9 results about "Electric sense" patented technology

The invention relates to the technical field of ultrasonic medical instruments, and discloses a wide-area closed-loop control transcranial ultrasonic stimulation system, which comprises an ultrasonic circuit and an ultrasonic transducer, and is characterized in that the ultrasonic circuit is composed of a power supply, a main control circuit, an ultrasonic driving circuit, a matching circuit and a sampling circuit; the power supply is used for adjusting a direct-current input voltage value of the ultrasonic driving circuit according to a control signal of the main control circuit; the matching circuit is used for adjusting a matching inductance value connected in series into the circuit; the sampling circuit is used for sampling and measuring the direct-current input voltage value of the ultrasonic driving circuit and the output voltage applied to the two ends of the ultrasonic transducer. According to the transcranial ultrasonic stimulation system, the output of the ultrasonic transducer can be adjusted in a wide sound intensity range, so that the system can adapt to more application scenes; and meanwhile, the required sound intensity is automatically adjusted by adopting a closed-loop algorithm, so that preset parameters are reduced, the adaptability of an ultrasonic circuit and an ultrasonic transducer is wider, and the use cost is lower.

A device control system applied to intelligent clothes comprises a clothes body, a main control device arranged on the clothes body and a sensing device, the sensing device comprises an inertia sensor, a myoelectricity sensor and a myoelectricity stimulation device, the sensing device can generate inertia sensing information and myoelectricity sensing information, and the inertia sensing information and the myoelectricity sensing information are transmitted to the main control device. The main control device can continuously transmit packet information to the sensing device and start the electromyographic stimulation device to discharge according to a discharge instruction, the sensing device judges whether the discharge instruction is not received for a plurality of continuous periods, and if the discharge instruction is not received for a plurality of continuous periods, the electromyographic stimulation device starts the electromyographic stimulation device to discharge the electromyographic stimulation device, the electromyographic stimulation device starts the electromyographic stimulation device to discharge the electromyographic stimulation device, and the electromyographic stimulation device starts the electromyographic stimulation device to discharge the electromyographic stimulation device. If yes, the action of the electromyographic stimulation device is forcibly stopped.

A package includes a functional chip configured to provide an electric function involving an electric current, and a sense chip configured to provide an electric sense signal which characterizes the electric current. The functional chip and the sense chip are physically separate chips.

This invention relates to a neuromuscular electrical stimulation circuit and a portable electrical stimulation therapy device. In this circuit, the first output terminal of a microcontroller 10 is connected to the base of transistor Q1. The collector of transistor Q1 is connected to the positive terminal of a power supply battery BT1 via an inductor L1. The emitter of transistor Q1 is grounded. The collector of transistor Q1 is connected to the emitter of transistor Q2. The collector of transistor Q2 is connected to the first terminal of an electrode plate 20 via a capacitor C3. The second output terminal of the microcontroller 10 is connected to the emitter of transistor Q3 via a resistor R4. The base of transistor Q3 is connected to the positive terminal of the power supply battery BT1. The collector of transistor Q3 is connected to the base of transistor Q2. The neuromuscular electrical stimulation circuit of this invention has a simple structure and uses battery power, which can greatly reduce the size of the therapy device and make it easy to carry. Furthermore, this invention allows adjustment of the pulse amplitude, pulse width, and pulse frequency according to user needs, meeting the requirements of different users.

The embodiment of the invention provides a myoelectricity sensor, a myoelectricity sensor module and a myoelectricity sensor device, and relates to the field of electronic devices. In the myoelectricity sensor, a flexible substrate, a device layer, a circuit layer and an electrode layer are stacked, the device layer comprises at least one signal processing device, the electrode layer comprises at least one sensing electrode, and the sensing electrode and the signal processing device are connected through a signal wire to form a myoelectricity sensing unit. Orthographic projections of the sensing electrode and the signal processing device on the flexible substrate are arranged in a staggered manner. According to the design, the flexible substrate is adopted to bear other film layers of the myoelectricity sensor, so that the flexibility of the myoelectricity sensor can be improved, the myoelectricity sensor can be well attached to the skin of a user during use, foreign body sensation generated during attachment is reduced, and the use experience of the user is improved; and the sensing precision reduction caused by the too close distance between the myoelectricity sensor and the sensor can be avoided, and the myoelectricity sensor is ensured to have high detection precision.

The invention discloses a brain-computer fused personalized local temperature control system and a brain-computer fused personalized local temperature control method. The method comprises the following steps: setting a mode through a user interface, acquiring human-based data such as electroencephalogram signals, heart rate variability, respiratory rate and skin resistance by a human body bioelectricity sensing module, and determining key parameters of a temperature control mode in combination with air and skin temperature information acquired by a temperature sensing module; judging to adopt an air supply or heating mode according to the information, wherein the air supply or heating mode comprises a constant or intelligent dynamic adjustment mode; in the intelligent mode, key indexes including cognitive ability indexes such as an attention index, an LF / HF ratio and a thermal pleasure index are calculated and optimized to dynamically adjust heating or air supply parameters, and personalized comfort adjustment is achieved. By implementing the method, local heating and local cooling can be achieved, the heating or cooling mode can be automatically adjusted according to real-time physiological feedback of different people, the optimal thermal pleasure state is achieved, and the working efficiency is further improved.

A patient interface assembly includes a headgear, a nasal interface, and an electrical sensing device. The nasal interface includes a main portion between a first lateral portion and a second lateral portion, and at least one nasal delivery element extending from the main portion. The nasal interface is held by the headband, wherein the first lateral portion and the second lateral portion are held by the headband. The electrical sensing device is used for detecting electrical activity of a patient to monitor the depth of anesthesia of the patient. The inductive sensing device includes two or more inductive sensing elements distributed over one or both of the headband and the nasal interface.

An upper limb wearable device includes an elbow fitting, an upper arm fitting extending from one end of the elbow fitting, an upper arm strap movably connected to the upper arm fitting, a lower arm fitting extending from the other end of the elbow fitting, a lower arm strap movably connected to the lower arm fitting, a wrist strap extending from one end of the lower arm fitting, and position-adjustable upper arm electromyography sensing modules and lower arm electromyography sensing modules. After the upper limb wearable device is worn on the upper limb of a user, first and second differential electrode assemblies of the upper arm electromyography sensing modules are respectively located on a pair of upper arm antagonistic muscles, and third and fourth differential electrode assemblies of the lower arm electromyography sensing modules are respectively located on a pair of lower arm antagonistic muscles. The upper limb wearable device enables the user to adjust the positions of the electromyography sensors by himself, so that the electromyography sensors can be arranged at correct positions, and thus the accuracy of motion analysis is improved.