and the electrode selection information; wherein, when the catheter type is a valve catheter and the balloon assembly is a multi-balloon, the on-off states of at least one electrode assembly in the working state include a single-electrode conduction state and a multi-electrode cyclic conduction state.

[0016] Further, the multiple working parameters further include the working voltage applied to the target working electrode assembly, and the working voltage is determined based on at least two of the first preset information, the electrode selection information, and the second preset information.

[0017] Further, the configuration module is further configured to, when determining that the catheter type is a valve catheter, determine the working voltage among the multiple working parameters according to the first preset information and the second preset information.

[0018] Further, the configuration module is further configured to, when determining that the catheter type is a coronary catheter or a peripheral catheter, determine the full-cycle discharge times, single-cycle discharge times, and discharge frequency among the multiple working parameters according to the first preset information and the electrode selection information; and determine the working voltage among the multiple working parameters according to the first preset information, the electrode selection information, and the second preset information; wherein, when the catheter type is a coronary catheter or a peripheral catheter, the balloon assembly has multiple electrode assemblies arranged at intervals, and the multiple electrode assemblies include at least one distal electrode assembly and at least one proximal electrode assembly, and the electrode selection information is used to indicate the on-off states of the proximal electrode assembly and the distal electrode assembly in the working state.

[0019] Further, the control device further includes:

[0020] A mode switching module, which is configured to obtain a mode switching signal to adjust the multiple working parameters; the mode switching signal is used to indicate the switching of the shock wave system between a normal mode and an enhanced mode, so that the shock wave intensity generated by the release device in the enhanced mode is higher than that generated in the normal mode.

[0021] Further, the control device further includes a start signal monitoring module, and the start signal monitoring module includes:

[0022] A start signal acquisition module, which is configured to obtain a start signal when the configuration of the multiple working parameters is completed;

[0023] An anti-misoperation module is configured to generate a misoperation signal and issue an alarm when the start signal is obtained and the duration of the start signal does not meet a preset duration, so as to indicate to stop the start of the shock wave system.

[0024] Further, the control device further includes a self-check module, which is configured to detect the state parameters of target components in the shock wave system, and generate a fault signal and issue an alarm when the state parameters do not meet the preset state parameters, so as to indicate that there is a fault in the shock wave system.

[0025] On the other hand, the present invention provides a control method for a shock wave system, including:

[0026] Obtaining at least one of first preset information, electrode selection information, and second preset information; the first preset information includes information capable of characterizing the catheter type, and the catheter type includes a valve catheter, a coronary catheter, and a peripheral catheter; the electrode selection information includes information capable of indicating the on / off states of each electrode assembly in at least one electrode assembly in the working state; the second preset information includes information capable of characterizing the size of the balloon assembly;

[0027] Configuring multiple working parameters of the shock wave system according to at least one of the first preset information, the electrode selection information, and the second preset information, and controlling the shock wave release operation of the shock wave system in the working state.

[0028] On the other hand, the present invention provides a shock wave system, including a release device, a generating device, and a control device for a shock wave system as described in any one of the above. The release device is detachably connected to the generating device, and the control device is electrically connected to the release device and the generating device.

[0029] On the other hand, the present invention provides a storage medium, in which at least one instruction or at least one program segment is stored, and the at least one instruction or the at least one program segment is loaded and executed by a processor to implement the control method for a shock wave system as described above.

[0030] Implementing the present invention has the following beneficial effects: The control device of the present invention can determine the type of catheter connected, the size of the balloon assembly, and the electrode assemblies that need to be conducted in the working state through at least one of the first preset information, the electrode selection information, and the second preset information, so as to accurately configure the working parameters applicable to a variety of different shock wave systems, with a high degree of automation, greatly improving the control accuracy of a variety of shock wave systems, having a wide range of applications, good compatibility, not easily prone to mismatching, and being extremely beneficial to improving the treatment reliability and safety. Description of the Drawings

[0031] To more clearly illustrate the technical solutions in the embodiments of the present invention, the accompanying drawings used in the embodiments will be briefly introduced below. Obviously, the accompanying drawings in the following description are only some embodiments of the present invention. For those of ordinary skill in the art, without creative efforts, other accompanying drawings can be obtained based on these drawings.

[0032] Figure 1 It is a schematic structural diagram of a control device for a shock wave system provided by an embodiment of the present invention;

[0033] Figure 2 It is a logical structure diagram of a control method for a shock wave system provided by an embodiment of the present invention;

[0034] Figure 3 It is a logical structure diagram of a control method for a shock wave system in some specific embodiments of the present invention;

[0035] Figure 4 It is a flowchart for configuring working parameters in the case where the catheter type is a valve catheter;

[0036] Figure 5 It is a flowchart for configuring working parameters in the case where the catheter type is a coronary catheter;

[0037] Figure 6 It is a flowchart for configuring working parameters in the case where the catheter type is a peripheral catheter. Specific Embodiments

[0038] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, rather than all embodiments. Therefore, it cannot be understood as a limitation to the present invention. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts belong to the scope of protection of the present invention.

[0039] It should be noted that the terms "first", "second", etc. in the description, claims and drawings of the present invention are used to distinguish similar objects, and do not necessarily need to describe a specific order or sequence. It should be understood that such data can be interchanged under appropriate circumstances so that the embodiments of the present invention can be implemented in an order other than the following illustrations or the following description. In addition, the terms "include" and "have" and any variations thereof are intended to cover non-exclusive inclusion. For example, a process, method, system, product or server including a series of steps or units does not necessarily have to be limited to those clearly listed steps or units, but may include other steps or units not clearly listed or inherent to these processes, methods, products or devices.

[0040] In the prior art, various shock wave systems need to be equipped with dedicated control systems separately to precisely control the discharge, ensuring treatment accuracy and safety. This results in the inability to make the control systems universal and the complexity of matching. Embodiments of the present invention provide a control device, a control method, and a shock wave system for a shock wave system. The shock wave system includes a release device, a generating device, and a control device for the shock wave system. The release device is detachably connected to the generating device, and the control device is externally connected to the release device and the generating device to control the release device and the generating device to discharge. Among them, the release device includes a balloon assembly and a catheter. There is at least one electrode assembly in the balloon assembly, and at least one electrode assembly is provided on the catheter. The catheter is detachably connected to the generating device, so that the control device can control the generating device to emit a pulsed voltage and apply it to the electrode assembly in the balloon assembly, and control the electrode assembly to discharge to generate a shock wave force, accurately and reliably achieving the treatment effect.

