mhurhangee/patent-ind-claim-en huggingface dataset:
A method of dicing a semiconductor wafer comprising a plurality of integrated circuits, the method comprising: forming a mask above the semiconductor wafer, the mask comprising a water-soluble matrix based on a solid component and water, and the mask comprising a light-absorber species throughout the water-soluble matrix; patterning the mask and a portion of the semiconductor wafer with a laser scribing process to provide a patterned mask with gaps and corresponding trenches in the semiconductor wafer in regions between the integrated circuits, wherein patterning with a laser scribing process comprises patterning with a laser beam, wherein the light-absorber species of the mask substantially confines a first low intensity portion of the laser beam to the mask during the patterning, and wherein a second high intensity portion of the laser beam is substantially confined to the semiconductor wafer during the patterning; and plasma etching the semiconductor wafer through the gaps in the patterned mask to extend the trenches and to singulate the integrated circuits, wherein the patterned mask protects the integrated circuits during the plasma etching , wherein the light-absorber species is a water soluble dye dissolved in the water-soluble matrix, and wherein the mask further comprises a plurality of particles dispersed throughout the water-soluble matrix, the plurality of particles being different from the light-absorber species. forming a mask above the semiconductor wafer, the mask comprising a water-soluble matrix based on a solid component and water, and the mask comprising a light-absorber species throughout the water-soluble matrix; patterning the mask and a portion of the semiconductor wafer with a laser scribing process to provide a patterned mask with gaps and corresponding trenches in the semiconductor wafer in regions between the integrated circuits, wherein patterning with a laser scribing process comprises patterning with a laser beam, wherein the light-absorber species of the mask substantially confines a first low intensity portion of the laser beam to the mask during the patterning, and wherein a second high intensity portion of the laser beam is substantially confined to the semiconductor wafer during the patterning; and plasma etching the semiconductor wafer through the gaps in the patterned mask to extend the trenches and to singulate the integrated circuits, wherein the patterned mask protects the integrated circuits during the plasma etching , wherein the light-absorber species is a water soluble dye dissolved in the water-soluble matrix, and wherein the mask further comprises a plurality of particles dispersed throughout the water-soluble matrix, the plurality of particles being different from the light-absorber species.
A light-emitting diode (LED) display panel, comprising a thin-film transistor (TFT) backplane, a light-emitting structure including a light-emission layer and a cathode , and an overcoat (OC) layer , wherein the OC layer is made of crystallized ITO and is provided in a grid structure between the TFT backplane and the light-emission layer and is configured to cover gate lines and data lines in a display area (AA) of the LED display panel, wherein the OC layer electrically contacts the cathode in a periphery of the display area (AA), and an inner side of the cathode contacts an end side of the light-emission layer in the periphery of the display area (AA).
A compute apparatus , comprising: instruction decode logic to decode a single instruction including multiple input operands into a single decoded instruction, the multiple input operands referencing multiple data elements having differing precisions; and a general-purpose graphics compute unit including a first logic unit and a second logic unit , the general-purpose graphics compute unit to execute the single decoded instruction, wherein to execute the single decoded instruction includes to perform a first instruction operation on a first set of the multiple data elements at a first precision via the first logic unit and simultaneously perform a second instruction operation on a second set of the multiple data elements at a second precision via the second logic unit . instruction decode logic to decode a single instruction including multiple input operands into a single decoded instruction, the multiple input operands referencing multiple data elements having differing precisions; and a general-purpose graphics compute unit including a first logic unit and a second logic unit , the general-purpose graphics compute unit to execute the single decoded instruction, wherein to execute the single decoded instruction includes to perform a first instruction operation on a first set of the multiple data elements at a first precision via the first logic unit and simultaneously perform a second instruction operation on a second set of the multiple data elements at a second precision via the second logic unit .
A method of wireless communication performed by a network controller, comprising: determining a first set of spreading sequences and a second set of spreading sequences for non-orthogonal multiple access, NOMA, communication, wherein the first set of spreading sequences is different than the second set of spreading sequences; and configuring a first cell to use the first set of spreading sequences and a second cell to use the second set of spreading sequences; or configuring the first set of spreading sequences to be used for first user equipment associated with a cell center of the first cell and the second set of spreading sequences to be used for second user equipment associated with a cell edge of the first cell or the second cell characterised in that the first set of spreading sequences and the second set of spreading sequences share at least one shared spreading sequence . determining a first set of spreading sequences and a second set of spreading sequences for non-orthogonal multiple access, NOMA, communication, wherein the first set of spreading sequences is different than the second set of spreading sequences; and configuring a first cell to use the first set of spreading sequences and a second cell to use the second set of spreading sequences; or configuring the first set of spreading sequences to be used for first user equipment associated with a cell center of the first cell and the second set of spreading sequences to be used for second user equipment associated with a cell edge of the first cell or the second cell characterised in that the first set of spreading sequences and the second set of spreading sequences share at least one shared spreading sequence .
