33results about How to "Clear feedback" patented technology

A classification of a container is identified using a mobile station including an image capture device and an RFID reader having a reader antenna. The container has two RFID tags affixed thereto at respective, different locations. Each tag has a directional antenna steered in a different direction, so that a reader location is defined in the intersection of the antenna propagation patterns. Using the image capture device, one or more images of the container are captured. A controller determines, using the captured image data, whether the mobile station is in a candidate reader location. When the mobile station is in the candidate reader location, the RFID reader attempts to read both tags. If both tags are read while the mobile station is in the candidate reader location, the controller determines the classification of the container is a classification corresponding to the candidate reader location.

The invention discloses a method for adjusting soft key parameters of medical equipment, comprising the following steps: detecting the adjustment of the adjustment device to the selected parameter in the soft key area on the display device; calculating the parameter information of the selected parameter according to the detected information and The parameter information is output to a display device for display. In the process of parameter adjustment, the present invention has a clear pattern visual feedback for the parameter adjustment, enabling the operator to quickly and accurately adjust the parameters.

An arrangement (1) for controlling the intensity of a physiologically perceptible effect (e), wherein the arrangement (1) is arranged for controlling the intensity of the effect (e) depending on the time that has passed since the occurrence of at least one predefined event.

The invention discloses an auxiliary paper feeding device for sealing and relates to the field of sealing auxiliary devices. The auxiliary paper feeding device comprises an outer shell, wherein a stepping paper-feeding mechanism is arranged on one side in the outer shell; a stepping paper-discharging mechanism is arranged on the rear side in the outer shell; a sealing platform is arranged on the inner side of the stepping paper-feeding mechanism and the stepping paper-discharging mechanism; the stepping paper-feeding mechanism and the stepping paper-discharging mechanism both include paper-rolling shafts; the paper-rolling shafts are used for supplying power through a stepping motor; the stepping motor is connected with a stepping driver. The auxiliary paper feeding device for sealing can effectively promote the working efficiency of sealing and can supply an efficient and stable working environment for manually distinguishing the sealing positions of different paper sheets.

The present invention proposes a cognitive rehabilitation training system based on a neural network algorithm, including a rehabilitation training layer, a data collection layer, a data grouping layer, a neural network layer and a cognitive feedback layer; the data collection layer will collect limb movement parameters and posture patterns The parameters are sent to the data grouping layer; the data grouping layer includes a data preprocessing component and a data grouping component; the data preprocessing component performs preprocessing on the limb movement parameters and posture mode parameters; the data is grouped and stored after the data grouping component preprocesses; the neural network layer Including an input layer and an output layer; the number of nodes in the input layer is the same as the number of grouping groups obtained by the data grouping component; the output layer is connected to the cognitive feedback layer, based on the feedback of the cognitive feedback layer, in The rehabilitation training feedback results are displayed on the human-computer interaction interface. The present invention realizes the whole-process closed-loop feedback adjustment of cognitive rehabilitation training based on a dynamic neural network model.

A force feedback-type touch panel device is provided which can provide an operator with clearer feedback than that of conventional art by presenting the operator with vibration having a larger vibration amplitude than that of conventional art and can prevent any breakage or damage of a touch panel when an external impact is applied to the touch panel. The touch panel device includes a base member, a touch panel retained by the base member, a cover member formed in a shape covering the touch panel with a hard synthetic resin, and an actuator that causes the cover member to be displaced along the perpendicular direction with respect to a flat surface of the touch panel. The cover member is urged in the direction toward the base member using an attraction force generated between a first magnet fixed on the base member and a second magnet fixed on the cover member.

The invention relates to a strip pack, including a base portion, an actuator, a driving part, a rotating mechanism, a spring, and a cup-shaped retention piece. Inner walls of the base portion are provided with a plurality of internal projections and internal grooves. One end of the driving part is pushed along an axial direction by the actuator, and the other end is provided with a pushing portion. The rotating mechanism comprises internal thread and a projection part. The spring presses the rotating mechanism in an inclined manner. The cup-shaped retention piece comprises a screw rod which ispartially provided with external threads, and a cup-shaped portion. The external threads are joined with internal threads of the rotating mechanism, to make the cup-shaped retention piece move alongan axial direction when the rotating mechanism rotates. The pushing portion of the driving part, the projection part of the rotating mechanism, and the internal projections of the base portion are provided with inclined surfaces. When the actuator is pressed, the projection part of the rotating mechanism is pushed out of the internal groove of the base portion. When the actuator is released, the projection part of the rotating mechanism slides across the pushing portion of the driving part and the internal projections of the base portion, and then the projection part slides into an adjacent internal groove of the base portion, and thus the rotating mechanism rotates. The actuator can be pressed on a side or an end.