238 results about "Motion generation" patented technology

A “Wearable Electromyography-Based Controller” includes a plurality of Electromyography (EMG) sensors and provides a wired or wireless human-computer interface (HCl) for interacting with computing systems and attached devices via electrical signals generated by specific movement of the user's muscles. Following initial automated self-calibration and positional localization processes, measurement and interpretation of muscle generated electrical signals is accomplished by sampling signals from the EMG sensors of the Wearable Electromyography-Based Controller. In operation, the Wearable Electromyography-Based Controller is donned by the user and placed into a coarsely approximate position on the surface of the user's skin. Automated cues or instructions are then provided to the user for fine-tuning placement of the Wearable Electromyography-Based Controller. Examples of Wearable Electromyography-Based Controllers include articles of manufacture, such as an armband, wristwatch, or article of clothing having a plurality of integrated EMG-based sensor nodes and associated electronics.

An electronic device (100) configured to provide a localized haptic response to a user is provided. The electronic device (100) includes an interface assembly (102) having a user interface surface (600) with a display (206) disposed beneath the user interface surface (600). A compliance member, such as a haptic feedback bezel (209) is disposed beneath the display (206). The compliance member includes one or more cantilever members (210) having motion generation devices (402) coupled thereto. Each cantilever member (210) includes an ell (303) that passes about the display (206) and couples to the user interface surface (600). When the motion generation device (402) is actuated, a haptic force is delivered to the user interface surface (600) through the ell (303).

An electronic device (100) is configured to deliver a localized haptic feedback response (101) to a user. The electronic device (100) includes a device housing (107) and an interface assembly having a display lens (202) or other user interface surface and a motion generation device (212) affixed to the interface assembly. A compliance member (204) is disposed between the device housing (107) and the interface assembly. The compliance member (204) suspends the interface assembly from the device housing (107) and permits the interface assembly to physically move relative to the device housing (107) in response to actuation of the motion generation device (212), thereby delivering a localized tactile response to a user.

An electronic device (100) is configured to deliver a localized haptic feedback response (101) to a user. The electronic device (100) includes a device housing (107) and an interface assembly having a display lens (202) or other user interface surface and a motion generation device (212) affixed to the interface assembly. A compliance member (204) is disposed between the device housing (107) and the interface assembly. The compliance member (204) suspends the interface assembly from the device housing (107) and permits the interface assembly to physically move relative to the device housing (107) in response to actuation of the motion generation device (212), thereby delivering a localized tactile response to a user.

A system for generating useful energy from vehicle motion. The system includes: a projection projecting above a road surface, pivotably mounted to the road surface to be pushed downward against an upward bias, by a vehicle tire passing over an upper surface of the projection; a master fluid cylinder mechanically linked to the projection; a fluid transfer device connected to the master fluid cylinder; a secondary fluid cylinder, communicating with the master fluid cylinder via the fluid transfer device; and a lever configured to transfer motion from the secondary fluid cylinder to a flywheel shaft, the flywheel shaft having a distal end coupled to an electric generator.

The invention relates to an exoskeleton walk-assisting robot for old people and a bionic control method for anti-falling gaits. The exoskeleton walk-assisting robot comprises exoskeleton trunk components, joint components, an action control unit, an auxiliary unit and a power supply, wherein the exoskeleton trunk components are connected to a lower body of a user and assist the user to complete stand and walking actions; the joint components are connected with the exoskeleton trunk components and enable the exoskeleton trunk components to bend and stretch; the action control unit is capable of acquiring acceleration and angular speed signals during walking of the robot in real time, processing the signals and generating corresponding motion signals so as to control actions of the exoskeleton trunk components and to finish motion generation and reverse solution; and the power supply provides energy for the whole device. The exoskeleton walk-assisting robot for the old people is compact in structure, good in control effect, capable of acquiring accelerations in three directions and angular speeds in two directions in real time and judging falling states of the exoskeleton walk-assisting robot comprehensively, integrated with a posture reflex mechanism of human bodies and suitable for unknown unstructured complex terrains.

A method and apparatus for generating electric energy from the motion of the waves. The apparatus comprises at least one member which is moved by the motion of the waves. The apparatus also comprises an energy transfer mechanism coupled to the or each member. The energy transfer mechanism converts the kinetic energy from movement of the or each member to potential energy by pressurization of a fluid. The apparatus further comprises a first chamber, arranged to store the pressurized fluid and a conversion means for converting the potential energy stored in the pressurized fluid into electric energy. The apparatus can be arranged such that any substantially vertical displacement of the or each member causes actuation of the or each corresponding energy transfer mechanism.