A pallet-truck-compatible load elevator comprising: a vertical mast ; a carriage coupled to the mast for a vertical motion of the carriage along the mast , said carriage having a front face for access by a pallet truck carrying a pallet; and a pair of retractable fork assemblies connected to the carriage ; said fork assemblies being entirely housed beyond the front face of the carriage when in retracted position, such that access to said front face of the carriage is unobstructed to a pallet truck carrying a pallet, characterized in that each of said fork assemblies includes an outer fork coupled to a support attached to the carriage and an inner fork coupled to the outer fork , the outer fork being telescopically movable with respect to said support and the inner fork being telescopically movable with respect to said outer fork to provide telescopic horizontal extension and retraction of the fork assemblies . a vertical mast ; a carriage coupled to the mast for a vertical motion of the carriage along the mast , said carriage having a front face for access by a pallet truck carrying a pallet; and a pair of retractable fork assemblies connected to the carriage ; said fork assemblies being entirely housed beyond the front face of the carriage when in retracted position, such that access to said front face of the carriage is unobstructed to a pallet truck carrying a pallet, characterized in that each of said fork assemblies includes an outer fork coupled to a support attached to the carriage and an inner fork coupled to the outer fork , the outer fork being telescopically movable with respect to said support and the inner fork being telescopically movable with respect to said outer fork to provide telescopic horizontal extension and retraction of the fork assemblies .
Non central communication network consisting of at least two network nodes having one transmission/reception antenna each, wherein each of the network nodes is designed to use at least one data frame to communicate with another of the network nodes , wherein the data frame contains at least one useful data packet intended to be transmitted between the at least two network nodes , wherein at least one network node has a reservation functionality in order to reserve at least one time slot at the network node intended to receive the useful data packet, wherein the reservation functionality is based on data packets defined in the data frame , wherein at least one request to send (RTS) data packet is sent from the sender to the receiver for a reservation request and at least one clear to send (CTS) or not clear to send (nCTS) data packet is sent in response to the RTS data packets, characterized in that even when an nCTS data packet is received a network node transmits data to the network node sending nCTS if the data have high priority.
Mechanical timepiece part including a ball bearing, said bearing including: • a plurality of balls ; • an inner ring and an outer ring that are concentric, the inner ring and the outer ring together defining a race for said balls such that each ball is in contact with said rings at a plurality of points of contact, in which mechanical part the inner ring comprises two rings , these two rings being rigidly connected to one another and having cylindrical surfaces in contact with one another, whereas the outer ring is formed in one piece, the inner ring comprising a central recess extending along an axis of the inner ring, the mechanical part further comprising a coupling boss attached inside the central recess of the inner ring, said coupling boss being adapted to cooperate with a corresponding external coupling means to allow the inner ring to rotate relative to the outer ring, the coupling boss being made of a non-magnetic material, and comprising: • at least one threaded recess adapted to receive a means for attaching an external functional element, or • a central recess concentric with the inner ring, a wall of the central recess being toothed in order to mesh with a corresponding toothing of an external gear train. • a plurality of balls ; • an inner ring and an outer ring that are concentric, the inner ring and the outer ring together defining a race for said balls such that each ball is in contact with said rings at a plurality of points of contact, in which mechanical part the inner ring comprises two rings , these two rings being rigidly connected to one another and having cylindrical surfaces in contact with one another, whereas the outer ring is formed in one piece, the inner ring comprising a central recess extending along an axis of the inner ring, the mechanical part further comprising a coupling boss attached inside the central recess of the inner ring, said coupling boss being adapted to cooperate with a corresponding external coupling means to allow the inner ring to rotate relative to the outer ring, the coupling boss being made of a non-magnetic material, and comprising: • at least one threaded recess adapted to receive a means for attaching an external functional element, or • a central recess concentric with the inner ring, a wall of the central recess being toothed in order to mesh with a corresponding toothing of an external gear train.
