mhurhangee/ep-ind-claims huggingface dataset:
A vision enhancement apparatus for a vision-impaired user, comprising an image processor arranged to: process high resolution video data representing images of a scene and display the resulting images to the user; automatically detect and track a user selected object in the images; and automatically modify the video data, by reserving a user selected area of the displayed images for displaying the tracked object as a separate video tile within the images of the scene to provide modified video data (40C, 40D) that includes: - the displayed images of the scene that includes the tracked object; and - the separate video tile, at the user selected area within the displayed images, to display the tracked object to be located in a part of the displayed images where it is visible to the vision impaired user, wherein the tracked object remains displayed at the separate video tile and in that part of the user's field of vision despite movement of the user or the tracked object. process high resolution video data representing images of a scene and display the resulting images to the user; automatically detect and track a user selected object in the images; and automatically modify the video data, by reserving a user selected area of the displayed images for displaying the tracked object as a separate video tile within the images of the scene to provide modified video data (40C, 40D) that includes: - the displayed images of the scene that includes the tracked object; and - the separate video tile, at the user selected area within the displayed images, to display the tracked object to be located in a part of the displayed images where it is visible to the vision impaired user, - the displayed images of the scene that includes the tracked object; and - the separate video tile, at the user selected area within the displayed images, to display the tracked object to be located in a part of the displayed images where it is visible to the vision impaired user, wherein the tracked object remains displayed at the separate video tile and in that part of the user's field of vision despite movement of the user or the tracked object.
An iron-based superconducting wire wherein the iron-based superconducting wire comprises a tubular sheath material which is formed mainly from iron, and which is filled with a raw material comprising a single substance of Se, Te, or S, a mixture of two or more of them, or a compound thereof, characterized in that the iron-based superconducting wire is obtainable by reacting the raw material with the iron forming the tubular sheath material to form an iron-based superconductor.
A gripper head (1, 101, 201) usable for the insertion of weft threads on a gripper weaving machine with a thread clamp (3, 103, 201) attached to the gripper head (1, 101, 201), which thread clamp has a stationary clamping part (4, 104, 204) and a movable clamping part (5, 105, 205), wherein the movable clamping part (5, 105, 205) can be pressed by means of a force against the stationary clamping part (4, 104, 204), furthermore with a first hollow body (6, 106, 201) attached to the gripper head (1, 101, 201), the volume of which can be enlarged under internal pressure of a gaseous medium, wherein the first hollow body (6, 106, 206) is connected to the movable clamping part (5, 105, 205) in such a way that through the enlargement of the volume of the first hollow body (6, 106, 206) a clamping part force can be generated, which acts on the movable clamping part (5, 105, 205), furthermore with a valve (9, 109, 209) attached to the gripper head (1, 101, 201), which is connected to the first hollow body (6, 106, 206) in such a way that the gaseous medium can be introduced via the valve (9, 109, 209) into the first hollow body (6, 106, 206), characterized in that there is a restoring means (7, 107, 207) on the gripper head (1, 101, 201), which is connected to the movable clamping part (5, 105, 205) in such a way that a restoring force acting through the restoring means (7, 107, 207) on the movable clamping part (5, 105, 205) counteracts the clamping part force and that a second hollow body (8, 108, 208) is attached to the gripper head (1, 101, 201), in which an internal pressure of a gaseous medium can be generated by the fact that an outer control force is applied to this second hollow body (8, 108, 208), which causes a reduction of the volume of the second hollow body (8, 108, 208) and that the valve (9, 109, 209) is connected to the first and second hollow body (6, 8, 106, 108, 206, 208) in such a way that in the case of an open valve (9, 109, 209) an exchange of the gaseous medium between the two hollow bodies (6, 8, 106, 108, 206, 208) takes place, while in the case of a closed valve (9, 109, 209) the gaseous medium cannot escape from the first hollow body (6, 106, 206) and that a closing mechanism (10, 110) is attached to the valve (9, 109, 209) in such a way that a closing force caused by the closing means (10, 110) counteracts such forces, by which the valve (9, 109, 209) is opened and that the valve (9, 109, 209) is designed in such a way that it can be actuated by contactless transmission of signals or forces.