An electronic device (100) configured to provide a localized haptic response to a user is provided. The electronic device (100) includes an interface assembly (102) having a user interface surface (600) with a display (206) disposed beneath the user interface surface (600). A compliance member, such as a haptic feedback bezel (209) is disposed beneath the display (206). The compliance member includes one or more cantilever members (210) having motion generation devices (402) coupled thereto. Each cantilever member (210) includes an ell (303) that passes about the display (206) and couples to the user interface surface (600). When the motion generation device (402) is actuated, a haptic force is delivered to the user interface surface (600) through the ell (303).

An interface peripheral (101) for delivering haptic feedback includes a plurality of user input elements (107, 108, 109, 110, 111, 112) that can be configured as keys. An engagement layer (222) or mechanical sheet spans two or more of the keys. One or more motion generation components (228, 229) can be coupled to the engagement layer. When a user actuates a key, it translates to close a switch, which can be a membrane switch or force sensing resistive switch. A control module (2105) actuates a motion generation component and the engagement layer (222) engages the actuated key or keys via either compression engagement or translation engagement. A haptic response (617) is delivered to the engaged key via the engagement layer.

In a method for chassis control of a motor vehicle which has at least one wheel suspension, a vehicle body, and a shock absorber having a rebound stage, whose stiffness is adjustable, and a compression stage, whose stiffness is adjustable, the stiffness of the compression stage is changed for a compressive load of the shock absorber generated by a specific vehicle body movement, and the stiffness of the rebound stage is additionally changed for a subsequently following tensile load of the shock absorber generated by the specific vehicle body movement, or the stiffness of the rebound stage is changed for a tensile load of the shock absorber generated by a specific vehicle body movement, and the stiffness of the compression stage is additionally changed for a subsequently following compressive load of the shock absorber generated by the specific vehicle body movement.

An article useful for mechanical skin resurfacing techniques is suitable for transferring mechanical energy from a handheld device to skin placed in contact with the article. The article may be characterized by its Durable Abrasiveness, Compressibility, Displacement, and / or surface roughness. The article may be formed of a fibrous structure having a first major surface having associated therewith an adhesive system and a second major surface, generally opposite the first major surface. The second major surface is arranged and configured to reversibly engage a fastener of a motion-generating unit. The invention also relates to a coupling device for coupling a motorized apparatus to a disposable skin-contactable element. The coupling device includes a water-resistant first attachment and a second attachment for releasably affixing said article to a surface of the motion generation unit.

The vibration capsule device disclosed herein comprises a movement generation unit, a movement control unit, a wireless communication unit and a power supply. The movement control unit provides instructions to the movement generation unit, which generates movements in configurable frequencies and duty cycles. The power supply unit provides power to the movement generation unit through movement control unit, which also decides work period and rest period for the capsule device. The vibration capsule device further comprises a capsule movement detection unit, which comprises at least one sensor unit and provides information to the wireless communication unit.

A dynamics-based motion generation apparatus includes: a dynamics model conversion unit for automatically converting character model data into dynamics model data of a character to be subjected to a dynamics simulation; a dynamics model control unit for modifying the dynamics model data and adding or modifying an environment model; a dynamics motion conversion unit for automatically converting reference motion data of the character, which has been created by using the character model data, into dynamics motion data through the dynamics simulation by referring to the dynamics model data and the environment model; and a motion editing unit for editing the reference motion data to decrease a gap between reference motion data and dynamics motion data. The apparatus further includes a robot motion control unit for controlling a robot by inputting preset torque values to related joint motors of the robot by referring to the dynamics motion data.

The subject invention provides a system and / or a method that facilitates creating an image-based video by automatically applying a motion to an image. A motion component can receive the image and generate a corresponding motion, which can mitigate complications involved with authoring the image-based video. The motion component can apply the motion to the image based at least upon a comparison between an aspect ratio of the image and a resulting video aspect ratio. The comparison can be a numeric difference, wherein the difference can be associated with a category, wherein the category provides the motion to be applied.