A peptide-based compound consisting of (i) one peptide comprising the amino acid sequence of TKDNNLLGRFELXG [SEQ ID NO. 1] wherein X is S or T, and wherein the peptide has a length of 14 to 45 amino acids, (ii) at least one label and/or drug, preferably covalently coupled to the peptide. (i) one peptide comprising the amino acid sequence of TKDNNLLGRFELXG [SEQ ID NO. 1] wherein X is S or T, and wherein the peptide has a length of 14 to 45 amino acids, (ii) at least one label and/or drug,
Computer-implemented method for collecting a data set (D, X, Y), the method using a mobile device with a location sensor and with a data sensor , the method being executed by the mobile device and comprising recording the data set (D, X, Y) with data (D) from the data sensor of the mobile device in combination with the geographic location (X, Y) of the mobile device from the location sensor , the method characterized in that the data set (D, X, Y) relates to events originating from technical equipment (101-1, 101-2, 101-3, 101-4), and characterized by the following steps: determining that the mobile device is located in an event area being an area in that events originate from the technical equipment (101-1, 101-2, 101-3, 101-4) in event categories ; while the mobile device is located inside the determined event area, temporarily activating a detection component in the mobile device , the detection component for pre-processing data (A, G, V) from the data sensor to detect events in the event categories ; and recording the data set (D, X, Y) upon detecting a particular event that falls into at least one of the event categories , wherein recording the data set (D, X, Y) depends on a proximity range of the mobile device , wherein the proximity range is determined by the data resolution of the data sensor in combination with a distance to the technical equipment (501-3). determining that the mobile device is located in an event area being an area in that events originate from the technical equipment (101-1, 101-2, 101-3, 101-4) in event categories ; while the mobile device is located inside the determined event area, temporarily activating a detection component in the mobile device , the detection component for pre-processing data (A, G, V) from the data sensor to detect events in the event categories ; and recording the data set (D, X, Y) upon detecting a particular event that falls into at least one of the event categories , wherein recording the data set (D, X, Y) depends on a proximity range of the mobile device , wherein the proximity range is determined by the data resolution of the data sensor in combination with a distance to the technical equipment (501-3).
A computing device comprising: one or more central processing units that push return addresses onto both a call stack and a shadow stack, wherein a shadow stack is a second stack data structure whose contents are protected from being improperly overwritten by hardware-based protections; and one or more computer-readable storage media comprising computer-executable instructions, which, when executed by at least some of the processing units, cause the computing device to: compare a first return address obtained from the call stack to a corresponding first return address obtained from the shadow stack; and generate a verified stack trace comprising both the first return address obtained from the shadow stack and the first return address obtained from the call stack when the comparing reveals that the first return address obtained from the call stack differs from the corresponding first return address obtained from the shadow stack, and generate the verified stack trace comprising the return addresses of the shadow stack when the comparing reveals that the first return address obtained from the call stack does not differ from the corresponding first return address obtained from the shadow stack. one or more central processing units that push return addresses onto both a call stack and a shadow stack, wherein a shadow stack is a second stack data structure whose contents are protected from being improperly overwritten by hardware-based protections; and one or more computer-readable storage media comprising computer-executable instructions, which, when executed by at least some of the processing units, cause the computing device to: compare a first return address obtained from the call stack to a corresponding first return address obtained from the shadow stack; and generate a verified stack trace comprising both the first return address obtained from the shadow stack and the first return address obtained from the call stack when the comparing reveals that the first return address obtained from the call stack differs from the corresponding first return address obtained from the shadow stack, and generate the verified stack trace comprising the return addresses of the shadow stack when the comparing reveals that the first return address obtained from the call stack does not differ from the corresponding first return address obtained from the shadow stack. compare a first return address obtained from the call stack to a corresponding first return address obtained from the shadow stack; and generate a verified stack trace comprising both the first return address obtained from the shadow stack and the first return address obtained from the call stack when the comparing reveals that the first return address obtained from the call stack differs from the corresponding first return address obtained from the shadow stack, and generate the verified stack trace comprising the return addresses of the shadow stack when the comparing reveals that the first return address obtained from the call stack does not differ from the corresponding first return address obtained from the shadow stack.