[0041] The control device provided by the embodiments of the present invention can implement the control method provided by the embodiments of the present invention. Conversely, the control method provided by the embodiments of the present invention can be applied to the control device provided by the embodiments of the present invention. The configuration module in the control device determines the type of catheter to be connected, the electrode assemblies that need to be conducted in the working state, and the size of the balloon assembly according to at least one of the first preset information, electrode selection information, and second preset information obtained by the information acquisition module, so as to accurately configure multiple working parameters matching the shock wave system, control the shock wave release operation of the shock wave system in the working state, can accurately adapt to the connected release device and generating device, has a high degree of automation and high control precision, and ensures the effectiveness, accuracy, and stability of the shock wave force release in the working state, which is greatly beneficial to improving the treatment effectiveness and safety.

[0042] The control device for the shock wave system according to the embodiments of the present invention will be introduced in detail below.

[0043] As Figure 1 shown, the control device includes an information acquisition module 101 and a configuration module 102. The information acquisition module 101 is used to transmit the acquired information to the configuration module 102, so that the configuration module 102 can process the information and configure multiple working parameters adapted to the generating device, ensuring that the shock wave system can perform the shock wave release operation according to the preset multiple working parameters during the automatic discharge process, and improving the operation stability, treatment accuracy, and treatment safety of the shock wave system.

[0044] Specifically, after the release device in the shock wave system is connected, the information acquisition module 101 is configured to acquire at least one of the first preset information, the electrode selection information, and the second preset information; in some exemplary embodiments, the information acquisition module 101 is configured to acquire at least two of the first preset information, the electrode selection information, and the second preset information; preferably, the information acquisition module 101 is configured to acquire the first preset information, the electrode selection information, and the second preset information, and transmit the three to the configuration module 102, so as to greatly improve the accuracy and reliability of the configuration module 102 in configuring various working parameters, greatly reduce the risk of mismatching, and be conducive to improving the control accuracy and safety.

[0045] Among them, the first preset information includes information that can characterize the catheter type. For example, the first preset information includes characteristic information such as the model identification of the catheter and the size of the catheter; in some exemplary embodiments, the catheter types include valve catheters, coronary catheters, and peripheral catheters. Correspondingly, the first preset information of the valve catheter, the coronary catheter, and the peripheral catheter is also different, and the working parameters adapted to each are also different, so that the configuration module 102 can perform targeted working parameter configuration.

[0046] In some exemplary embodiments, a first controller is provided in the generating device. In this first controller, the characteristic information indicating the catheter type of itself, that is, the first preset information, is stored. After the shock wave system is connected, the information acquisition module 101 can send a first acquisition signal to the first controller. After receiving the first acquisition signal, the first controller responds to the first acquisition signal and sends the first preset information stored in the first controller to the information acquisition module 101. The information acquisition module 101 can receive the first preset information, so that the configuration module 102 can determine the specific type of the catheter in the connected generating device according to the first preset information, and thus configure the working parameters matching the type of the catheter to improve the matching accuracy.

[0047] In addition, in some exemplary embodiments, after the shock wave system is connected, the first controller can spontaneously output the first preset information, or the first controller intermittently outputs the first preset information to further improve the matching efficiency of the control device.

[0048] The electrode selection information includes information that can indicate the on / off states of each electrode assembly in at least one electrode assembly in the working state; in the generating device, in order to achieve different treatment purposes, the number of electrode assemblies, the discharge direction of the electrode assemblies, the fixed position of the electrode assemblies relative to the catheter axis, etc. set in different generating devices are not the same. In the working state, the electrode assemblies that need to be conducted are also different. Through this electrode selection information, it is possible to accurately determine the electrode assemblies that need to be conducted for discharging in each electrode assembly, that is, the target working electrode assemblies, as well as the conduction moment, duration, etc. required for the conducted electrode assemblies, and the non-target working electrode assemblies maintain the circuit-disconnected state, greatly ensuring the accuracy and controllability of discharging during the working process.

[0049] In some exemplary embodiments, the generating device is provided with an electrode selection key. The target working electrode assembly in the working state is selected through the electrode selection key, and the change of the electrode selection key can be triggered manually; then the electrode selection information can be obtained by monitoring the position change signal of the electrode selection key in the generating device, or by monitoring the pressure signals in different regions of the electrode selection key in the generating device; afterwards, through manual triggering, the information acquisition module 101 receives the electrode selection information, so that the configuration module 102 can determine the electrode assemblies that need to be conducted and correspondingly configure the working parameters adapted to the electrode assemblies that need to be conducted.

[0050] For example, in some exemplary embodiments, the electrode selection key includes a first selection key and a second selection key. The pressure changes below the first selection key and the second selection key are monitored by a monitoring element. When the pressure signal below the first selection key is detected, it means that the electrode assembly corresponding to the first selection key needs to be conducted in the working state. Then the electrode selection information includes information indicating that the electrode assembly corresponding to the first selection key is conducted in the working state, and the configuration module 102 configures the working parameters adapted to the electrode assembly corresponding to the first selection key.

[0051] The second preset information includes information that can characterize the size of the balloon assembly; in different generating devices, the sizes of the balloon assemblies are different, and the size of the balloon assembly is closely related to the shock wave intensity on the surface of the balloon assembly during the discharging process. When the discharging state of the internal electrode assembly is the same, the larger the size of the balloon assembly, the smaller the shock wave intensity reaching the surface of the balloon assembly, and the smaller the shock wave intensity acting on the lesion site; then according to the size of the balloon assembly, different working parameters also need to be configured to ensure the accuracy and effectiveness of the treatment effect.

[0052] In some exemplary embodiments, the second preset information may also be stored in the first controller. After the shock wave system is connected, it is sent to the information acquisition module 101 in the same manner as the first preset information, so that the configuration module 102 can determine the specific size of the balloon assembly in the access generating device according to the second preset information, and thus configure the working parameters matching the balloon assembly.

[0053] In some other exemplary embodiments, the second preset information may also be obtained by the monitoring elements provided on the balloon assembly. The information acquisition module 101 sends a test signal to the monitoring elements. After receiving the test signal, the monitoring elements generate the second preset information according to the size of the balloon assembly and send it to the information acquisition module 101. Among them, generating the second preset information according to the size of the balloon assembly may be to determine the size of the balloon assembly by monitoring the impedance value or voltage change of the balloon assembly, so as to generate the second preset information. The acquisition method of the second preset information is diverse, which is beneficial to improving the acquisition accuracy of the second preset information, and further beneficial to improving the matching degree and accuracy of the subsequent configuration by the configuration module 102, enhancing the compatibility with various shock wave systems, and further improving the control reliability of the automatic control by the control device.

