mhurhangee/patent-ind-claim-en huggingface dataset:
A method for monitoring search spaces, the method being performed by a wireless device , the method comprising: receiving (S104) an orthogonal frequency-division multiplexing, OFDM, symbol, wherein the OFDM symbol is at least partially included in a device-specific search space of the wireless device and is at least partially included in a common search space used by the wireless device; monitoring (S106) the device-specific search space for at least one device-specific demodulation reference signal, DM-RS, provided in the OFDM symbol; and monitoring (S108) the common search space for at least one non-device-specific demodulation reference signal, DM-RS, provided in the same OFDM symbol; wherein the device-specific search space and the common search space are contained in a first and a second subband, respectively, and starting data decoding in the first OFDM symbol of a scheduled data region, wherein the first subband and the second subband have different bandwidths. receiving (S104) an orthogonal frequency-division multiplexing, OFDM, symbol, wherein the OFDM symbol is at least partially included in a device-specific search space of the wireless device and is at least partially included in a common search space used by the wireless device; monitoring (S106) the device-specific search space for at least one device-specific demodulation reference signal, DM-RS, provided in the OFDM symbol; and monitoring (S108) the common search space for at least one non-device-specific demodulation reference signal, DM-RS, provided in the same OFDM symbol; wherein the device-specific search space and the common search space are contained in a first and a second subband, respectively, and starting data decoding in the first OFDM symbol of a scheduled data region, wherein the first subband and the second subband have different bandwidths.
A fastening system for covering elements, with an anchoring profiled element (5, 5', 5") that can be mounted to a substructure and a clip element that can be mounted to the covering element and can be latched to the anchoring profiled element (5, 5', 5"), wherein the anchoring profiled element (5, 5', 5") has at least one latching protrusion on each of two opposite faces (7, 8; 9, 10) and the clip element has the shape of a U with a central web and two legs , wherein, in the latched position, the clip element engages over the anchoring profiled element (5, 5', 5") in the manner of a clamp and, thereby, each leg latches to a latching protrusion in the manner of a snap hook, characterized in that the anchoring profiled element (5, 5', 5") bears one connecting part and the clip element bears the other connecting part of a tongue-and-groove joint which blocks the clip element from shifting in the longitudinal profile direction (R) of the anchoring profiled element (5, 5', 5") in the latched position of the clip element on the anchoring profiled element (5, 5', 5").
One or more computer-readable memory or storage devices storing computer-executable instructions for causing a processor , when programmed thereby, to perform a test pattern evaluation method on sub-pixel display elements of a display device, the method comprising: determining a test pattern comprising a base pattern of pixels replicated zero or more times within the test pattern, wherein each of the pixels in the base pattern includes multiple sub-pixel sample values, wherein the base pattern is based on sampling of a sine wave having a period of less than two pixels; and wherein the base pattern comprises a pattern of grey-scale values; successively rendering the test pattern for display on the display device; and, causing motion-induced chromatic shift in the test pattern among at least some sub-pixel display elements of the display device by offsetting the base pattern by a number of pixels between successive renderings of the test pattern, wherein the offsetting shifts the base pattern by a number of pixels that causes regular motion in the test pattern. determining a test pattern comprising a base pattern of pixels replicated zero or more times within the test pattern, wherein each of the pixels in the base pattern includes multiple sub-pixel sample values, wherein the base pattern is based on sampling of a sine wave having a period of less than two pixels; and wherein the base pattern comprises a pattern of grey-scale values; successively rendering the test pattern for display on the display device; and, causing motion-induced chromatic shift in the test pattern among at least some sub-pixel display elements of the display device by offsetting the base pattern by a number of pixels between successive renderings of the test pattern, wherein the offsetting shifts the base pattern by a number of pixels that causes regular motion in the test pattern.