A radio receiver , comprising: an in-phase mixer configured to generate an in-phase, I, signal; a quadrature mixer configured to generate a quadrature, Q, signal; a first analog-to-digital, A/D, converter configured to generate first digital samples from one of the I signal and the Q signal; a second analog-to-digital, A/D, converter configured to generate second digital samples from the other of the I signal and the Q signal; and a compensation system comprising a control loop configured to compensate for frequency-dependent I-Q imbalance that varies across input signal component frequencies based on results, for each of multiple of the first digital samples, of cross-correlation of the first digital sample with each of multiple of the second digital samples, wherein at least one of the multiple second digital samples has a time index that is different from a time index of the first digital sample, and wherein the time indexes for the respective digital samples indicate time-based positions within the signals from which the digital samples were generated. an in-phase mixer configured to generate an in-phase, I, signal; a quadrature mixer configured to generate a quadrature, Q, signal; a first analog-to-digital, A/D, converter configured to generate first digital samples from one of the I signal and the Q signal; a second analog-to-digital, A/D, converter configured to generate second digital samples from the other of the I signal and the Q signal; and a compensation system comprising a control loop configured to compensate for frequency-dependent I-Q imbalance that varies across input signal component frequencies based on results, for each of multiple of the first digital samples, of cross-correlation of the first digital sample with each of multiple of the second digital samples, wherein at least one of the multiple second digital samples has a time index that is different from a time index of the first digital sample, and wherein the time indexes for the respective digital samples indicate time-based positions within the signals from which the digital samples were generated.
A fan head part comprising a base (10a;102;204) and a fan head (12;104;202), the fan head (12;104;202) comprising a blade , a first electric motor connected to the blade , and a grill , the blade being able to rotate about a first axis (A;C;E), the fan head (12;104;202) being able to rotate about a second axis (B;D;F) and along a circumferential direction relative to the base (10a;102;204), and the second axis extending through the grill in a front-rear direction and being obliquely arranged relative to the first axis; characterized in that : the base (10a;102;204) is connected to the fan head (12;104;202) by a rotating shaft ; the fan head (12;104;202) further comprises a second electric motor connected to the rotating shaft ; the fan head (12;104;202) is arranged to integrally rotate about the second axis (B;D;F) relative to the base (10a;102;204) and along the circumferential direction relative to the base (10a;102;204); the second axis is arranged at a certain fixed angle relative to the first axis; and the fan head part further comprises a mounting portion for mounting the fan head (12;104;202) to the base (10a;102;204), the central axis of the mounting portion being obliquely arranged relative to the first axis (A;C;E), the mounting portion being provided with a second rotating shaft , the rotating shaft of the second electric motor is connected to the second rotating shaft , thereby driving the second rotating shaft to rotate. the base (10a;102;204) is connected to the fan head (12;104;202) by a rotating shaft ; the fan head (12;104;202) further comprises a second electric motor connected to the rotating shaft ; the fan head (12;104;202) is arranged to integrally rotate about the second axis (B;D;F) relative to the base (10a;102;204) and along the circumferential direction relative to the base (10a;102;204); the second axis is arranged at a certain fixed angle relative to the first axis; and the fan head part further comprises a mounting portion for mounting the fan head (12;104;202) to the base (10a;102;204), the central axis of the mounting portion being obliquely arranged relative to the first axis (A;C;E), the mounting portion being provided with a second rotating shaft , the rotating shaft of the second electric motor is connected to the second rotating shaft , thereby driving the second rotating shaft to rotate.
A manufacturing method of a wound core , comprising: a steel sheet preparation step of preparing a coated grain-oriented electrical steel sheet ; a bending step of bending the coated grain-oriented electrical steel sheet to form a bent body having a bent region and a flat region adjacent to the bent region under conditions that a portion of the bent body to be the bent region is heated to 45°C or higher and 500°C or lower by induction heating, and when a region extending 40 times a sheet thickness of the coated grain-oriented electrical steel sheet to both sides in a circumferential direction from a center of the bent region on an outer circumferential surface of the bent body is defined as a strain affected region, in the flat region within the strain affected region, an absolute value of a local temperature gradient at any position in a longitudinal direction of the coated grain-oriented electrical steel sheet is 3°C/mm or higher and less than 400°C/mm; and a lamination step of laminating a plurality of bent bodies in a sheet thickness direction. a steel sheet preparation step of preparing a coated grain-oriented electrical steel sheet ; a bending step of bending the coated grain-oriented electrical steel sheet to form a bent body having a bent region and a flat region adjacent to the bent region under conditions that a portion of the bent body to be the bent region is heated to 45°C or higher and 500°C or lower by induction heating, and when a region extending 40 times a sheet thickness of the coated grain-oriented electrical steel sheet to both sides in a circumferential direction from a center of the bent region on an outer circumferential surface of the bent body is defined as a strain affected region, in the flat region within the strain affected region, an absolute value of a local temperature gradient at any position in a longitudinal direction of the coated grain-oriented electrical steel sheet is 3°C/mm or higher and less than 400°C/mm; and a lamination step of laminating a plurality of bent bodies in a sheet thickness direction.