mhurhangee/ep-ind-claims huggingface dataset:
A stirring device for stirring a stirring object having fluidity comprising: a stirred tank, of which an inner peripheral wall has a circular shape in cross section; at least one flow impeller and at least one shearing impeller that are located inside the stirred tank and configured to be rotatable independently of each other; and an inner impeller located on an inner side of the flow impeller in the stirred tank, wherein rotational centers of the flow impeller and the shearing impeller are coaxially provided, a rotational center of the inner impeller is provided coaxially with rotational centers of the flow impeller and the shearing impeller, the flow impeller is provided along the inner peripheral wall of the stirred tank and rotates around a vertical axis to form at least a flow directed toward a lower side in a stirring object existing in the stirred tank, and the shearing impeller imparts a shearing force to the stirring object by rotation, and is provided on a radially inward side of the flow impeller in the stirred tank and on a position contacting the flow of the stirring object formed by the flow impeller, characterized in that the inner impeller is configured to rotate in a direction opposite to the flow impeller, or to rotate in the same direction at a different rotational speed. a stirred tank, of which an inner peripheral wall has a circular shape in cross section; at least one flow impeller and at least one shearing impeller that are located inside the stirred tank and configured to be rotatable independently of each other; and an inner impeller located on an inner side of the flow impeller in the stirred tank, wherein rotational centers of the flow impeller and the shearing impeller are coaxially provided, a rotational center of the inner impeller is provided coaxially with rotational centers of the flow impeller and the shearing impeller, the flow impeller is provided along the inner peripheral wall of the stirred tank and rotates around a vertical axis to form at least a flow directed toward a lower side in a stirring object existing in the stirred tank, and the shearing impeller imparts a shearing force to the stirring object by rotation, and is provided on a radially inward side of the flow impeller in the stirred tank and on a position contacting the flow of the stirring object formed by the flow impeller, characterized in that the inner impeller is configured to rotate in a direction opposite to the flow impeller, or to rotate in the same direction at a different rotational speed.
A display, comprising: an array of organic light-emitting diodes; a thin-film encapsulation layer that encapsulates the organic light-emitting diodes; capacitive touch sensor electrodes on the thin-film encapsulation layer that are configured to serve as touch sensor sense lines; display driver circuitry; touch sensor control circuitry; control lines coupled to the touch sensor control circuitry and the display driver circuitry, the control lines configured to: convey display signals between the display driver circuitry and the array of organic light-emitting diodes; and serve as touch sensor drive lines, wherein at least some of the thin-film encapsulation layer is interposed between the control lines and the capacitive touch sensor electrodes; and a patterned black masking layer having clear openings that are aligned with the array of organic light-emitting diodes, wherein the touch sensor sense lines comprise conductive lines that are covered by the patterned black masking layer. an array of organic light-emitting diodes; a thin-film encapsulation layer that encapsulates the organic light-emitting diodes; capacitive touch sensor electrodes on the thin-film encapsulation layer that are configured to serve as touch sensor sense lines; display driver circuitry; touch sensor control circuitry; control lines coupled to the touch sensor control circuitry and the display driver circuitry, the control lines configured to: convey display signals between the display driver circuitry and the array of organic light-emitting diodes; and serve as touch sensor drive lines, wherein at least some of the thin-film encapsulation layer is interposed between the control lines and the capacitive touch sensor electrodes; and convey display signals between the display driver circuitry and the array of organic light-emitting diodes; and serve as touch sensor drive lines, wherein at least some of the thin-film encapsulation layer is interposed between the control lines and the capacitive touch sensor electrodes; and a patterned black masking layer having clear openings that are aligned with the array of organic light-emitting diodes, wherein the touch sensor sense lines comprise conductive lines that are covered by the patterned black masking layer.
A thin-film transistor array substrate, comprising: a substrate; a gate electrode on the substrate; an active layer comprising a first active layer and a second active layer, wherein the first active layer opposes the gate electrode and comprises a semiconductor material and a carbon allotrope, and wherein the second active layer is in contact with the first active layer and comprises a semiconductor material and a carbon allotrope, and wherein the content ratio of the carbon allotrope in the first active layer is higher than the content ratio of the carbon allotrope in the second active layer; and wherein the first active layer is between the gate electrode and the second active layer; a gate insulating film between the gate electrode and the active layer; and a source electrode and a drain electrode in contact with the active layer. a substrate; a gate electrode on the substrate; an active layer comprising a first active layer and a second active layer, wherein the first active layer opposes the gate electrode and comprises a semiconductor material and a carbon allotrope, and wherein the second active layer is in contact with the first active layer and comprises a semiconductor material and a carbon allotrope, and wherein the content ratio of the carbon allotrope in the first active layer is higher than the content ratio of the carbon allotrope in the second active layer; and wherein the first active layer is between the gate electrode and the second active layer; a gate insulating film between the gate electrode and the active layer; and a source electrode and a drain electrode in contact with the active layer.