[0054] Specifically, the configuration module 102 is configured to configure multiple working parameters of the shock wave system according to at least one of the first preset information, the electrode selection information, and the second preset information, and control the shock wave release operation of the shock wave system in the working state. In some preferred embodiments, the configuration module 102 is configured to configure multiple working parameters according to the first preset information, the electrode selection information, and the second preset information to further improve the matching accuracy.

[0055] Specifically, the multiple operating parameters at least include the number of full-cycle discharges, the number of single-cycle discharges, and the discharge frequency. The number of full-cycle discharges, the number of single-cycle discharges, and the discharge frequency are at least determined based on the first preset information and the electrode selection information, and the set values of the above operating parameters are the preset rated maximum values. In some specific embodiments, the real-time output values of the operating parameters are adjustable within the rated maximum value range; among them, during the treatment process of the shock wave system, it includes multiple cycles of shock wave release operations. The number of full-cycle discharges is the total number of discharges that the electrode assembly in the release device can withstand, that is, in the working state, the maximum number of discharges corresponding to the electrode assembly being able to conduct and stably discharge; this number of full-cycle discharges represents the lifespan of the electrode assembly. Once the set value of the number of full-cycle discharges is exceeded, the electrode assembly may be damaged and increase the intraoperative risk. Therefore, by limiting the number of full-cycle discharges, the electrode assembly can discharge precisely and stably during multiple cycles of treatment, improving treatment safety; the number of single-cycle discharges is the total number of discharges of the shock wave system releasing shock waves within the preset duration corresponding to a single cycle; the discharge frequency is the number of discharges of the shock wave system releasing shock waves per unit time, that is, the number of working times per second of the shock wave system.

[0056] In some exemplary embodiments, the multiple operating parameters further include the operating voltage applied to the target working electrode. The operating voltage is determined based on at least two of the first preset information, the electrode selection information, and the second preset information, so that the intensity of the shock wave force generated by the generating device when reaching the surface of the balloon assembly in the working state reaches the desired intensity, improving treatment accuracy and reliability.

[0057] Specifically, in some exemplary embodiments, the configuration module 102 further includes:

[0058] A pre-stored information acquisition module, configured to acquire the pre-stored first comparison information;

[0059] A comparison module, configured to compare the first preset information with the first comparison information to determine the catheter type of the release device.

[0060] Among them, the first comparison information includes the characteristic information of multiple catheters. Further, the first comparison information includes the characteristic information of valve catheters, the characteristic information of coronary catheters, and the characteristic information of peripheral catheters; the first comparison information is pre-stored in the control device. Then, after the configuration module 102 receives the first preset information, it can send an information acquisition instruction to the storage area storing the first comparison information, so that the storage area sends the first comparison information to the pre-stored information acquisition module. After that, the comparison module traverses the first comparison information until one of the characteristic information in the first preset information matches the first comparison information, and determines that the catheter type in the release device is the catheter type corresponding to the characteristic information.

[0061] Similarly, the pre-stored information acquisition module is further configured to acquire pre-stored second comparison information, where the second comparison information includes characteristic information of various balloon component sizes; the comparison module is further configured to compare the second preset information with the second comparison information to determine the size of the balloon component in the release device.

[0062] In an exemplary embodiment, before configuring multiple working parameters, the configuration module 102 further includes:

[0063] A catheter identification sub-module, configured to determine the catheter type of the release device according to the first identification information;

[0064] An electrode determination sub-module, configured to determine a target working electrode assembly from at least one electrode assembly according to the electrode selection information when the catheter type is determined;

[0065] A size identification sub-module, configured to determine the size of the balloon component according to the second identification information when the target working electrode assembly is determined.

[0066] Specifically, in some exemplary embodiments, the information acquisition module 101 is further configured to acquire third preset information and transmit it to the configuration module 102 before the configuration module 102 configures multiple working parameters when the catheter type is determined to be a valve catheter, so that the configuration module 102 determines the type of the balloon component; the third preset information can characterize the type of the balloon component in the release device when the catheter type is a valve catheter.

[0067] The configuration module 102 is further configured to determine multiple working parameters according to at least one of the first preset information, the electrode selection information, the second preset information, and the third preset information.

[0068] Wherein, when the catheter type is a valve catheter, the types of balloon components in the release device are divided into single balloon and multi-balloon. Correspondingly, some working parameters corresponding to the two different types are also different. Then, in combination with the third preset information, the accuracy and reliability of working parameter configuration can be further improved, and the versatility of the control device can be improved; preferably, the configuration module 102 determines multiple working parameters according to the first preset information, the electrode selection information, the second preset information, and the third preset information together.

[0069] In some exemplary embodiments, the third preset information may also be pre-stored in the first controller of the release device. When it is determined that the catheter type is a valve catheter, the third preset information may also be sent to the information acquisition module 101 in the same manner as the first preset information, so that the configuration module 102 can determine the specific type of the balloon assembly in the access generating device according to the third preset information. In addition, in some other exemplary embodiments, the third preset information may also be acquired by a monitoring element provided on the balloon assembly. The information acquisition module 101 sends a test signal to the monitoring element. After receiving the test signal, the monitoring element generates the third preset information according to the type of the balloon assembly and sends it to the information acquisition module 101. Among them, generating the third preset information according to the type of the balloon assembly may be to determine the type of the balloon assembly by monitoring the impedance value, the number of feedback signals or the voltage change of the balloon assembly, so as to generate the third preset information. The acquisition methods of the third preset information are diverse and sufficient, which is beneficial to improving the matching degree and accuracy when the configuration module 102 performs configuration, and further enhancing the compatibility with various shock wave systems.

[0070] Specifically, in some exemplary embodiments, the configuration module 102 is further configured to determine the full-cycle discharge times, single-cycle discharge times and discharge frequency among multiple working parameters according to the first preset information and the third preset information when it is determined that the catheter type is a valve catheter and the balloon assembly is a single balloon. That is, when the catheter type is a valve catheter and the balloon assembly is a single balloon, the full-cycle discharge times, single-cycle discharge times and discharge frequency are determined by the first preset information and the third preset information.

[0071] In some embodiments, when the catheter type is a valve catheter and the balloon assembly is a single balloon, the configuration module 102 automatically configures the full-cycle discharge times to be 250 - 350, the single-cycle discharge times to be 11 - 25, and the discharge frequency to be 1 - 2 Hz.