A three-dimensional animation system using evolutionary computation includes a gene determination unit and a motion generation unit. The gene determination unit calculates modified gene information by receiving at least one genes and modifying the genes evolutionarily. The motion generation unit receives motion data and modifies the motion data based on the modified gene information. A three-dimensional animation method is also disclosed.

The invention discloses a snakelike motion detection and analysis system of a high-speed-train bogie and a method thereof. The system aims at analyzing the snakelike motion state of the high-speed-train bogie in different environments and different work conditions and reasons for generation of the snakelike motion and effects of the snakelike motion on operation security of the high-speed train. Bogie transverse and longitudinal acceleration signals are acquired through a transverse two-dimension acceleration sensor and a longitudinal two-dimension acceleration sensor, which are arranged on the bogie of the system and storage of characteristic data is performed through filtering of the signals by a real-time data acquisition controller and the analysis result and trend are transmitted to a train display terminal through a train transmission network. Therefore, long-term tracking and trend analysis of the bogie transverse and longitudinal data are realized and occurred faults of the bogie are monitored and alarmed in a real-time manner.

A new form of input arrangement for cursor control devices or other handheld electronic devices in which the activation surfaces are designed to allow the fingers and thumb of the user to effect commands by means of non-repetitive motion as compared to current devices. Specifically, sensors are associated with the fingers and thumb which sense motion in not only the downward direction, as generally used in current devices, but also in forward backward and side directions to carry out a command. The resulting ability of the user to vary the points of pressure and other stresses onto different surfaces of the digits and corresponding nerves and muscles serves to relieve discomfort and pain resulting from current devices. A keyboard on the rear wall of a handheld electronic alleviates the overuse and damage to the thumbs and associated nerves and muscles attendant to current methods and apparatus for data entry. The arrangement includes extension of the keyboard to the back of the device so that both the thumbs and fingers may be utilized in entering data. This arrangement may incorporate the same type of individual key input for each finger as was disclosed above for use in the cursor control. The essence of such an arrangement includes the provision of positioning input sensors or switches in such a way relative to each finger and thumb that several keys may be activated by movement of the finger in various directions, more specifically as shown and described. This may allow different motions to produce a common input or command to thereby distribute the stress attendant to executing an input / command over different digits or the same digit in a different way. Alternatively, by permitting small but differently directed motions to be detected from a singe digit, the arrangement permits an enhanced efficiency for entering commands and data in a hand held electronic device.

A motion estimator and motion extracting method are provided for dividing a current frame into a plurality of blocks and estimating a motion comparing a current block with a previous frame. The motion estimator includes a mean motion estimation unit for computing a mean motion vector based on motion vectors of surrounding blocks adjacent to the current block, a line motion generation unit for generating a line motion vector in a predetermined search area based on motion vectors of horizontal blocks of the current block, and a motion vector selection unit for selecting and outputting one of the mean motion vector and the line motion vector as a final motion vector of the current block based on a mean motion expectation error value in accordance with the mean motion vector and a line motion expectation error value in accordance with the line motion vector.

A music recognition method based on harmonic features and a motion generation method for a mobile robot. The music recognition method preferably includes: extracting harmonic peaks from an audio signal of an input song; computing a harmonic feature related to the average of distances between extracted harmonic peaks; and recognizing the input song by harmonic component analysis based on the computed harmonic feature. The motion generation method for a mobile robot includes: extracting a musical feature from an audio signal of an input song; generating an initial musical score after identifying the input song on the basis of the extracted musical feature; generating a final musical score by synchronizing the initial musical score and musical feature together; and generating robot motions or a motion script file by matching a motion pattern of the mobile robot with the final musical score.

A controller including a first control member and a second control member that extends from a portion of the first control member. A controller processor is operable to produce a rotational movement output signal in response to movement of the first control member, and a translational movement output signal in response to movement of the second control member relative to the first control member. The first control member may be gripped and moved using a single hand, and the second control member may be moved using the thumb of the single hand.

The invention discloses a macro and micro dual-driving precise wedged feeding worktable and a motion generation method, and belongs to the field of numerical control processing. The worktable adopts a dual-driving mode of linear motors and piezoelectric transducers, and comprises X-direction and Y-direction linear motors, X-direction and Y-direction reading heads, grating rulers, wedged blocks, a moving plate, a Y-direction slide block, a worktable panel, a connecting plate, the piezoelectric transducers, support rods and a clamping worktable. The X-direction linear motor drives the wedged blocks to move to separatelygenerate X-direction and Z-direction precise high-travel motions; the Y-direction linear motor generates a Y-direction precise high-travel motion; and the piezoelectric transducers drive a parallel flexible hinge structure on the working panel to generate precise micro-travel motions in X, Y and Z directions and micro-rotation around X and Y directions. The worktable can be used for installing workpiecesorcutter devicesto generate precise feeding motions, is fast in response, high in precision, high in travel and high in displacement resolution, and can be directly integrated with a numerical control machine tool for auxiliary precise processing.