A composition comprising a delayed-, sustained-release oral pharmaceutical formulation comprising cholecalciferol and ergocalciferol dispersed within a solid, semi-solid, or liquid matrix, said matrix encased with an enteric coating, wherein the formulation delays substantial release of the cholecalciferol and ergocalciferol until the dosage form reaches the ileum of a patient.
Insulated metal substrate for a power semiconductor device comprising - a metal base, - a dielectric layer arranged on the metal base, - an electrically conductive layer arranged on the dielectric layer, and - a reinforcement structure, wherein - the reinforcement structure is arranged in a peripheral region of the insulated metal substrate at least partially surrounding a central region of the insulated metal substrate, - the reinforcement structure does not protrude beyond the metal base in lateral directions, and - the reinforcement structure consists of a metal. - a metal base, - a dielectric layer arranged on the metal base, - an electrically conductive layer arranged on the dielectric layer, and - a reinforcement structure, wherein - the reinforcement structure is arranged in a peripheral region of the insulated metal substrate at least partially surrounding a central region of the insulated metal substrate, - the reinforcement structure does not protrude beyond the metal base in lateral directions, and - the reinforcement structure consists of a metal.
A sewable thermoplastic elastomer artificial leather, comprising a base fabric layer and a thermoplastic elastomer surface layer, the base fabric layer comprising a number of yarns, wherein the yarn has a base body and hairs extending from the base body into the thermoplastic elastomer surface layer, the yarn comprises long filaments and short fiber yarns which are joined together by twisting, and based on the total number of the long filaments and the short fiber yarns, the yarn contains the short fiber yarns in a proportion of 30% - 60%.
An optical receiver, comprising an optoelectronic detector, a transimpedance amplification circuit, a single-ended-to-differential converter, an I/O interface, and a controller, wherein the optoelectronic detector is configured to convert a received optical signal into a current signal, wherein bandwidth of the optoelectronic detector is lower than a system transmission bandwidth requirement; the transimpedance amplification circuit is configured to: receive the current signal and a first control signal, and perform transimpedance gain on the current signal based on the first control signal, to obtain a voltage signal, wherein a frequency response value of the current signal within first bandwidth is greater than that within the bandwidth of the optoelectronic detector, and any frequency in the first bandwidth is not lower than an upper cut-off frequency of the optoelectronic detector; the single-ended-to-differential converter is configured to: convert the voltage signal into a differential voltage signal, and send the differential voltage signal to the I/O interface and the controller; the I/O interface is configured to output the differential voltage signal; and the controller is configured to: generate the first control signal based on the differential voltage signal, and send the first control signal to the transimpedance amplification circuit, wherein the first control signal is used to control the transimpedance amplification circuit to perform transimpedance gain on the current signal.
Sole element for a shoe, wherein the sole element comprises: a. a first portion (110; 210; 310) and a second portion (120; 220; 320); b. wherein the second portion comprises a deformable material (121; 221; 321) which is adapted to generate heat by being deformed; c. a transport element (130; 230; 330) adapted for selectively directing the generated heat from the second portion to the first portion. a. a first portion (110; 210; 310) and a second portion (120; 220; 320); b. wherein the second portion comprises a deformable material (121; 221; 321) which is adapted to generate heat by being deformed; c. a transport element (130; 230; 330) adapted for selectively directing the generated heat from the second portion to the first portion.
A method for the controlled and automatic tensioning of bolts pre-installed in a flange joint between a hub and a main shaft in a nacelle of a wind turbine, the method comprising - arranging a fixture inside the nacelle and stationary relative to the nacelle; - mounting a bolt tensioning tool to the fixture, wherein the bolt tensioning tool is mounted movable in an axial direction along a direction of the main shaft axis, and movable in a working area perpendicularly to the axial direction; - arranging a control unit to control a rotation of the flange joint, the moving of the bolt tensioning tool, and the application of tension by the bolt tensioning tool; - rotating the flange joint to position a first set of bolts within the working area of the bolt tensioning tool; and - tensioning bolts by alternately moving the tensioning tool into a position for tensioning a bolt of the first set of bolts and tensioning the bolt, until all bolts of the first set of bolts have been tensioned. - arranging a fixture inside the nacelle and stationary relative to the nacelle; - mounting a bolt tensioning tool to the fixture, wherein the bolt tensioning tool is mounted movable in an axial direction along a direction of the main shaft axis, and movable in a working area perpendicularly to the axial direction; - arranging a control unit to control a rotation of the flange joint, the moving of the bolt tensioning tool, and the application of tension by the bolt tensioning tool; - rotating the flange joint to position a first set of bolts within the working area of the bolt tensioning tool; and - tensioning bolts by alternately moving the tensioning tool into a position for tensioning a bolt of the first set of bolts and tensioning the bolt, until all bolts of the first set of bolts have been tensioned.