[0072] Specifically, the configuration module 102 is further configured to determine the full-cycle discharge times, single-cycle discharge times and discharge frequency among multiple working parameters according to the first preset information, the third preset information and the electrode selection information when it is determined that the catheter type is a valve catheter and the balloon assembly is a multi-balloon. That is, when the catheter type is a valve catheter and the balloon assembly is a multi-balloon, the full-cycle discharge times, single-cycle discharge times and discharge frequency are determined by the first preset information, the third preset information and the electrode selection information.

[0073] Among them, when the catheter type is a valve catheter and the balloon assembly is a multi-balloon, the on-off states of at least one electrode assembly in the working state include a single-electrode conduction state and a multi-electrode cyclic conduction state, which are respectively applicable to different treatment scenarios. Then, the electrode selection information is used to indicate the operation of conducting a single-electrode assembly or multiple electrode assemblies cyclically in the multi-balloon in the working state.

[0074] In some embodiments, when the catheter type is a valve catheter and the balloon assembly is a multi-balloon, regardless of whether the electrode selection information indicates that the target working electrode assembly is in a single-electrode assembly conduction state or a multi-electrode assembly cyclic conduction state, the number of electrode assemblies to be conducted at the same time remains unchanged. The configuration module 102 automatically configures the full-cycle discharge times to be 1000 - 1300, the single-cycle discharge times to be 51 - 70, and the discharge frequency to be 5 - 7 Hz.

[0075] Specifically, when it is determined that the catheter type is a valve catheter, regardless of whether the balloon assembly is a single balloon or a multi-balloon, and regardless of whether it is a single-electrode conduction or a multi-electrode cyclic conduction in the multi-balloon, the configuration module 102 configures the working voltage among multiple working parameters according to the second preset information. That is, when it is determined that the catheter type is a valve catheter, the working voltage is determined based on the first preset information and the second preset information.

[0076] In some embodiments, when the catheter type is a valve catheter, the larger the size of the balloon assembly, the larger the configured working voltage, so as to ensure that the shock wave intensity reaching the surface of the balloon assembly and acting on the treatment area to be treated reaches the desired intensity and can be basically consistent to achieve effective treatment. Among them, according to the size of the balloon assembly, the size of the balloon assembly is divided into three levels, and increases gradually. For example, the levels of the balloon assembly size include three levels: small balloon, medium balloon, and large balloon. Correspondingly, the working voltage to be configured is divided into a first-level voltage, a second-level voltage, and a third-level voltage, and the voltage intensity gradually increases.

[0077] Exemplarily, when the catheter type is a valve catheter, the balloon assembly size corresponding to the small balloon is 18 - 20 mm, and correspondingly, the first-level voltage is automatically configured to be 5 - 6 KV; the balloon assembly size corresponding to the medium balloon is 22 - 24 mm, then the second-level voltage corresponding to the medium balloon is automatically configured to be 6 - 8 KV (excluding 6 KV); the balloon assembly size corresponding to the large balloon is 26 - 28 mm, and the corresponding third-level voltage is automatically configured to be 8 - 10 KV (excluding 8 KV).

[0078] Specifically, in some embodiments, the configuration module 102 is further configured to determine the full-cycle discharge times, single-cycle discharge times, and discharge frequency among the multiple working parameters according to the first preset information and the electrode selection information when determining that the catheter type is a coronary catheter or a peripheral catheter; and determine the working voltage among the multiple working parameters according to the first preset information, the electrode selection information, and the second preset information; that is, when the catheter type is a coronary catheter or a peripheral catheter, the full-cycle discharge times, single-cycle discharge times, and discharge frequency are determined based on the first preset information and the electrode selection information, and the working voltage is determined based on the first preset information, the electrode selection information, and the second preset information.

[0079] Among them, when the catheter type is a coronary catheter or a peripheral catheter, there are multiple electrode assemblies arranged at intervals in the balloon assembly. The multiple electrode assemblies include at least one distal electrode assembly and at least one proximal electrode assembly. The electrode selection information is used to indicate the on-off states of the proximal electrode assembly and the distal electrode assembly respectively in the working state.

[0080] In some exemplary embodiments, the distal electrode assembly is mainly used to widen the blocked part around the treatment area to facilitate the balloon assembly to pass through the blocked part and accurately reach the treatment area for treatment, while the proximal electrode assembly is mainly used to discharge when the voltage is turned on to generate a shock wave force acting on the treatment area for treatment.

[0081] In some specific embodiments, the number of proximal electrode assemblies is more than the number of distal electrode assemblies. For example, there is one mutually isolated distal electrode assembly and three proximal electrode assemblies in the balloon assembly, or there are two mutually isolated distal electrode assemblies and five proximal electrode assemblies. Correspondingly, the multiple working parameters configured on the proximal electrode assembly are respectively greater than the multiple working parameters configured on the distal electrode assembly to maintain the effectiveness and reliability of the respective functions of the proximal electrode assembly and the distal electrode assembly.

[0082] In some exemplary embodiments, when the catheter type is a coronary catheter or a peripheral catheter and the working electrode assembly is a distal electrode assembly, the configuration module 102 automatically configures the full-cycle discharge times to be 75 - 90, the single-cycle discharge times to be 5 - 14, and the discharge frequency to be 1 - 2 Hz.

[0083] In some exemplary embodiments, when the catheter type is a coronary catheter or a peripheral catheter and the working electrode assembly is a proximal electrode assembly, the configuration module 102 automatically configures the full-cycle discharge times to be 95 - 105, the single-cycle discharge times to be 15 - 25, and the discharge frequency to be 1 - 2 Hz.

[0084] After that, in some exemplary embodiments, when it is determined that the catheter type is a coronary catheter, according to the electrode selection information and the second preset information, that is, further configure the working voltage according to the balloon size. Among them, the balloon assembly is divided into a small balloon and a large balloon according to the size. The corresponding size of the small balloon is 2.5 - 3.0 mm, and the corresponding size of the large balloon is 3.0 - 4.0 mm (excluding 3.0 mm); then the configuration of the working voltage specifically includes the following four cases:

[0085] When the electrode assembly is a distal electrode assembly and the balloon assembly is a small balloon, the configuration module 102 automatically configures the working voltage to be 2.7 - 3.0 KV;

[0086] When the electrode assembly is a distal electrode assembly and the balloon assembly is a large balloon, the configuration module 102 automatically configures the working voltage to be 3.0 - 3.3 KV (excluding 3.0 KV);

[0087] When the electrode assembly is a proximal electrode assembly and the balloon assembly is a small balloon, the configuration module 102 automatically configures the working voltage to be 3.0 - 3.3 KV (excluding 3.0 KV);

[0088] When the electrode assembly is a proximal electrode assembly and the balloon assembly is a large balloon, the configuration module 102 automatically configures the working voltage to be 3.3 - 3.7 KV (excluding 3.3 KV).

