mhurhangee/ep-ind-claims huggingface dataset:
A computing device, comprising: a plurality of processing units; a plurality of (N-1)-level caches (L1-A1, L1-A2); an N-level cache (L2-A1) that is associated with two or more of the plurality of (N-1)-level caches, and that is configured as a backing store for the two or more (N-1)-level caches; and control logic that configures the computing device to perform at least the following: based at least on detecting one or more influxes of data to a particular location in the N-level cache during execution across the plurality of processing units, cause the one or more influxes of data to the particular location in the N-level cache to be logged; and cause one or more (N-1)-level cache coherence protocol, CCP, transitions between the two or more (N-1)-level caches to be logged, the (N-1)-level CCP transitions resulting from the particular location being accessed by two or more of the plurality of processing units. a plurality of processing units; a plurality of (N-1)-level caches (L1-A1, L1-A2); an N-level cache (L2-A1) that is associated with two or more of the plurality of (N-1)-level caches, and that is configured as a backing store for the two or more (N-1)-level caches; and control logic that configures the computing device to perform at least the following: based at least on detecting one or more influxes of data to a particular location in the N-level cache during execution across the plurality of processing units, cause the one or more influxes of data to the particular location in the N-level cache to be logged; and cause one or more (N-1)-level cache coherence protocol, CCP, transitions between the two or more (N-1)-level caches to be logged, the (N-1)-level CCP transitions resulting from the particular location being accessed by two or more of the plurality of processing units. based at least on detecting one or more influxes of data to a particular location in the N-level cache during execution across the plurality of processing units, cause the one or more influxes of data to the particular location in the N-level cache to be logged; and cause one or more (N-1)-level cache coherence protocol, CCP, transitions between the two or more (N-1)-level caches to be logged, the (N-1)-level CCP transitions resulting from the particular location being accessed by two or more of the plurality of processing units.
A method for determining transmit power comprising: receiving in a mobile device a cell-wide power control parameter related to a target receive power at a serving base station; calculating, in the mobile device, a transmit power in response to the cell-wide power control parameter and an implicit mobile-specific power control parameter; and transmitting using the transmit power; characterized in that: said implicit mobile-specific power control parameter is a modulation and coding level previously used by the mobile device, and wherein said calculating the transmit power comprises calculating the transmit power using the cell-wide power control parameter and the modulation and coding level previously used by the mobile device. receiving in a mobile device a cell-wide power control parameter related to a target receive power at a serving base station; calculating, in the mobile device, a transmit power in response to the cell-wide power control parameter and an implicit mobile-specific power control parameter; and transmitting using the transmit power; characterized in that: said implicit mobile-specific power control parameter is a modulation and coding level previously used by the mobile device, and wherein said calculating the transmit power comprises calculating the transmit power using the cell-wide power control parameter and the modulation and coding level previously used by the mobile device.
Multi-beam particle microscope, comprising: a multi-beam particle source configured to create a plurality of primary particle beams; an objective lens penetrated by beam paths of the plurality of primary particle beams and configured to direct each of the plurality of primary particle beams to an object plane and to focus said primary particle beams there; and a detector arrangement configured to detect intensities of a plurality of electron beams, electrons in the electron beams being created by particles of the primary particle beams at an object that is arrangeable in the object plane; characterized by a multi-aperture plate arranged between the objective lens and the object plane at a distance from said object plane and having a plurality of openings, wherein different openings of the multi-aperture plate are penetrated by beam paths of different primary particle beams, and wherein the multi-aperture plate comprises a plurality of converters (403; 411; 413), at least one converter of the plurality of converters being provided at each opening of the plurality of openings, the converters being configured to convert backscattered electrons that are created by the primary particle beams at the object and that have higher kinetic energy levels at the object than a predetermined first energy threshold value into electrons that have lower kinetic energy levels at the converter than a predetermined second energy threshold value and that provide electrons which form the electron beams that are detected by the detector arrangement. a multi-beam particle source configured to create a plurality of primary particle beams; an objective lens penetrated by beam paths of the plurality of primary particle beams and configured to direct each of the plurality of primary particle beams to an object plane and to focus said primary particle beams there; and a detector arrangement configured to detect intensities of a plurality of electron beams, electrons in the electron beams being created by particles of the primary particle beams at an object that is arrangeable in the object plane; characterized by a multi-aperture plate arranged between the objective lens and the object plane at a distance from said object plane and having a plurality of openings, wherein different openings of the multi-aperture plate are penetrated by beam paths of different primary particle beams, and wherein the multi-aperture plate comprises a plurality of converters (403; 411; 413), at least one converter of the plurality of converters being provided at each opening of the plurality of openings, the converters being configured to convert backscattered electrons that are created by the primary particle beams at the object and that have higher kinetic energy levels at the object than a predetermined first energy threshold value into electrons that have lower kinetic energy levels at the converter than a predetermined second energy threshold value and that provide electrons which form the electron beams that are detected by the detector arrangement.