A terminal, comprising a main board, a middle frame, a radio frequency circuit layer, a screen, and a plurality of antennas, wherein the middle frame is located between the main board and the radio frequency circuit layer, the radio frequency circuit layer is located between the screen and the middle frame, and the plurality of antennas are connected to the main board by using radio frequency lines in the radio frequency circuit layer, characterized in that the radio frequency circuit layer comprises: a radio frequency wiring layer provided with a plurality of the radio frequency lines, wherein each of the antennas is connected to the main board by using a corresponding radio frequency line; a first ground layer located on a first side of the radio frequency wiring layer, wherein the first ground layer is connected to the middle frame; and a second ground layer located on a second side of the radio frequency wiring layer, wherein the second ground layer is connected to the screen. the middle frame is located between the main board and the radio frequency circuit layer, the radio frequency circuit layer is located between the screen and the middle frame, and the plurality of antennas are connected to the main board by using radio frequency lines in the radio frequency circuit layer, characterized in that the radio frequency circuit layer comprises: a radio frequency wiring layer provided with a plurality of the radio frequency lines, wherein each of the antennas is connected to the main board by using a corresponding radio frequency line; a first ground layer located on a first side of the radio frequency wiring layer, wherein the first ground layer is connected to the middle frame; and a second ground layer located on a second side of the radio frequency wiring layer, wherein the second ground layer is connected to the screen. a radio frequency wiring layer provided with a plurality of the radio frequency lines, wherein each of the antennas is connected to the main board by using a corresponding radio frequency line; a first ground layer located on a first side of the radio frequency wiring layer, wherein the first ground layer is connected to the middle frame; and a second ground layer located on a second side of the radio frequency wiring layer, wherein the second ground layer is connected to the screen.
A method for frequency reuse in a wireless relay scenario, comprising: a base station, BS, pre-allocating a center frequency spectrum, an edge frequency spectrum and a random access frequency spectrum to a cell according to a scenario parameter of the cell; one or more relay stations, RSs, calculating load conditions of all mobile stations, MSs, covered by each RS in the cell and reporting the load conditions to the BS; the BS allocating the random access frequency spectrum to an RS according to load conditions of all of the RSs and scheduling an MS, wherein the center frequency spectrum is the frequency spectrum that is used for data transmission of a direct link from the BS to the MS within the coverage of the cell, the edge frequency spectrum is the frequency spectrum that is used for data transmission of a reverse link from the BS to the RS and an access link from the RS to the MS at the cell edge, and the rest of the frequency spectrums are used as the random access frequency spectrum; and wherein the scenario parameter of the cell comprises: the number of the RSs in the cell, positions of the RSs in the cell, a frame type of the cell, and statistic characteristics of users of the cell. a base station, BS, pre-allocating a center frequency spectrum, an edge frequency spectrum and a random access frequency spectrum to a cell according to a scenario parameter of the cell; one or more relay stations, RSs, calculating load conditions of all mobile stations, MSs, covered by each RS in the cell and reporting the load conditions to the BS; the BS allocating the random access frequency spectrum to an RS according to load conditions of all of the RSs and scheduling an MS, wherein the center frequency spectrum is the frequency spectrum that is used for data transmission of a direct link from the BS to the MS within the coverage of the cell, the edge frequency spectrum is the frequency spectrum that is used for data transmission of a reverse link from the BS to the RS and an access link from the RS to the MS at the cell edge, and the rest of the frequency spectrums are used as the random access frequency spectrum; and wherein the scenario parameter of the cell comprises: the number of the RSs in the cell, positions of the RSs in the cell, a frame type of the cell, and statistic characteristics of users of the cell.
A method of adapting a pressure-determining process according to input from one or more sensors of a mobile device, the method comprising: receiving sensor data from the one or more sensors of the mobile device, the sensor data including inertial sensor data; determining, based on the inertial sensor data, whether the mobile device is being held by a user; adapting a pressure-determining process for determining a level of pressure exerted by the user on the mobile device, the adapting being based, at least in part, on whether the mobile device is being held by the user; and performing the pressure-determining process according to the sensor data and an adapted pressure-determining process, the pressure-determining process being based, at least in part, on the inertial sensor data. receiving sensor data from the one or more sensors of the mobile device, the sensor data including inertial sensor data; determining, based on the inertial sensor data, whether the mobile device is being held by a user; adapting a pressure-determining process for determining a level of pressure exerted by the user on the mobile device, the adapting being based, at least in part, on whether the mobile device is being held by the user; and performing the pressure-determining process according to the sensor data and an adapted pressure-determining process, the pressure-determining process being based, at least in part, on the inertial sensor data.