A method for demodulating data performed by a device for demodulating data, the method comprising: • determining a signal to interference and noise ratio, SINR, for each of M paths of data, wherein the data are received from a transmitter having M transmit antennas, M being a positive integer, and each of the M paths corresponds to one of the transmit antennas; • determining a modulation manner corresponding to the SINR for each path of data according to signal to noise ratio SNR thresholds corresponding to modulation manners of different orders, and an SINR for each path of data; • selecting a minimum SINR from all SINRs, determining a number of bits modulated in a modulation manner corresponding to the minimum SINR as a number of reliable bits of each path of data, and determining the modulation manner corresponding to the minimum SINR as the modulation manner for demodulating the reliable bits of each path of data; (step 210); • demodulating the reliable bits of each path of data according to the determined modulation manner (step 220); and • demodulating residual bits in each path of data except the reliable bits according to a maximal likelihood ML algorithm (step 230). • determining a signal to interference and noise ratio, SINR, for each of M paths of data, wherein the data are received from a transmitter having M transmit antennas, M being a positive integer, and each of the M paths corresponds to one of the transmit antennas; • determining a modulation manner corresponding to the SINR for each path of data according to signal to noise ratio SNR thresholds corresponding to modulation manners of different orders, and an SINR for each path of data; • selecting a minimum SINR from all SINRs, determining a number of bits modulated in a modulation manner corresponding to the minimum SINR as a number of reliable bits of each path of data, and determining the modulation manner corresponding to the minimum SINR as the modulation manner for demodulating the reliable bits of each path of data; (step 210); • demodulating the reliable bits of each path of data according to the determined modulation manner (step 220); and • demodulating residual bits in each path of data except the reliable bits according to a maximal likelihood ML algorithm (step 230).
A pharmaceutical composition comprising a compound of the formula or a salt thereof or hydrate of the foregoing; and a cyclodextrin, wherein R is selected from the group consisting of phenyl, 4-benzyloxyphenyl, 4-biphenyl, 4-methoxyphenyl, 3-methoxyphenyl, 2-methoxyphenyl, 3,5-dimethoxyphenyl, 4-chlorophenyl, 3-chlorophenyl, 2-chlorophenyl, 4-methylphenyl, 3-methylphenyl, 2-methylphenyl, and 3-trifluoromethylphenyl.
A bag comprising: a main compartment having at least a base wall, a first side wall, and a second side wall and divided into at least a first storage area and a second storage area; a ball bag affixed to the base wall, the first side wall, the second side wall, or a combination thereof, and stowable in the second storage area; a first shoe storage area positioned external to the main compartment; a second shoe storage area positioned external to the main compartment; a dividing wall that attaches to the first side wall and to the second side wall and that at least partially separates the first storage area from the second storage area; and an end wall that is attached to the base wall and that releasably attaches to the first side wall, the second side wall, or a combination thereof, and wherein the second storage area is at least partially defined by the end wall and the dividing wall; wherein the end wall is integrally formed with the base wall and includes a first zipper mechanism for attachment to the first side wall and a second zipper mechanism for attachment to the second side wall, and wherein the first zipper mechanism and the second zipper mechanism meet at an intersection with a third zipper mechanism, which connects the first side wall to the second side wall. a main compartment having at least a base wall, a first side wall, and a second side wall and divided into at least a first storage area and a second storage area; a ball bag affixed to the base wall, the first side wall, the second side wall, or a combination thereof, and stowable in the second storage area; a first shoe storage area positioned external to the main compartment; a second shoe storage area positioned external to the main compartment; a dividing wall that attaches to the first side wall and to the second side wall and that at least partially separates the first storage area from the second storage area; and an end wall that is attached to the base wall and that releasably attaches to the first side wall, the second side wall, or a combination thereof, and wherein the second storage area is at least partially defined by the end wall and the dividing wall; wherein the end wall is integrally formed with the base wall and includes a first zipper mechanism for attachment to the first side wall and a second zipper mechanism for attachment to the second side wall, and wherein the first zipper mechanism and the second zipper mechanism meet at an intersection with a third zipper mechanism, which connects the first side wall to the second side wall.