A method for modeling a digital design of a denture for a patient (1764;2464), said denture comprising a gingival part (2366;2466) and a teeth part comprising a set of denture teeth (1330;1930;2430), where the method comprises: - obtaining a digital 3D representation of the patient's gum (925,928;1925,1928;2028); - obtaining a digital 3D representation of a lower wax rim (927;1527;1927) and/or obtaining a digital 3D representation of an upper wax rim (924;1524;1924); - obtaining virtual teeth models (930;1430;1930;2430) corresponding to the denture teeth; - virtually arranging the teeth models (930;1430;1930;2430) relative to the 3D representation of the patient's gum (1925; 1928) and the digital 3D representation of the lower wax rim and/or the digital 3D representation of the upper wax rim; and - generating a virtual outer gingival surface (2166; 2666) of the gingival part of the denture, the virtual outer gingival surface being shaped according to the shape of the root end of the teeth by adding one or more virtual root protrusions or virtual cervical protrusions (1345; 2345) at the corresponding sections. - obtaining a digital 3D representation of the patient's gum (925,928;1925,1928;2028); - obtaining a digital 3D representation of a lower wax rim (927;1527;1927) and/or obtaining a digital 3D representation of an upper wax rim (924;1524;1924); - obtaining virtual teeth models (930;1430;1930;2430) corresponding to the denture teeth; - virtually arranging the teeth models (930;1430;1930;2430) relative to the 3D representation of the patient's gum (1925; 1928) and the digital 3D representation of the lower wax rim and/or the digital 3D representation of the upper wax rim; and - generating a virtual outer gingival surface (2166; 2666) of the gingival part of the denture, the virtual outer gingival surface being shaped according to the shape of the root end of the teeth by adding one or more virtual root protrusions or virtual cervical protrusions (1345; 2345) at the corresponding sections.
A band saw blade comprising: a blade body comprising a back edge; a cutting edge disposed on an opposite side of the blade body from the back edge, the cutting edge being defined by a plurality of teeth (102, 104, 106) spaced relative to each other and extending along the blade body, each of the plurality of teeth comprising: a tip; a substantially linear rake face located on a first side of the tip; a relief surface located on a second side of the tip opposite the first side; a gullet located adjacent to the rake face and have a gullet depth; wherein the gullet comprises: a first curved section extending from the rake face; a substantially linear section extending from the first curved section, wherein the substantially linear section extends substantially parallel to the back edge of the blade body; a second curved section extending from the substantially linear section to a second relief surface of a preceding tooth in a cutting direction of the band saw blade; wherein the gullet depth is a vertical distance between the tip and the substantially linear section of the gullet; characterised in that each of the plurality of teeth further comprises: a notch located on the first side of the tip and defined by a junction of the rake face and the gullet, wherein the notch is located along the first side of the tip at a notch depth in the range of substantially (0.45 * D) to substantially (0.49 * D) down vertically from the tip of the respective one of the plurality of teeth. a blade body comprising a back edge; a cutting edge disposed on an opposite side of the blade body from the back edge, the cutting edge being defined by a plurality of teeth (102, 104, 106) spaced relative to each other and extending along the blade body, each of the plurality of teeth comprising: a tip; a substantially linear rake face located on a first side of the tip; a relief surface located on a second side of the tip opposite the first side; a gullet located adjacent to the rake face and have a gullet depth; a tip; a substantially linear rake face located on a first side of the tip; a relief surface located on a second side of the tip opposite the first side; a gullet located adjacent to the rake face and have a gullet depth; a first curved section extending from the rake face; a substantially linear section extending from the first curved section, wherein the substantially linear section extends substantially parallel to the back edge of the blade body; a second curved section extending from the substantially linear section to a second relief surface of a preceding tooth in a cutting direction of the band saw blade; wherein the gullet depth is a vertical distance between the tip and the substantially linear section of the gullet;
Method for surface working of semi-finished products made of stone or the like base material using abrasive-free liquids jets, comprising the following steps: a) providing a moving or stationary support base for the products to be worked; b) providing a plurality of nozzles (4, 4', 4",...) for generating jets oriented toward the products being worked; c) feeding said nozzles (4, 4', 4",...) with a high pressure liquid adapted to create cuts on the products being worked; d) moving the products relative to said nozzles (4, 4', 4",...) in a longitudinal direction; characterized in that said nozzles (4, 4', 4",...) are arranged in mutually offset positions (e) in a transverse direction with a predetermined pitch (p) and in that the projection of their pitch (p) is continuously adjusted on a vertical plane (π) substantially parallel to said transverse direction during operation to change the transverse distance (d) between the longitudinal cuts of said jets. a) providing a moving or stationary support base for the products to be worked; b) providing a plurality of nozzles (4, 4', 4",...) for generating jets oriented toward the products being worked; c) feeding said nozzles (4, 4', 4",...) with a high pressure liquid adapted to create cuts on the products being worked; d) moving the products relative to said nozzles (4, 4', 4",...) in a longitudinal direction;