A method for parameter update in an uplink baseband chip at NodeB side of a WCDMA system, characterized by comprising the steps of: a software module sending an update parameter required by RAKE demodulation and a corresponding task request thereof to a main control module, with the task request including effective time of the update parameter; the main control module instructing a task execution module at the effective time to use the update parameter; and the task execution module using the update parameter in real time once receiving the instruction. a software module sending an update parameter required by RAKE demodulation and a corresponding task request thereof to a main control module, with the task request including effective time of the update parameter; the main control module instructing a task execution module at the effective time to use the update parameter; and the task execution module using the update parameter in real time once receiving the instruction.
A compressor for compressing a refrigerant, in particular a scroll compressor, comprising: a suction port configured to receive the refrigerant at the compressor; a means for compressing the refrigerant, wherein the means for compressing forms at least one compression chamber; a discharge port configured for discharging the compressed refrigerant from the compressor; a motor; and a low pressure side and a high pressure side, wherein the discharge port is arranged at the high pressure side of the compressor and the suction port and the motor are arranged at the low pressure side and wherein a transition area between the low pressure side and the high pressure side is formed by the means for compressing, characterized in that the means for compressing comprises at least one opening for extracting a portion of the refrigerant from the at least one compression chamber and supplying the extracted portion of the refrigerant to the motor; and in that the compressor further comprises at least one tube, wherein the tube is in fluid communication with the opening and ends in the low pressure side at the location of the motor, thereby configuring the tube to pipe the extracted portion of the refrigerant from the means for compressing to the low pressure side to cool the motor. a suction port configured to receive the refrigerant at the compressor; a means for compressing the refrigerant, wherein the means for compressing forms at least one compression chamber; a discharge port configured for discharging the compressed refrigerant from the compressor; a motor; and a low pressure side and a high pressure side, wherein the discharge port is arranged at the high pressure side of the compressor and the suction port and the motor are arranged at the low pressure side and wherein a transition area between the low pressure side and the high pressure side is formed by the means for compressing, characterized in that the means for compressing comprises at least one opening for extracting a portion of the refrigerant from the at least one compression chamber and supplying the extracted portion of the refrigerant to the motor; and in that the compressor further comprises at least one tube, wherein the tube is in fluid communication with the opening and ends in the low pressure side at the location of the motor, thereby configuring the tube to pipe the extracted portion of the refrigerant from the means for compressing to the low pressure side to cool the motor.
A knee prosthesis comprising a femoral component having a medial condyle and a lateral condyle with an opening disposed between the two condyles (402, 401), the medial condyle having at least one region of uniform radius (α, β, γ) where it engages a medial bearing surface during flexion from about 0° to about 165°, and the lateral condyle having a region of non-uniform radius where it engages a lateral bearing surface during flexion from about 0° to about 165°, a tibial component having the medial bearing surface and the lateral bearing surface to support each of the femoral component condyles (402, 401), the medial bearing surface having an anterior projection comprising a medial anterior lip, and the femoral component and tibial component engageable at contact regions between the femoral condyles (402, 401) and tibial bearing surfaces (302, 301) such that upon moving the femoral and tibial components (400, 300) in flexion from about 0° to about 90°, the medial anterior lip of the medial bearing surface causes the medial condyle to be retained at a constant contact point upon the medial bearing surface and prevents roll forward of the femoral component while the lateral bearing surface engages the non-uniform radius of the lateral condyle to enable rollback of the lateral condyle on the lateral bearing surface, and such that moving the femoral and tibial components (400, 300) in flexion from about 0° to about 165° causes contact regions between the condyles (402, 401) and bearing surfaces (302, 301) to translate posteriorly at different rates and rotation between the tibial and femoral components (300, 400), wherein, the at least one region of uniform radius (α, β, γ) of the medial condyle comprises a first region (α) that engages the medial bearing surface during flexion from about 0° to about 90°, characterized in that the region of non-uniform radius of the lateral condyle comprises a distal end that engages the lateral bearing surface during flexion from about 0° to about 90°.