Administration device for the administration of a liquid drug in adjustable doses, comprising: a) an injection unit , the injection unit comprising • a manually operated dose setting means , wherein operating the manually operated dose setting means sets an administration dose amount AD, and • a manually driven dosing mechanism , b) an electronic indication unit and electronics circuitry, characterized in the electronics circuitry determining a relation between the administration dose amount AD and a target dose amount TD, the target dose amount TD being a dose amount that is intended for administration, the indication unit indicating a relation between the administration dose amount AD and the target dose amount TD, the target dose amount TD being transmitted to the administration device from an external device via a data interface of the administration device or being calculated by a dose calculator of the administration device based on therapy-related data or being stored in the administration device as several alternative values for manual or automatic selection. a) an injection unit , the injection unit comprising • a manually operated dose setting means , wherein operating the manually operated dose setting means sets an administration dose amount AD, and • a manually driven dosing mechanism , • a manually operated dose setting means , wherein operating the manually operated dose setting means sets an administration dose amount AD, and • a manually driven dosing mechanism , b) an electronic indication unit and electronics circuitry, characterized in the electronics circuitry determining a relation between the administration dose amount AD and a target dose amount TD, the target dose amount TD being a dose amount that is intended for administration, the indication unit indicating a relation between the administration dose amount AD and the target dose amount TD,
A method comprising: by a computing system : accessing a computer-aided design, CAD, model of a given part and a computer-aided manufacturing, CAM, setup for the given part, the CAM setup including a nominal toolpath specified through the CAD model for performing a finishing operation for the given part; determining an interest region on the nominal toolpath at which a defect in the given part could potentially occur during manufacture; obtaining 3-dimensional scan data for a physical part corresponding to the given part comprising controlling a scan of the physical part such that 3D scan data at the interest region is captured at a higher data resolution than at other non-interest regions on the nominal toolpath ; extracting , from the 3D scan data , a manufactured geometry of the physical part ; and generating an adjusted toolpath for the physical part to account for the manufactured geometry extracted from the 3D scan data . accessing a computer-aided design, CAD, model of a given part and a computer-aided manufacturing, CAM, setup for the given part, the CAM setup including a nominal toolpath specified through the CAD model for performing a finishing operation for the given part; determining an interest region on the nominal toolpath at which a defect in the given part could potentially occur during manufacture; obtaining 3-dimensional scan data for a physical part corresponding to the given part comprising controlling a scan of the physical part such that 3D scan data at the interest region is captured at a higher data resolution than at other non-interest regions on the nominal toolpath ; extracting , from the 3D scan data , a manufactured geometry of the physical part ; and generating an adjusted toolpath for the physical part to account for the manufactured geometry extracted from the 3D scan data .
A sensor system for use in a gas turbine engine , comprising: a diffuser case , and a liner and shell assembly that defines a combustion chamber ; a reflective surface (152; 352); an optical sensor configured to receive reflected optical features from the reflective surface (152; 352); and the liner and shell assembly (130; 330) and the diffuser case (118; 318) defining an inner shroud and an outer shroud between the diffuser case (118; 318) and the liner and shell assembly (130; 330), wherein the reflective surface (152; 352) is at least partially located in at least one of the inner shroud or the outer shroud , and the reflective surface (152; 352) is configured to reflect optical features corresponding to combustion in the combustion chamber that exit the combustion chamber via at least one opening (150; 350) therein and to reflect the optical features through at least one of the inner shroud or the outer shroud towards the optical sensor , wherein the at least one opening (150; 350) is defined by the liner and shell assembly (130; 330); characterized in that the reflective surface (152; 352) is defined by at least one of the diffuser case (118; 318) or the liner and shell assembly (130; 330). a diffuser case , and a liner and shell assembly that defines a combustion chamber ; a reflective surface (152; 352); an optical sensor configured to receive reflected optical features from the reflective surface (152; 352); and the liner and shell assembly (130; 330) and the diffuser case (118; 318) defining an inner shroud and an outer shroud between the diffuser case (118; 318) and the liner and shell assembly (130; 330), wherein the reflective surface (152; 352) is at least partially located in at least one of the inner shroud or the outer shroud , and the reflective surface (152; 352) is configured to reflect optical features corresponding to combustion in the combustion chamber that exit the combustion chamber via at least one opening (150; 350) therein and to reflect the optical features through at least one of the inner shroud or the outer shroud towards the optical sensor , wherein the at least one opening (150; 350) is defined by the liner and shell assembly (130; 330); characterized in that the reflective surface (152; 352) is defined by at least one of the diffuser case (118; 318) or the liner and shell assembly (130; 330).
A coin separating and feeding device suitable for use in a coin processing device, including a separating and rotating body having a concave portion that is formed on an upper surface of a rotary disk and configured by opening the upper surface side and the peripheral surface side of the rotary disk, and a separating concave portion that is disposed at a part of the concave portion and is formed in a semi-circular shape by a moving body which is positioned in a coin receiving position (RP), the moving body being mounted at the rotary disk such that pivot movement is possible about a support shaft as a fulcrum, being pivoted by a drive means which is positioned under the rotary disk via a coupling body which penetrates through a through hole provided at the rotary disk and being configured to be moved to the coin receiving position and a coin delivering position (DP) at a predetermined timing by the drive means, wherein a cover body is disposed at an upper surface side of the through hole, is integrated with the moving body, characterized in that the cover body is formed in a disk shape having a predetermined radius centered on the support shaft and covers most of the through hole or the entire through hole. a separating and rotating body having a concave portion that is formed on an upper surface of a rotary disk and configured by opening the upper surface side and the peripheral surface side of the rotary disk, and a separating concave portion that is disposed at a part of the concave portion and is formed in a semi-circular shape by a moving body which is positioned in a coin receiving position (RP), the moving body being mounted at the rotary disk such that pivot movement is possible about a support shaft as a fulcrum, being pivoted by a drive means which is positioned under the rotary disk via a coupling body which penetrates through a through hole provided at the rotary disk and being configured to be moved to the coin receiving position and a coin delivering position (DP) at a predetermined timing by the drive means, wherein a cover body is disposed at an upper surface side of the through hole, is integrated with the moving body, characterized in that the cover body is formed in a disk shape having a predetermined radius centered on the support shaft and covers most of the through hole or the entire through hole.