[0089] In some other exemplary embodiments, when it is determined that the catheter type is a peripheral catheter, according to the electrode selection information and the second preset information, that is, further configure the working voltage according to the balloon size. Among them, the balloon assembly is divided into a small balloon and a large balloon according to the size. The corresponding size of the small balloon is 4 - 7 mm, and the corresponding size of the large balloon is 8 - 12 mm; the configuration of the working voltage specifically includes the following four cases:

[0090] When the electrode assembly is a distal electrode assembly and the balloon assembly is a small balloon, the configuration module 102 automatically configures the working voltage to be 3.3 - 3.7 KV;

[0091] When the electrode assembly is a distal electrode assembly and the balloon assembly is a large balloon, the configuration module 102 automatically configures the working voltage to be 3.7 - 4.0 KV (excluding 3.7 KV);

[0092] When the electrode assembly is a proximal electrode assembly and the balloon assembly is a small balloon, the configuration module 102 automatically configures the working voltage to be 4.0 - 5.0 KV (excluding 4.0 KV);

[0093] When the electrode assembly is a proximal electrode assembly and the balloon assembly is a large balloon, the configuration module 102 automatically configures the working voltage to be 5.0 - 6.0 KV (excluding 5.0 KV).

[0094] Specifically, in some exemplary embodiments, the control device further includes a mode switching module, which is configured to obtain a mode switching signal to adjust a plurality of operating parameters; the mode switching signal is used to indicate the switching of the shock wave system between a normal mode and an enhanced mode, so that the intensity of the shock wave generated by the release device in the enhanced mode is higher than that in the normal mode.

[0095] In some embodiments, a mode selection key is provided in the generating device, and the release intensity of the shock wave generated by the shock wave release operation in the working state can be controlled through the mode selection key; the change of the mode selection key can also be triggered manually. Correspondingly, the mode switching signal can be obtained by monitoring the position change signal of the mode selection key in the generating device, or by monitoring the pressure signals in different regions of the mode selection key. Then, the information acquisition module 101 receives the mode switching signal, so that the configuration module 102 can adjust a plurality of operating parameters according to the mode switching signal, so that at least some of the plurality of operating parameters in the enhanced mode are higher than the corresponding at least some of the plurality of operating parameters in the normal mode, thereby meeting the different requirements for the shock wave intensity in different scenarios and different treatment requirements.

[0096] For example, in some specific embodiments, the number of full-cycle discharges automatically configured in the normal mode is 300 times, the number of single-cycle discharges is 20 times, the discharge frequency is 2 Hz, and the working voltage is 5 KV; when the mode selection key is triggered to switch the mode of the shock wave system to the enhanced mode, the generating device sends a mode switching signal, and the information acquisition module 101 receives the mode switching signal and enhances the previously configured working voltage to 7.5 KV to enhance the intensity of the shock wave force, or increases the previously configured discharge frequency to twice that in the normal mode to improve the discharge efficiency and shorten the treatment duration.

[0097] In addition, it should be noted that the mode switching signal is triggered between adjacent cycles to adjust the shock wave release operation in the next cycle and subsequent cycles. The switching is flexible and convenient, and can be adjusted in real time according to the actual treatment situation, greatly improving the flexibility of the interventional treatment process and further expanding the applicable range, so that the control device is applicable to a variety of different treatment scenarios.

[0098] Specifically, the control device further includes a self-check module. The self-check module is used to detect the state parameters of the target components in the shock wave system before the information acquisition module 101 acquires the first preset information, and determine whether there is a fault in the control device itself according to the state parameters. If it is detected that the state parameters are consistent with the preset state parameters stored in advance, it is determined that the control device itself is in a normal operating state and there is no fault, so that the subsequent configuration steps can be executed. If it is detected that the state parameters are inconsistent with the preset state parameters stored in advance, it means that there is a fault in the node of the target component corresponding to the state parameters. When the state parameters do not meet the preset state parameters, the self-check module generates a fault signal and issues an alarm to indicate that there is a fault in the shock wave system and display the fault occurrence node. In some specific embodiments, the fault signal can be specifically sent to the alarm, so that the indicator light of the alarm lights up or the buzzer of the alarm makes a sound, prompting the operator to check or replace the fault.

[0099] Specifically, in some exemplary embodiments, the control device further includes a catheter access monitoring module, which is used to receive a connection status signal before the information acquisition module 101 acquires the first preset information, and determine whether the generating device and the catheter are connected according to the connection status signal. The connection status signal is used to represent the on-off state between the current catheter and the generating device. If it is monitored that the connection status signal is consistent with the preset connection status signal stored in advance, the catheter access monitoring module determines that the catheter and the generating device are connected, and issues a connection signal for the releasing device, so that the information acquisition module 101 can start to execute the subsequent steps of acquiring the first preset information, electrode selection information and second preset information, and configuring multiple working parameters in response to the connection signal. If it is monitored that the connection status signal is inconsistent with the preset connection status signal stored in advance, it means that the catheter is not connected and a connection fault occurs. In this case, the catheter access monitoring module generates a catheter access feedback signal and issues an alarm. The catheter access feedback signal is used to indicate that the catheter connection in the shock wave system fails. In some specific embodiments, the catheter access feedback signal can be specifically sent to the alarm, so that the indicator light of the alarm lights up or the buzzer of the alarm makes a sound to prompt the operator to reconnect or replace the catheter.

[0100] Specifically, after the configuration module 102 configures multiple working parameters, the control device further includes a start signal monitoring module, which includes:

[0101] A start signal acquisition module, which is used to acquire a start signal when multiple working parameters are configured.

[0102] An anti-misoperation module is used to generate a misoperation signal and issue an alarm when a start signal is obtained and the duration of the start signal does not meet the preset duration, for indicating to stop the startup of the shock wave system.

[0103] In some embodiments, a start key is provided in the generating device. The start signal can be obtained by monitoring the position change signal of the start key in the generating device, or can be obtained by detecting the pressure signal under the start key. The start key can be manually triggered. After the manual trigger, the generating device issues the start signal, and the start signal acquisition module receives the start signal and issues a charging signal in response to the start signal to control the discharge of the shock wave system.