A horn device, which is configured to resonate, by a resonator, a sound produced by vibrating a diaphragm, comprising: a control part configured to vibrate the diaphragm; a coil; a fixed iron core, which is disposed on a center of the coil, and is fixed to a case; and a movable iron core, which is disposed facing the fixed iron core, and is fixed to the diaphragm; a temperature measurement part, connected to the control part, and configured to measure an ambient temperature; and a current measurement part or a voltage measurement part, wherein the current measurement part is connected to the control part and configured to measure a current value (I c) flowing through the coil, the voltage measurement part is connected to the control part and configured to measure a voltage value (Vb) used to vibrate the diaphragm, the control part (34, 34B) is configured to change a vibration frequency (f out) which vibrates the diaphragm according to the ambient temperature measured by the temperature measurement part, control energization of the coil according to the vibration frequency (f out) corresponding to the ambient temperature measured in the temperature measurement part, and, after setting the vibration frequency (fout), change a duty ratio (D out) of energization to the coil according to the current value (I c) measured by the current measurement part or the voltage value (Vb) measured by the voltage measurement part; characterized in that the control part (34, 34B) reduces the vibration frequency (f out) when the ambient temperature measured by the temperature measurement part is lower than a predetermined temperature. a control part configured to vibrate the diaphragm; a coil; a fixed iron core, which is disposed on a center of the coil, and is fixed to a case; and a movable iron core, which is disposed facing the fixed iron core, and is fixed to the diaphragm; a temperature measurement part, connected to the control part, and configured to measure an ambient temperature; and a current measurement part or a voltage measurement part, wherein the current measurement part is connected to the control part and configured to measure a current value (I c) flowing through the coil, the voltage measurement part is connected to the control part and configured to measure a voltage value (Vb) used to vibrate the diaphragm, the control part (34, 34B) is configured to change a vibration frequency (f out) which vibrates the diaphragm according to the ambient temperature measured by the temperature measurement part, control energization of the coil according to the vibration frequency (f out) corresponding to the ambient temperature measured in the temperature measurement part, and, after setting the vibration frequency (fout), change a duty ratio (D out) of energization to the coil according to the current value (I c) measured by the current measurement part or the voltage value (Vb) measured by the voltage measurement part; characterized in that the control part (34, 34B) reduces the vibration frequency (f out) when the ambient temperature measured by the temperature measurement part is lower than a predetermined temperature.
A computer-implemented method comprising: providing a first party data in a first account in a network-based data system; providing a second party data in a second account in the network-based data system; executing, by a first account, a secure function using the first party data and, thereby, generating a first result, the executing of the secure function using the first party data including creating links to the first party data and anonymizing identification information in the first party data; sharing, by the first account, the secure function with the second account by using a secure share, which allows the second account to execute the secure function while restricting the second account from accessing the first party data; executing, by the second account, the secure function using the second party data and, thereby, generating a second result, wherein the second account is restricted from accessing the first party data; generating a cross reference table with the first and second results, the cross reference table providing anonymized matches of the first and second results. providing a first party data in a first account in a network-based data system; providing a second party data in a second account in the network-based data system; executing, by a first account, a secure function using the first party data and, thereby, generating a first result, the executing of the secure function using the first party data including creating links to the first party data and anonymizing identification information in the first party data; sharing, by the first account, the secure function with the second account by using a secure share, which allows the second account to execute the secure function while restricting the second account from accessing the first party data; executing, by the second account, the secure function using the second party data and, thereby, generating a second result, wherein the second account is restricted from accessing the first party data; generating a cross reference table with the first and second results, the cross reference table providing anonymized matches of the first and second results.
A method of creating a result image comprising the steps of; - a first process requesting, through a high-level programming interface, the creation of a context for rendering the result image in a memory; - said first process requesting, through said high-level programming interface, the creation of a result image; - said first process indicating, through said high-level programming interface, parameters associated with the creation of said result image; - said first process requesting, through said high-level programming interface, that said result image be rendered to said context; - said first process creating a low-level graph representing said result image, the low-level graph defining the relationship between said result image and fragment programs that operate on fragments of said result image, - a second process servicing said requests of said first process, said servicing comprising the steps of: optimizing the graph representing said result image; compiling said optimized graph; causing the rendering of said compiled optimized graph into said context. - a first process requesting, through a high-level programming interface, the creation of a context for rendering the result image in a memory; - said first process requesting, through said high-level programming interface, the creation of a result image; - said first process indicating, through said high-level programming interface, parameters associated with the creation of said result image; - said first process requesting, through said high-level programming interface, that said result image be rendered to said context; - said first process creating a low-level graph representing said result image, the low-level graph defining the relationship between said result image and fragment programs that operate on fragments of said result image, - a second process servicing said requests of said first process, optimizing the graph representing said result image; compiling said optimized graph; causing the rendering of said compiled optimized graph into said context.