Abstract: An anchor for a lead is provided, including a protecting member, a fixed member, and a rotating member. The protecting member has an accommodating slot, a first through hole, and a second through hole. The accommodating slot is disposed between the first through hole and the second through hole, and is communicated with the first through hole and the second through hole. The fixed member is disposed in the accommodating slot and includes a depression structure. The rotating member is pivotally connected to the fixed member, and includes a contacting portion. When the lead passes through the first through hole, the depression structure, and the second through hole, the rotating member is enabled to rotate relative to the fixed member to let the contacting portion be accommodated in the depression structure and compress the lead.

Abstract: An electrical stimulation method is provided in the present disclosure. The electrical stimulation method is applied to an electrical stimulation device. The electrical stimulation method includes the steps of using the electrical stimulation device to obtain an electrical stimulation level, wherein the electrical stimulation level corresponds to the target energy; and using the electrical stimulation device to perform the electrical stimulation on the target area of a target object according to the target energy, wherein during the electrical stimulation, all electrodes of the electrical stimulation device are activated.

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 electrical stimulation device includes an electrical stimulation signal generating circuit. The electrical stimulation signal generating circuit has a first channel for providing a first electrical stimulation signal and a second channel for providing a second electrical-stimulation signal.

Abstract: Provided is a method and system of evaluating a constellation spare strategy based on a stochastic time Petri net, which is applied in the technical field of constellation operation management. The method comprises: constructing a single satellite STPN model and an orbital plane STPN model, and establishing a navigation constellation STPN model that includes multiple spare strategies according to the single satellite STPN model and the orbital plane STPN model; establishing an availability model according to the number of malfunctioning satellites and the constellation value (CV) in the navigation constellation STPN model, and establishing a cost model according to operating costs of the navigation constellation STPN model; and evaluating the navigation constellation STPN model using the availability model and the cost model, and determining a target spare strategy from the multiple spare strategies according to an evaluation result.

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: A nerve electrical stimulation device includes an electrical stimulator and a magnetic electrode assembly. The electrical stimulator includes a housing, a circuit board, two first electrical connecting elements and a first magnetic unit. One end of each first electrical connecting element is connected to the circuit board. The magnetic electrode assembly includes a main body, two electrodes, a second magnetic unit and two second electrical connecting elements. The electrodes are disposed on a surface of the main body, and connected to the circuit board. The second magnetic unit is located corresponding to the first magnetic unit. The second electrical connecting elements pass through the main body and connected to the electrodes and the other ends of the first electrical connecting elements, respectively. The magnetic electrode assembly is detachably positioned at one side of the electrical stimulator by a magnetic attraction of the first and second electrical connecting elements.

Abstract: The desensitizing device contains an electrical stimulation member optionally configured on a support member. The electrical stimulation member contains a control circuit and at least two electrodes. The control circuit generates a stimulating current to the electrodes. By configuring the electrodes contacted with the skin, the stimulating signal produced by the control circuit is conducted to the electrodes and provides a subcutaneous nerve stimulation through the skin. The subcutaneous nerve is as such temporarily numbed and desensitized.

Abstract: The desensitizing device contains an electrical stimulation member optionally configured on a support member. The electrical stimulation member contains a control circuit and at least two electrodes. The control circuit generates a stimulating current to the electrodes. By configuring the electrodes contacted with the skin, the stimulating signal produced by the control circuit is conducted to the electrodes and provides a subcutaneous nerve stimulation through the skin. The subcutaneous nerve is as such temporarily numbed and desensitized.

Abstract: A combined through-hole processing machine includes a working bed provided with two opposite and parallel slide rails on it. A deep-hole processing mechanism is provided on the working bed and includes a pair of sub-spindle heads used to clamp a deep-hole tool respectively to conduct the deep-hole processing on workpiece. A U axis feed unit is provided between the two slide rails and used to provide the feed for the movement in the long axis direction parallel to the two slide rails. A deburring mechanism is provided on the working bed and located at one end side of the deep-hole processing mechanism, which includes the corresponding two chucks and two tailstocks where the chucks are used to clamp the workpiece with the deep-hole processing already fulfilled on the deep-hole processing mechanism respectively and the tailstocks are provided to arrange the deburring tools respectively to conduct the deep-hole deburring action.

Abstract: A nerve electrical stimulation device includes an electrical stimulator and a magnetic electrode assembly. The electrical stimulator includes a housing, a circuit board, two first electrical connecting elements and a first magnetic unit. One end of each first electrical connecting element is connected to the circuit board. The magnetic electrode assembly includes a main body, two electrodes, a second magnetic unit and two second electrical connecting elements. The electrodes are disposed on a surface of the main body, and connected to the circuit board. The second magnetic unit is located corresponding to the first magnetic unit. The second electrical connecting elements pass through the main body and connected to the electrodes and the other ends of the first electrical connecting elements, respectively. The magnetic electrode assembly is detachably positioned at one side of the electrical stimulator by a magnetic attraction of the first and second electrical connecting elements.

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 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 case structure for accommodating a circuit board of an implantable electronic device includes a housing and a lid body. The housing has a plate portion, a wall portion and an opening. One end of the wall portion connects to the periphery of the plate portion, and the other end of the wall portion defines the opening. The periphery of the plate body is sealed with the other end of the wall portion. Accordingly, the plate body and the housing together form an airtight space for accommodating the circuit board.

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: The desensitizing device contains an electrical stimulation member optionally configured on a support member. The electrical stimulation member contains a control circuit and at least two electrodes. The control circuit generates a stimulating current to the electrodes. By configuring the electrodes contacted with the skin, the stimulating signal produced by the control circuit is conducted to the electrodes and provides a subcutaneous nerve stimulation through the skin. The subcutaneous nerve is as such temporarily numbed and desensitized.

Abstract: The desensitizing device contains an electrical stimulation member optionally configured on a support member. The electrical stimulation member contains a control circuit and at least two electrodes. The control circuit generates a stimulating current to the electrodes. By configuring the electrodes contacted with the skin, the stimulating signal produced by the control circuit is conducted to the electrodes and provides a subcutaneous nerve stimulation through the skin. The subcutaneous nerve is as such temporarily numbed and desensitized.