An electrical distribution system for an electronic circuit comprising: a power source input; and a common connection between a plurality of components, wherein the power source input is electrically coupled to the plurality of components via the common connection; characterised in that the common connection is formed by a bus bar comprising: a memory metal substrate framework having a plurality of memory metal wires orientated along a longitudinal axis of the bus bar and configured to exploit contraction in the longitudinal direction in response to an increase in temperature; an electrically conductive material applied to the memory metal substrate framework through an additive manufacturing technique and configured to expand in response to the increase in temperature, such that the memory metal substrate framework and the electrically conductive material comprise a substantially net zero coefficient of thermal expansion in response to current being delivered via the common connection; and a solder pad formed on a surface of the bus bar, wherein the solder pad is formed through an additive manufacturing technique to form a common connection die attach location. a power source input; and a common connection between a plurality of components, wherein the power source input is electrically coupled to the plurality of components via the common connection; characterised in that the common connection is formed by a bus bar comprising: a memory metal substrate framework having a plurality of memory metal wires orientated along a longitudinal axis of the bus bar and configured to exploit contraction in the longitudinal direction in response to an increase in temperature; an electrically conductive material applied to the memory metal substrate framework through an additive manufacturing technique and configured to expand in response to the increase in temperature, such that the memory metal substrate framework and the electrically conductive material comprise a substantially net zero coefficient of thermal expansion in response to current being delivered via the common connection; and a solder pad formed on a surface of the bus bar, wherein the solder pad is formed through an additive manufacturing technique to form a common connection die attach location. a memory metal substrate framework having a plurality of memory metal wires orientated along a longitudinal axis of the bus bar and configured to exploit contraction in the longitudinal direction in response to an increase in temperature; an electrically conductive material applied to the memory metal substrate framework through an additive manufacturing technique and configured to expand in response to the increase in temperature, such that the memory metal substrate framework and the electrically conductive material comprise a substantially net zero coefficient of thermal expansion in response to current being delivered via the common connection; and a solder pad formed on a surface of the bus bar, wherein the solder pad is formed through an additive manufacturing technique to form a common connection die attach location.
A method of allocating radio resources (205, 210) to at least one radio link in a cell within a mobile radio communications system, wherein the radio resources are arranged in channels divided into time frames, the method comprises the steps of: generating (305; 405) an estimate of a cost of allocating radio resources available for allocation to the at least one radio link, wherein the cost estimate is generated in dependency of which radio resources have been used within the cell at previous times; and allocating radio resources to the at least one radio link in dependency of the cost estimate, characterised in that the step of generating an estimate of the cost comprises: checking whether an available channel was allocated to a radio link in the cell during a time frame being the most recently scheduled time frame; and associating an increased cost to the available channel if it was not allocated to a radio link in the most recently scheduled time frame. generating (305; 405) an estimate of a cost of allocating radio resources available for allocation to the at least one radio link, wherein the cost estimate is generated in dependency of which radio resources have been used within the cell at previous times; and allocating radio resources to the at least one radio link in dependency of the cost estimate, characterised in that the step of generating an estimate of the cost comprises: checking whether an available channel was allocated to a radio link in the cell during a time frame being the most recently scheduled time frame; and associating an increased cost to the available channel if it was not allocated to a radio link in the most recently scheduled time frame. checking whether an available channel was allocated to a radio link in the cell during a time frame being the most recently scheduled time frame; and associating an increased cost to the available channel if it was not allocated to a radio link in the most recently scheduled time frame.