[0104] Among them, after the start signal is received for the first time, there may be a situation of misoperation of the start key. Then the start signal acquisition module is also used to obtain the duration of the start signal, so that the control device can compare the duration of the start signal with the preset duration stored in advance. Exemplarily, the preset duration can be 500 ms; when the duration of the start signal is greater than or equal to the preset duration, it indicates a non-misoperation situation. Then the configuration module can respond to the start signal and control the generating device to issue a pulsed voltage to control the release device to release the shock wave; if the duration of the start signal is less than the preset duration, it indicates a misoperation situation. Then the anti-misoperation module generates a misoperation signal and issues an alarm based on this situation, so that the control device stops the startup of the shock wave system, returns to the start signal acquisition module to re-monitor and obtain the start signal, greatly improving the use safety of the shock wave system.

[0105] Specifically, in some exemplary embodiments, the control device further includes a monitoring and feedback module, which is used to monitor various working state parameters during the working state of the shock wave system, and generate a feedback signal when the working state parameters do not meet the preset working conditions, for indicating to pause or start the discharge of the shock wave system.

[0106] For example, in the working state, when the shock wave system is discharging normally, the monitoring and feedback module monitors the start signal. When the start signal is interrupted, the shock wave system is controlled to stop discharging until the start signal is re-monitored, and the step of the start signal acquisition module obtaining the start signal is executed; for another example, the monitoring and feedback module monitors the number of discharges in a single cycle and compares it with the configured number of discharges in a single cycle. If the comparison result shows that the number of discharges is equal to the number of discharges in a single cycle, the shock wave system discharges are paused and the single-cycle treatment ends; if the comparison result shows that the number of discharges is less than the number of discharges in a single cycle, the generating device is controlled to continuously output high-voltage pulses until the single-cycle treatment ends.

[0107] It should be noted that when the control device provided in the above embodiments realizes its functions, only the division of the above-mentioned functional modules is used for illustration. In practical applications, the above functions can be allocated to different functional modules according to needs, that is, the internal structure of the device is divided into different functional modules to complete all or part of the functions described above.

[0108] Corresponding to the control device for the shock wave system provided in the above embodiments of the present invention, an embodiment of the present invention provides a control method for the shock wave system. The control method provided in this embodiment and the device embodiment belong to the same concept. The specific implementation process can be seen in the device embodiment and will not be elaborated here; as Figure 2 shown, the control method includes:

[0109] S101, obtaining at least one of first preset information, electrode selection information, and second preset information; the first preset information includes information capable of characterizing the catheter type, and the catheter type includes valve catheters, coronary catheters, and peripheral catheters; the electrode selection information includes information capable of indicating the on-off states of each electrode assembly in at least one electrode assembly in the working state; the second preset information includes information capable of characterizing the size of the balloon assembly;

[0110] S103, configuring multiple working parameters of the shock wave system according to at least one of the first preset information, the electrode selection information, and the second preset information, and controlling the shock wave release operation of the shock wave system in the working state.

[0111] In some exemplary embodiments, the configuring multiple working parameters of the shock wave system according to at least one of the first preset information, the electrode selection information, and the second preset information includes:

[0112] Obtaining pre-stored first comparison information; the first comparison information includes characteristic information of multiple catheters;

[0113] Comparing the first preset information with the first comparison information to determine the catheter type of the release device.

[0114] In some exemplary embodiments, when it is determined that the catheter type is a valve catheter, and before the configuring multiple working parameters of the shock wave system according to at least one of the first preset information, the electrode selection information, and the second preset information, the method further includes:

[0115] Obtaining third preset information and transmitting it to the configuration module so that the configuration module determines the type of the balloon assembly;

[0116] Determine the plurality of operating parameters based on at least one of the first preset information, the electrode selection information, the second preset information, and the third preset information.

[0117] In some exemplary embodiments, when it is determined that the catheter type is a valve catheter and the balloon assembly is a single balloon, configuring the plurality of operating parameters of the shock wave system includes:

[0118] Determine the number of full-cycle discharges, the number of single-cycle discharges, and the discharge frequency among the plurality of operating parameters according to the first preset information and the third preset information.

[0119] In some exemplary embodiments, when it is determined that the catheter type is a valve catheter and the balloon assembly is a multi-balloon, configuring the plurality of operating parameters of the shock wave system includes:

[0120] Determine the number of full-cycle discharges, the number of single-cycle discharges, and the discharge frequency among the plurality of operating parameters according to the first preset information, the third preset information, and the electrode selection information.

[0121] In some exemplary embodiments, when it is determined that the catheter type is a coronary catheter or a peripheral catheter, configuring the plurality of operating parameters of the shock wave system includes:

[0122] Determine the number of full-cycle discharges, the number of single-cycle discharges, and the discharge frequency among the plurality of operating parameters according to the first preset information and the electrode selection information;

[0123] And determine the operating voltage among the plurality of operating parameters according to the first preset information, the electrode selection information, and the second preset information.

[0124] In some exemplary embodiments, the method further includes:

[0125] Obtain a mode switching signal to adjust the plurality of operating parameters; the mode switching signal is used to indicate the switching of the shock wave system between a normal mode and an enhanced mode, so that the intensity of the shock wave generated by the release device in the enhanced mode is higher than that in the normal mode.

[0126] In some exemplary embodiments, after the plurality of operating parameters are configured, the method further includes:

[0127] Obtain a start signal;

[0128] When the start signal is obtained and the duration of the start signal does not meet a preset duration, generate a false touch signal and issue an alarm, and the false touch signal is used to indicate stopping the startup of the shock wave system.

[0129] In some exemplary embodiments, before obtaining at least one of the first preset information, the electrode selection information, and the second preset information, the method further includes:

[0130] Detecting the state parameters of the target component in the shock wave system, and generating a fault signal and issuing an alarm when the state parameters do not meet the preset state parameters, for indicating that there is a fault in the shock wave system.

[0131] The following introduces the specific processes of the control method for the shock wave system in some specific embodiments. As Figure 3 shown, the values of each parameter are only for illustration and are not used to limit the present invention.

[0132] S1, Detecting the state parameters of the target component in the shock wave system.

[0133] S2, If it is detected that the state parameters do not meet the preset state parameters, generating a fault signal and issuing an alarm.

[0134] S3, If it is detected that the state parameters meet the preset state parameters, receiving the connection state signal.

[0135] S4, If it is monitored that the connection state signal is inconsistent with the preset state signal stored in advance, generating a catheter access feedback signal and issuing an alarm.

[0136] S5, If it is monitored that the connection state signal is consistent with the preset state signal stored in advance, generating a connection signal for the release device.

[0137] S6, In response to this connection signal, obtaining the first preset information, and determining the type of the accessed catheter according to the first preset information.