A method for producing a conversion element for an optoelectronic component comprising the steps: A) providing an acidic medium with a pH value of less than 2, B) adding a conversion material into the acidic medium , C) adding a silicate solution with a viscosity of from 2 to 10 000 poise to the mixture obtained under step B) in such a way that the pH value during the addition in step C) is smaller than 2, wherein a precipitate is obtained which contains the conversion material and silicon dioxide as matrix material, D) separation of the precipitate , E) washing the precipitate with a washing medium , wherein the washing medium has a pH value of less than 2, F) curing the precipitate in order to produce the conversion element . A) providing an acidic medium with a pH value of less than 2, B) adding a conversion material into the acidic medium , C) adding a silicate solution with a viscosity of from 2 to 10 000 poise to the mixture obtained under step B) in such a way that the pH value during the addition in step C) is smaller than 2, wherein a precipitate is obtained which contains the conversion material and silicon dioxide as matrix material, D) separation of the precipitate , E) washing the precipitate with a washing medium , wherein the washing medium has a pH value of less than 2, F) curing the precipitate in order to produce the conversion element .
Method for filling an enclosure with a fluid until a target pressure is reached and then emptying said enclosure when the time comes, characterized in that the filling is carried out from a first plurality of tanks (R3, R4, R5, R6, R7, R8) of different pressures, successively from the lowest-pressure tank (R3) up to the highest-pressure tank (R8), and in that the emptying is carried out by transferring the contents of the of the enclosure to a second plurality of tanks (R2, R3, R4, R5, R6, R7), successively to the highest-pressure tank (R7) up to the lowest-pressure tank (R2).
A method of serial communication of a first device, the method comprising: generating data link layer, DLL, control packets for transmission of control messages to a second device, wherein each DLL control message packet has a DLL control packet length, the DLL control packet length being a fixed length; generating physical layer, PHY, control packets, wherein each PHY control packet includes one of the DLL control packets and a control token, the length of each PHY control packet being the sum of the DLL control packet length and a control token length of the control token; encapsulating the PHY control packets in frames, each of the frames including a synchronization symbol having a symbol length, wherein the length of each frame is the sum of the symbol length and an encapsulation length, the encapsulation length being twice the length of the PHY control packet, such that only two PHY control packets fit in each frame, wherein each control token differentiates between packet types for a first mode identified by the synchronization symbol or packet types for a second mode identified by the synchronization symbol; and transmitting the frames to the second device. generating data link layer, DLL, control packets for transmission of control messages to a second device, wherein each DLL control message packet has a DLL control packet length, the DLL control packet length being a fixed length; generating physical layer, PHY, control packets, wherein each PHY control packet includes one of the DLL control packets and a control token, the length of each PHY control packet being the sum of the DLL control packet length and a control token length of the control token; encapsulating the PHY control packets in frames, each of the frames including a synchronization symbol having a symbol length, wherein the length of each frame is the sum of the symbol length and an encapsulation length, the encapsulation length being twice the length of the PHY control packet, such that only two PHY control packets fit in each frame, wherein each control token differentiates between packet types for a first mode identified by the synchronization symbol or packet types for a second mode identified by the synchronization symbol; and transmitting the frames to the second device.
