Abstract:
An evaluating method for a useful lifespan of a conductive gel is applied to a non-implantable electrical stimulation device. The non-implantable electrical stimulation device includes an electrical stimulator and an electrode assembly. The electrical stimulator is detachably electrically connected to the electrode assembly. The evaluating method for the useful lifespan of the conductive gel includes the following steps. A first measuring signal is generated, and the first measuring signal flows through a conductive area to generate a first signal to be tested. The first signal to be tested is received. The first total impedance value is obtained according to the first signal to be tested. The impedance value of the conductive gel is obtained according to the first total impedance value, so as to evaluate the useful lifespan of the conductive gel.
Abstract:
An electrical-stimulation device includes an electrical-stimulation signal-generating circuit, a first connection unit, a first conductive member and a second conductive member. The electrical-stimulation signal-generating circuit has a first channel for providing a first electrical-stimulation signal. The first connection unit has a plurality of first contact points and a plurality of second contact points, wherein the first contact points and the second contact points are alternately arranged. The first conductive member is connected to the first contact points. The second conductive member is connected to the second contact points. The first conductive member and the second conductive member are electrically connected to the first channel, so that the first electrical-stimulation signal is transmitted through the first contact points and the second contact points corresponding to the first channel.
Abstract:
An electronic stimulation device is adapted for electrically stimulating a target zone of an organism. The electronic stimulation device comprises at least one electronic stimulation unit. The electronic stimulation unit includes at least one first electrode and at least one second electrode. The electronic stimulation unit receives an electrical stimulation signal to impel the first electrode and the second electrode to generate an electric field. The range of the electric field covers the target zone, and the electric field strength ranges from 100 V/m to 1000 V/m. The electronic stimulation unit comprises a plurality of subunits and each subunit comprises at least one first electrode and at least one second electrode. An electronic stimulation system and the manufacturing method thereof are also provided.
Abstract:
A waterproof structure for an implanted electronic device is capable of preventing the liquid or moist from entering and damaging the circuit board of the electronic device. The waterproof structure includes a shell, a first material layer, a second material layer, and a third material layer. The first material layer covers at least a part of the implanted electronic device. The second material layer covers the first material layer. The internal space of the shell is configured for accommodating the implanted electronic device. The shell is made of PEEK (polyether ether ketone). The third material layer is disposed between the second material layer and the shell.
Abstract:
A waterproof structure for an implanted electronic device is capable of preventing the liquid or moist from entering and damaging the circuit board of the electronic device. The waterproof structure includes a shell, a first material layer, a second material layer, and a third material layer. The first material layer covers at least a part of the implanted electronic device. The second material layer covers the first material layer. The internal space of the shell is configured for accommodating the implanted electronic device. The shell is made of PEEK (polyether ether ketone). The third material layer is disposed between the second material layer and the shell.
Abstract:
A method for reducing overactive bladder syndrome applied with an electrical stimulation device to electrically stimulate a target zone of an organism suffering from overactive bladder syndrome. The electrical stimulation device comprises at least one electrical stimulation unit. The electrical stimulation unit includes at least one first electrode and at least one second electrode. The method includes the following steps. The electrical stimulation unit is placed near the target zone. The electrical stimulation unit generates an electrical stimulation signal and the electrical stimulation signal is introduced to the target zone so as to stimulate the target zone. An electrical field is generated between the first electrode and the second electrode and covers the target zone. The strength of the electrical field ranges from 100 V/m to 1000 V/m.
Abstract translation:一种减轻膀胱综合征膀胱综合征的方法,其应用电刺激装置以电刺激患有膀胱过度活动症综合征的生物体的靶区。 电刺激装置包括至少一个电刺激单元。 电刺激单元包括至少一个第一电极和至少一个第二电极。 该方法包括以下步骤。 电刺激单元放置在目标区附近。 电刺激单元产生电刺激信号,并将电刺激信号引入目标区域以刺激目标区域。 在第一电极和第二电极之间产生电场并覆盖目标区域。 电场强度范围从100 V / m到1000 V / m。
Abstract:
The implantable medical device is for implantation into a patient's body and is wirelessly powered by an external control device. The implantable medical device is induced by an AC electromagnetic field of the external control device through an inductive coil. A rectifier converts the AC electromagnetic field into a DC current. A detector detects a voltage value of the DC current, and a processor produces a first piece of status information accordingly. A transceiver receives and relays the first piece of status information to the external control device so as to monitor the power consumption of the implantable medical device when it is wirelessly powered.
Abstract:
A housing structure for covering electronic device comprises a housing. The housing comprises a first housing portion and a second housing portion. The first housing portion and the second housing portion are sealed together, and the material of the first housing portion and the second housing portion is polyether ether ketone.
Abstract:
An electrical stimulation method for determining the quality of an electrical-stimulation signal is provided in the invention. The electrical stimulation method is adapted for use in an electrical-stimulation device for performing an electrical stimulation. The electrical stimulation method may include the steps of generating the electrical-stimulation signal; sampling the electrical-stimulation signal; performing a fast Fourier transform on the sampled electrical-stimulation signal; and determining whether the signal quality of the electrical-stimulation signal on which the fast Fourier transform was performed meets a threshold.
Abstract:
An impedance monitoring method is applied to a non-implantable electrical stimulation device including an electrical stimulator and an electrode assembly. The electrical stimulator is detachably electrically connected to the electrode assembly, and stores the impedance values of the electrical stimulator and the electrode assembly. The impedance monitoring method includes the following steps. The electrical stimulator generates an electrical stimulation signal. The electrical stimulation signal performs electrical stimulation of a target area through the electrode assembly. The electrical stimulator samples the electrical stimulation signal to calculate the total impedance value corresponding to the electrical stimulation signal. The electrical stimulator calculates the tissue impedance value according to the total impedance value, the impedance value of the electrical stimulator, and the impedance value of the electrode assembly. The tissue impedance value is used to calculate the energy value corresponding to the electrical stimulation signal transmitted to the target area.