A materials handling vehicle comprising a materials handling mechanism, a drive mechanism, a battery receiving space, and a removable battery assembly, wherein: the materials handling mechanism is configured to engage goods in a warehouse environment and cooperates with the drive mechanism, under power from the removable battery assembly, to move goods along an inventory transit surface in the warehouse environment; the removable battery assembly and the battery receiving space cooperate to define a battery insertion and removal axis along which the removable battery assembly is inserted into and removed from the battery receiving space; and the removable battery assembly comprises lateral battery faces (202A, 202B), each comprising a longitudinal guide structure (204A, 204B) that is oriented along the battery insertion and removal axis; characterized in that: the battery receiving space comprises opposing retention blocks (260A, 260B), each arranged on opposite sides of the battery receiving space, and each comprising a retention lever (262A, 262B) comprising a fixed end (264A, 264B) and a distal end (266A, 266B); and the longitudinal guide structure (204A, 204B) of each lateral battery face (202A, 202B) comprises a lever-receiving detent that is configured to receive the distal end (266A, 266B) of one of the retention levers (262A, 262B), with the removable battery assembly seated in the battery receiving space. the materials handling mechanism is configured to engage goods in a warehouse environment and cooperates with the drive mechanism, under power from the removable battery assembly, to move goods along an inventory transit surface in the warehouse environment; the removable battery assembly and the battery receiving space cooperate to define a battery insertion and removal axis along which the removable battery assembly is inserted into and removed from the battery receiving space; and the removable battery assembly comprises lateral battery faces (202A, 202B), each comprising a longitudinal guide structure (204A, 204B) that is oriented along the battery insertion and removal axis; the battery receiving space comprises opposing retention blocks (260A, 260B), each arranged on opposite sides of the battery receiving space, and each comprising a retention lever (262A, 262B) comprising a fixed end (264A, 264B) and a distal end (266A, 266B); and the longitudinal guide structure (204A, 204B) of each lateral battery face (202A, 202B) comprises a lever-receiving detent that is configured to receive the distal end (266A, 266B) of one of the retention levers (262A, 262B), with the removable battery assembly seated in the battery receiving space.
A method for manufacturing a handle for a hand tool, the handle comprising a body portion and one or more surface portions provided at least partly on the body portion, characterized by comprising: a) fabricating the surface portion and setting it in a mould cavity of a mould (6, 10); and b) casting melt mass into the mould cavity for providing the body portion that constitutes a shaft of an axe, a spade, a pair of secateurs, a rake or the like garden tool such that the melt mass flows underneath the surface portion and the surface portion is pressed against a wall of the mould cavity. a) fabricating the surface portion and setting it in a mould cavity of a mould (6, 10); and b) casting melt mass into the mould cavity for providing the body portion that constitutes a shaft of an axe, a spade, a pair of secateurs, a rake or the like garden tool such that the melt mass flows underneath the surface portion and the surface portion is pressed against a wall of the mould cavity.
A method for controlling an electronic device, the method comprising: acquiring an image of a display device and a peripheral area of the display device; identifying a first portion of the acquired image as a display area corresponding to the display device and a second portion of the acquired image as a background area neighboring the first portion of the acquired image by analyzing the acquired image, and acquiring background image information corresponding to the first portion of the acquired image based on second portion of the acquired image; and transmitting the acquired background image information to the display device whereby a background image is displayed on the display device. acquiring an image of a display device and a peripheral area of the display device; identifying a first portion of the acquired image as a display area corresponding to the display device and a second portion of the acquired image as a background area neighboring the first portion of the acquired image by analyzing the acquired image, and acquiring background image information corresponding to the first portion of the acquired image based on second portion of the acquired image; and transmitting the acquired background image information to the display device whereby a background image is displayed on the display device.
A system for minimizing the accumulation of debris on a lens of a rear view camera of a vehicle having a trunk with a generally vertical rear face, the lens having a lens surface, the system comprising a formed channel (150; 214) having a first end (154; 218) and a second end (174; 234), characterized in that the first end (154; 218) is positioned on the vertical rear face of the trunk whereby the first end is in fluid communication with an external airstream effected by movement of the vehicle, and wherein the second end (174; 234) is disposed adjacent to the lens and configured to direct a portion of the passing external airstream over the lens surface characterized in that the first end (154; 218) is positioned on the vertical rear face of the trunk.