The invention relates to a method for realizing an identifying code. The method comprises the following steps: when a user access request from a terminal is received, sending a request by a server for inputting the identifying code to the terminal; after the terminal receives the request for inputting the identifying code, obtaining a movement mode signal generated from movement of a gravity sensing module, responding to the terminal, in the terminal; taking the movement mode signal as the indentifying code, and sending the movement mode signal to the server; analyzing the movement mode signal by the server to obtain an actual movement mode of the terminal; and judging if the indentifying code is right according to the actual movement mode of the terminal. The invention also provides a device and system for realizing the indentifying code. By using the method, device and system, the user experience requirement is satisfied, and safety of the indentifying code is ensured.

A motion generation device may be for generating a movement for changing the robot from a first orientation to a second orientation, and include a first acquisition unit that acquires first orientation information that specifies the first orientation and second orientation information that specifies the second orientation, a second acquisition unit that acquires at least one priority item regarding the movement for changing from the first orientation to the second orientation, and a movement generation unit that generates a motion of the robot that includes a movement path along which the robot moves from the first orientation to the second orientation, based on the first orientation information, the second orientation information, and the priority item that were acquired.

The invention relates to a test method for a pneumatic characteristic of a wing of a combined type multi-component ornithopter, and belongs to the technical field of ornithopter performance test. A pneumatic characteristic integrated measuring platform and an ornithopter wing motion generation mechanism are included, and are connected via a flexible link rod. Force values measured by force measuring sensors in different measuring orientations are used to solve a 3D pneumatic force and a 3D pneumatic moment via certain mathematic model. A single-component cantilever beam force measuring sensorserves as the core, the test method for the pneumatic characteristic of the wing of the combined type multi-component ornithopter is provided, a force measuring device is simple in structure, low in cost of key parts and high in measurability. Multiple single-component cantilever beam force measuring sensors are combined according to certain measuring principles, the sensors are combined to improve the applicability of the test device and method effectively, a measuring scope can be expanded according to the force measuring scope of the single-component cantilever beam force measuring sensors,and measuring requiremtns of different occasions can be met.

An article useful for mechanical skin resurfacing techniques is suitable for transferring mechanical energy from a handheld device to skin placed in contact with the article. The article may be characterized by its Durable Abrasiveness, Compressibility, Displacement, and / or surface roughness. The article may be formed of a fibrous structure having a first major surface having associated therewith an adhesive system and a second major surface, generally opposite the first major surface. The second major surface is arranged and configured to reversibly engage a fastener of a motion-generating unit. The invention also relates to a coupling device for coupling a motorized apparatus to a disposable skin-contactable element. The coupling device includes a water-resistant first attachment and a second attachment for releasably affixing said article to a surface of the motion generation unit.

A device for generating sounds associated with movements of animals, the device comprising a movable member operatively associated with a motion generation system and configured to be set in a desired motion by the motion generation system, and an extension assembly operatively associated with the movable member so as to cause contact with a desired contact medium to generate sounds that mimic sounds associated with movements of animals.

The invention relates to a motion artifact correction method and device, computer equipment and a readable storage medium. The method comprises the steps of obtaining a to-be-corrected image; inputting the to-be-corrected image into a trained target neural network model to obtain a corrected image, the target neural network model being a neural network model obtained by training according to an image with motion artifact and an image without motion artifact. The image with the motion artifact is an image obtained by performing motion simulation on the image without the motion artifact. According to the motion artifact correction method provided by the invention, the image without the motion artifact is used as the gold standard of the network, the real motion of the human body is forwardlysimulated on the image without the motion artifact, and the generated motion artifact image is used as the input of the network to train the network. Since the motion simulation of the motion artifact-free image is established on the basis of the real motion of the human body, the obtained motion artifact-containing image better conforms to the real scene, the trained neural network model is morestable, and the motion artifact correction effect is improved.