An unmanned aerial vehicle, UAV, module, comprising: a UAV having foldable wings coupled to a body of the UAV; a UAV case having length and width dimensions that is constructed and arranged to operate selectively in a closed configuration that stores and protects the UAV while the UAV is transported within the UAV case between locations with the foldable wings in a folded configuration, or an opened configuration that provides a base from which the UAV is configured to launch vertically from within the UAV case and configured to maintain airborne above said UAV case, while the foldable wings of the UAV remain in the folded configuration; wherein the UAV is constructed and arranged to automatically unfold the foldable wings outwards from under the body of the UAV to form a fixed wing having a length that extends beyond the length and width dimensions of the UAV case for fixed wing horizontal flight after the UAV is airborne; characterized in that the foldable wings are folded under the body of the UAV when the foldable wings are in the folded configuration. a UAV having foldable wings coupled to a body of the UAV; a UAV case having length and width dimensions that is constructed and arranged to operate selectively in a closed configuration that stores and protects the UAV while the UAV is transported within the UAV case between locations with the foldable wings in a folded configuration, or an opened configuration that provides a base from which the UAV is configured to launch vertically from within the UAV case and configured to maintain airborne above said UAV case, while the foldable wings of the UAV remain in the folded configuration; wherein the UAV is constructed and arranged to automatically unfold the foldable wings outwards from under the body of the UAV to form a fixed wing having a length that extends beyond the length and width dimensions of the UAV case for fixed wing horizontal flight after the UAV is airborne; characterized in that the foldable wings are folded under the body of the UAV when the foldable wings are in the folded configuration.
Gearing mechanism, in particular worm gearing mechanism for devices for power-operated adjustment of elements of a motor vehicle, having a housing component and a shaft which is mounted in the housing component and can be driven in rotation in relation to the housing component about a rotational axis in a first rotational direction and in a second rotational direction which is opposed to the first rotational direction, wherein a wrap-around body is provided which wraps around the shaft, in that the wrap-around body is configured as a spring-elastic wrap-around body, in that an inwardly oriented friction face is provided, and in that the wrap-around body is arranged, for the purpose of interaction with the friction face, at least in certain sections within the inwardly oriented friction face, and, in an initial state, the wrap-around body is prestressed with respect to the shaft and prestressed with respect to the friction face, and characterized in that the prestresses, provided in the initial state, of the wrap-around body with respect to the shaft and with respect to the friction face are predefined with different magnitudes, and, when the shaft rotates in the first rotational direction, the wrap-around body is stretched in certain sections in such a way that a cross section of the wrap-around body against the shaft decreases and/or a force pressing the wrap-around body against the shaft increases, and/or in that, when the shaft rotates in the first rotational direction, the wrap-around body is stretched in certain sections in such a way that a cross section of the wrap-around body against the friction face decreases and/or a force pressing the wrap-around body against the friction face decreases.
A method for purifying at least one saponin in a solution comprising the steps of: (a) providing at least one saponin in a first solvent comprising a solubilizing component; (b) replacing at least a portion of the solubilizing component with an exchange solvent by one or more of: diafiltration, ultrafiltration or dialysis, thereby producing a replaced solvent; (c) removing the replaced solvent by lyophilization, to produce a dried saponin product comprising at least one saponin; wherein the first solvent comprises at least one partially purified saponin selected from the group QS-7, QS-17, QS-18 and QS-21; and the first solvent comprises at least 22% volume/volume acetonitrile; and the replaced solvent comprises no more than 21% volume/volume acetonitrile. (a) providing at least one saponin in a first solvent comprising a solubilizing component; (b) replacing at least a portion of the solubilizing component with an exchange solvent by one or more of: diafiltration, ultrafiltration or dialysis, thereby producing a replaced solvent; (c) removing the replaced solvent by lyophilization, to produce a dried saponin product comprising at least one saponin;