[0138] After that, as Figure 4 shown, when it is determined that the catheter type is a valve catheter:

[0139] S7, Obtaining the third preset information, and determining the type of the balloon assembly according to the third preset information.

[0140] S71, When the type of the balloon assembly is a single balloon, automatically configuring the full-cycle discharge times to 300, the single-cycle discharge times to 20, and the discharge frequency to 2 Hz.

[0141] S72, When the type of the balloon assembly is a multi-balloon, obtaining the electrode selection information, and determining single-electrode operation or multi-electrode cyclic operation according to the electrode selection information.

[0142] S73. When the balloon component type is multi-balloon, automatically configure the full-cycle discharge times to 1200, the single-cycle discharge times to 60, and the discharge frequency to 6 Hz.

[0143] S74. Obtain the second preset information and determine the balloon component size according to the second preset information.

[0144] S75. When the balloon component size is 18 - 20 mm, automatically configure the working voltage to 5 - 6 KV.

[0145] S76. When the balloon component size is 22 - 24 mm, automatically configure the working voltage to 6 - 8 KV (excluding 6 KV).

[0146] S77. When the balloon component size is 26 - 28 mm, automatically configure the working voltage to 8 - 10 KV (excluding 8 KV).

[0147] And as Figure 5 shown, when it is determined in step S6 that the catheter type is a coronary catheter:

[0148] S8. Obtain the electrode selection information and determine the target working electrode assembly from at least one electrode assembly according to the electrode selection information.

[0149] S81. When the electrode is a distal electrode, automatically configure the full-cycle discharge times to 80, the single-cycle discharge times to 10, and the discharge frequency to 1 - 2 Hz.

[0150] S82. When the electrode assembly is a distal electrode assembly, obtain the second preset information and determine the balloon component size according to the second preset information.

[0151] S83. When the electrode assembly is a distal electrode assembly and the balloon component size is 2.5 - 3.0 mm, automatically configure the working voltage to 2.7 - 3.0 KV.

[0152] S84. When the electrode assembly is a distal electrode assembly and the balloon component size is 3.0 - 4.0 mm (excluding 3.0 mm), automatically configure the working voltage to 3.0 - 3.3 KV (excluding 3.0 KV).

[0153] S85. When the electrode assembly is a proximal electrode assembly, automatically configure the full-cycle discharge times to 100, the single-cycle discharge times to 20, and the discharge frequency to 1 - 2 Hz.

[0154] S86. When the electrode assembly is a proximal electrode assembly, obtain the second preset information and determine the balloon component size according to the second preset information.

[0155] S87. When the electrode assembly is the proximal electrode assembly and the size of the balloon assembly is 2.5 - 3.0 mm, automatically configure the working voltage to be 3.0 - 3.3 KV (excluding 3.0 KV).

[0156] S88. When the electrode assembly is the proximal electrode assembly and the size of the balloon assembly is 3.0 - 4.0 mm (excluding 3.0 mm), automatically configure the working voltage to be 3.3 - 3.7 KV (excluding 3.3 KV).

[0157] As Figure 6 shown, when it is determined in step S6 that the catheter type is a peripheral catheter:

[0158] S9. Obtain electrode selection information, and determine the target working electrode assembly among at least one electrode assembly according to the electrode selection information.

[0159] S91. When the electrode assembly is the distal electrode assembly, automatically configure the number of full - cycle discharges to be 80, the number of single - cycle discharges to be 10, and the discharge frequency to be 1 - 2 Hz.

[0160] S92. When the electrode assembly is the distal electrode assembly, obtain the second preset information, and determine the size of the balloon assembly according to the second preset information.

[0161] S93. When the electrode assembly is the distal electrode assembly and the size of the balloon assembly is 4 - 7 mm, automatically configure the working voltage to be 3.3 - 3.7 KV.

[0162] S94. When the electrode assembly is the distal electrode assembly and the size of the balloon assembly is 8 - 12 mm, automatically configure the working voltage to be 3.7 - 4.0 KV (excluding 3.7 KV).

[0163] S95. When the electrode assembly is the proximal electrode assembly, automatically configure the number of full - cycle discharges to be 100, the number of single - cycle discharges to be 20, and the discharge frequency to be 2 - 5 Hz.

[0164] S96. When the electrode assembly is the proximal electrode assembly, obtain the second preset information, and determine the size of the balloon assembly according to the second preset information.

[0165] S97. When the electrode assembly is the proximal electrode assembly and the size of the balloon assembly is 4 - 7 mm, automatically configure the working voltage to be 4.0 - 5.0 KV (excluding 4.0 KV).

[0166] S98. When the electrode assembly is the proximal electrode assembly and the size of the balloon assembly is 8 - 12 mm, automatically configure the working voltage to be 5.0 - 6.0 KV (excluding 5.0 KV).

[0167] S10. After multiple working parameter configurations are completed, obtain a start signal.

[0168] S11. According to the start signal, determine whether the duration of the start signal meets a preset duration.

[0169] S12. When the duration of the start signal meets the preset duration, start the high-voltage pulse controlled shock wave system to discharge according to multiple working parameters.

[0170] Otherwise, when the duration of the start signal meets the preset duration, return to step S10.

[0171] S13. During the working state, monitor whether the start signal is interrupted. When it is monitored that the start signal is interrupted, control the shock wave system to stop discharging and return to step S10.

[0172] S14. When it is monitored that the start signal is not interrupted, monitor the number of discharges within a single cycle and compare it with the configured number of discharges in a single cycle. Determine whether the number of discharges is less than the number of discharges in a single cycle. If the comparison result shows that the number of discharges is less than the number of discharges in a single cycle, return to step S12 and continuously output high-voltage pulses until the single-cycle treatment ends.

[0173] S15. If the comparison result shows that the number of discharges is equal to the number of discharges in a single cycle, pause the discharge of the shock wave system and the single-cycle treatment ends.

[0174] An embodiment of the present invention also provides a storage medium. At least one instruction or at least one segment of program is stored in the storage medium. The at least one instruction or the at least one segment of program is loaded and executed by a processor to implement the above-mentioned control method for a shock wave system; optionally, the storage medium can be located in at least one of multiple network servers in a computer network; in addition, the storage medium can include, but is not limited to, various storage media that can store program codes such as random access memory (RAM), read-only memory (ROM), non-volatile memory (NVM), USB flash drives, mobile hard disks, magnetic disk storage devices, flash memory devices, and other volatile solid-state storage devices.