A zipper tape comprising: a pair of a male member and a female member ; and a light-absorbing material having a wavelength absorption range from 800 nm to 1200 nm, the light-absorbing material being contained in at least a part of the zipper tape; wherein the male member comprises a layered structure comprising at least two layers, and comprises a male belt-shaped base and a male portion provided on a side of the male belt-shaped base , the female member comprises a layered structure comprising at least two layers, and comprises a female belt-shaped base and a female portion which is provided on a side of the female belt-shaped base and is capable of receiving the male portion , and at least one of the male belt-shaped base and the female belt-shaped base comprises a light-absorbing layer comprising the light-absorbing material as at least one of the at least two layers other than a surface layer on which the male portion or the female portion are provided. a pair of a male member and a female member ; and a light-absorbing material having a wavelength absorption range from 800 nm to 1200 nm, the light-absorbing material being contained in at least a part of the zipper tape; wherein the male member comprises a layered structure comprising at least two layers, and comprises a male belt-shaped base and a male portion provided on a side of the male belt-shaped base , the female member comprises a layered structure comprising at least two layers, and comprises a female belt-shaped base and a female portion which is provided on a side of the female belt-shaped base and is capable of receiving the male portion , and at least one of the male belt-shaped base and the female belt-shaped base comprises a light-absorbing layer comprising the light-absorbing material as at least one of the at least two layers other than a surface layer on which the male portion or the female portion are provided.
A method of implementing a personal sensory drone system, the method comprising: transmitting from a drone controller to a drone swarm, a task to control the drone swarm and for the drone swarm to execute, the drone swarm including at least two drones; receiving information from the drone swarm related to the task, the information including visual data, audio data, or olfactory data from multiple drones in the drone swarm; characterized by compositing the visual data from the multiple drones in the drone swarm to produce composited visual data; and presenting a user interface based on the information received from the drone swarm, the user interface including the composited visual data and controls for the user to selectively deploy the drones using cooperative or distributed planning. transmitting from a drone controller to a drone swarm, a task to control the drone swarm and for the drone swarm to execute, the drone swarm including at least two drones; receiving information from the drone swarm related to the task, the information including visual data, audio data, or olfactory data from multiple drones in the drone swarm; characterized by compositing the visual data from the multiple drones in the drone swarm to produce composited visual data; and presenting a user interface based on the information received from the drone swarm, the user interface including the composited visual data and controls for the user to selectively deploy the drones using cooperative or distributed planning.
Commercial vehicle brake shoe actuating device for a brake, in particular a disc brake, comprising a pivotably mountable lever element , and a translationally movable transmission element which is designed in such a way that a swivelling movement of the lever element is translated into a translational movement of the transmission element , wherein a hydraulic chamber filled with a hydraulic fluid is arranged between the brake shoe and the transmission element for the transmission of force between the brake shoe and the transmission element , wherein the chamber is deflection-free, characterised in that the transmission element has a bearing shell in which the lever element engages at least partially. a pivotably mountable lever element , and a translationally movable transmission element which is designed in such a way that a swivelling movement of the lever element is translated into a translational movement of the transmission element , wherein a hydraulic chamber filled with a hydraulic fluid is arranged between the brake shoe and the transmission element for the transmission of force between the brake shoe and the transmission element , wherein the chamber is deflection-free, characterised in that the transmission element has a bearing shell in which the lever element engages at least partially.
Lighting system , comprising at least one duct , for receiving at least one lighting unit (4; 104, 104a-b; 204; 304; 404; 504; 604; 704a-b) which is insertable into the duct , and comprising at least one connector which is insertable into the duct , wherein the duct has, in an inner region (9; 9'; 9"; 9"'; 9"") thereof, a busbar for powering the lighting unit (4; 104, 104a-b; 204; 304; 404; 504; 604; 704a-b), which is electrically couplable to the busbar ; wherein the lighting unit (4; 104, 104a-b; 204; 304; 404; 504; 604; 704a-b) has a light supply and optics unit (12; 112, 112a-b; 212; 312; 612; 712a-b) and at least one power unit , wherein the power unit has contacting means , which facilitate the electrical coupling of the lighting unit (4; 104, 104a-b; 204; 304; 404; 504; 604; 704a-b) to the busbar , wherein the power unit is electrically coupled to the light supply and optics unit (12; 112, 112a-b; 212; 312; 612; 712a-b), and wherein the power unit further has a housing unit which is mechanically coupled to the light supply and optics unit (12; 112; 112a-b; 212; 312; 612; 712a-b); wherein the connector is configured for electrically coupling busbar portions of the busbar to one another, and wherein the connector is set up for mechanical coupling to portions of the duct ; wherein the duct and the connector are configured in such a way that the lighting unit (4; 104, 104a-b; 204; 304; 404; 504; 604; 704a-b), when inserted into the duct , can be arranged overlapping, within the duct , with the connector which is inserted into the duct for coupling the busbar portions ; and wherein the housing element of the power unit projects, in a direction which extends parallel to a depth direction (T) of the duct when the lighting unit (4; 104, 104a-b; 204; 304; 404; 504; 604; 704a-b) is inserted, substantially as far past the light supply and optics unit (12; 112, 112a-b; 212; 312; 612; 712a-b) as a housing of the connector extends in a thickness direction (D) of the connector .