[0175] It should be noted that the above sequence of embodiments of the present invention is only for description and does not represent the superiority or inferiority of the embodiments. Also, the above describes specific embodiments of this specification. Other embodiments are within the scope of the appended claims. In some cases, the actions or steps recited in the claims may be performed in a different order than in the embodiments and still achieve the desired result. Additionally, the processes depicted in the drawings do not necessarily require the particular order or sequential order shown to achieve the desired result. In certain embodiments, multitasking and parallel processing are also possible or may be advantageous.

[0176] The above description is only some embodiments of the present invention and is not intended to limit the present invention. Those skilled in the art should understand that the present invention will have various changes and improvements, and any modifications, equivalent replacements, and improvements made in accordance with the present invention fall within the scope of protection required by the present invention.

Claims

1. A control device for a shock wave system, the shock wave system comprising a release device and a generating device, the release device being detachably connected to the generating device; the release device comprising a balloon assembly and a catheter, the balloon assembly having at least one electrode assembly, the at least one electrode assembly being provided on the catheter, the catheter being connected to the generating device; characterized in that, The control device includes: An information acquisition module, configured to acquire at least one of first preset information, electrode selection information, and second preset information; the first preset information includes information capable of characterizing the catheter type, and the catheter type includes a valve catheter, a coronary catheter, and a peripheral catheter; the electrode selection information includes information capable of indicating the on / off states of each electrode assembly in at least one electrode assembly in the working state; the second preset information includes information capable of characterizing the size of the balloon assembly; A configuration module, configured to configure multiple working parameters of the shock wave system according to at least one of the first preset information, the electrode selection information, and the second preset information, and control the shock wave release operation of the shock wave system in the working state.

2. The control device according to claim 1, wherein The multiple working parameters at least include the total number of discharges in a full cycle, the number of discharges in a single cycle, and the discharge frequency, and the total number of discharges in a full cycle is the total number of discharges that the electrode assembly can withstand; The number of discharges in a single cycle is the total number of discharges when the shock wave system releases shock waves within the preset duration corresponding to a single cycle.

3. The control device according to claim 1, characterized in that, The configuration module further includes: A pre-stored information acquisition module, configured to acquire pre-stored first comparison information; the first comparison information includes characteristic information of multiple catheters; A comparison module, configured to compare the first preset information with the first comparison information to determine the catheter type of the release device.

4. The control device according to claim 1, characterized in that The information acquisition module is further configured to, when determining that the catheter type is a valve catheter and before the configuration module configures multiple working parameters of the shock wave system according to at least one of the first preset information, the electrode selection information, and the second preset information, acquire third preset information and transmit it to the configuration module, so that the configuration module determines the type of the balloon assembly; the third preset information can characterize the type of the balloon assembly in the release device when the catheter type is a valve catheter. The configuration module is further configured to determine the multiple working parameters according to at least one of the first preset information, the electrode selection information, the second preset information, and the third preset information.

5. The control device according to claim 4, characterized in that The configuration module is further configured to, when determining that the catheter type is a valve catheter and the balloon assembly is a single balloon, determine the total number of discharges in a full cycle, the number of discharges in a single cycle, and the discharge frequency among the multiple working parameters according to the first preset information and the third preset information.

6. The control device according to claim 4, wherein The configuration module is further configured to, when determining that the catheter type is a valve catheter and the balloon assembly is a multi-balloon, determine the total number of discharges in a full cycle, the number of discharges in a single cycle, and the discharge frequency among the multiple working parameters according to the first preset information, the third preset information, and the electrode selection information; wherein, when the catheter type is a valve catheter and the balloon assembly is a multi-balloon, the on / off states of at least one electrode assembly in the working state include a single electrode conduction state and a multi-electrode cyclic conduction state.

7. The control device according to claim 2, characterized in that, The plurality of operating parameters further includes an operating voltage applied to the target working electrode assembly, and the operating voltage is determined based on at least two of the first preset information, the electrode selection information, and the second preset information.

8. The control device according to claim 7, characterized in that, The configuration module is further configured to, when determining that the catheter type is a valve catheter, determine the operating voltage among the plurality of operating parameters according to the first preset information and the second preset information.

9. The control device according to claim 7, characterized in that The configuration module is further configured to, when determining that the catheter type is a coronary catheter or a peripheral catheter, determine the number of full-cycle discharges, the number of single-cycle discharges, and the discharge frequency among the plurality of operating parameters according to the first preset information and the electrode selection information; and determine the operating voltage among the plurality of operating parameters according to the first preset information, the electrode selection information, and the second preset information; wherein, when the catheter type is a coronary catheter or a peripheral catheter, the balloon assembly has a plurality of electrode assemblies arranged at intervals, and the plurality of electrode assemblies includes at least one distal electrode assembly and at least one proximal electrode assembly, and the electrode selection information is used to indicate the on / off states of the proximal electrode assembly and the distal electrode assembly respectively in the working state.

10. The control device according to any one of claims 1-9, characterized in that, The control device further includes: A mode switching module, which is configured to obtain a mode switching signal to adjust the plurality of operating parameters; the mode switching signal is used to indicate the switching of the shock wave system between a normal mode and an enhanced mode, so that the shock wave intensity generated by the release device in the enhanced mode is higher than that generated in the normal mode.

11. The control device according to any one of claims 1-9, characterized in that, The control device further includes a start signal monitoring module, and the start signal monitoring module includes: A start signal acquisition module, configured to acquire a start signal when the plurality of operating parameters are configured; An anti-misoperation module, configured to generate a misoperation signal and issue an alarm when the start signal is acquired and the duration of the start signal does not meet a preset duration, for indicating to stop the start of the shock wave system.

12. The control device according to any one of claims 1-9, characterized in that, The control device further includes a self-check module, which is configured to detect the state parameters of the target components in the shock wave system, and generate a fault signal and issue an alarm when the state parameters do not meet the preset state parameters, for indicating that there is a fault in the shock wave system.

13. A control method for a shock wave system, characterized in that, Including: Obtain at least one of the first preset information, the electrode selection information, and the second preset information; The first preset information includes information capable of characterizing the catheter type, and the catheter type includes a valve catheter, a coronary catheter, and a peripheral catheter; the electrode selection information includes information capable of indicating the on / off states of each electrode assembly in at least one electrode assembly in the working state; the second preset information includes information capable of characterizing the size of the balloon assembly; Configure the plurality of operating parameters of the shock wave system according to at least one of the first preset information, the electrode selection information, and the second preset information, and control the shock wave release operation of the shock wave system in the working state.

14. A shock wave system, comprising a release device, a generating device, and a control device for a shock wave system as described in any one of claims 1-12, wherein the release device is detachably connected to the generating device, and the control device is electrically connected to the release device and the generating device.

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