mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for scheduling in a wireless communications network, comprising: means for establishing a common service time for stations with similar data stream characteristics, wherein stations with similar data stream characteristics are stations with data streams of the same traffic type, comprising: means for scheduling a first station for a first period having a first duration, a first start time, and a first end time; and means for scheduling a second station for a second period having a second duration and a second start time that is prior to the first end time, wherein the first and second stations have data streams of the same traffic type and the first and second periods are within the common service time period, wherein said first and second periods are signaled to said first and second stations prior to start of said first period. means for establishing a common service time for stations with similar data stream characteristics, wherein stations with similar data stream characteristics are stations with data streams of the same traffic type, comprising: means for scheduling a first station for a first period having a first duration, a first start time, and a first end time; and means for scheduling a second station for a second period having a second duration and a second start time that is prior to the first end time, means for scheduling a first station for a first period having a first duration, a first start time, and a first end time; and means for scheduling a second station for a second period having a second duration and a second start time that is prior to the first end time, wherein the first and second stations have data streams of the same traffic type and the first and second periods are within the common service time period, wherein said first and second periods are signaled to said first and second stations prior to start of said first period.
A method for a first base station that provides radio communication service to user equipments, UEs, and has a first cell service area, where the first cell service area is within or adjacent to a second cell service area of a second base station which provides radio communication service to UEs in the second cell service area, the first base station performing the following steps: receiving cell range expansion, CRE, information from the second base station for expanding the size of the first cell, and evaluating handover of one or more UEs with respect to the second cell based on the CRE information, characterized in that the CRE information includes a CRE offset for UE handover measurements to increase a probability of UE handover from the second cell to the first cell, wherein the CRE information includes protected communication time information indicating when there is less interference affecting the first cell from the second cell, the method further comprising: accepting handover of the one or more UEs from the second base station, and serving the one or more UEs in a cell range expansion region of the first cell during protected communication time periods. receiving cell range expansion, CRE, information from the second base station for expanding the size of the first cell, and evaluating handover of one or more UEs with respect to the second cell based on the CRE information, characterized in that the CRE information includes a CRE offset for UE handover measurements to increase a probability of UE handover from the second cell to the first cell, wherein the CRE information includes protected communication time information indicating when there is less interference affecting the first cell from the second cell, the method further comprising: accepting handover of the one or more UEs from the second base station, and serving the one or more UEs in a cell range expansion region of the first cell during protected communication time periods. accepting handover of the one or more UEs from the second base station, and serving the one or more UEs in a cell range expansion region of the first cell during protected communication time periods.
A device for cleaning the lower limbs of a user, wishing to access a swimming area, the cleaning device comprising: - a coating intended to be trodden on by the bare feet of a user, the surface of the coating being permeable to an aqueous solution; - means for nebulizing an aqueous cleaning or disinfection solution above the coating; - means (44, 46) for detecting the presence of a user on the coating; - a control module configured for activating the nebulizing means when the detection means (44, 46) detect the presence of a user on the coating, characterized in that the sizes of the droplets expelled through the nebulizing means are between 10 μm and 30 μm. - a coating intended to be trodden on by the bare feet of a user, the surface of the coating being permeable to an aqueous solution; - means for nebulizing an aqueous cleaning or disinfection solution above the coating; - means (44, 46) for detecting the presence of a user on the coating; - a control module configured for activating the nebulizing means when the detection means (44, 46) detect the presence of a user on the coating,
A system operative to perform secure operations, comprising: an I/O subsystem; a memory subsystem; and a plurality of processors (121 - 123, 125) to execute a plurality of processes in a plurality of trusted execution environments, in the following also referred to as TEEs, each of the TEEs is identified by a corresponding access identifier, in the following also referred to as AID, and protected by a corresponding system resource protection unit, in the following also referred to as SRPU, (151 - 156), wherein the corresponding SRPU (151 - 153) of a TEE includes instructions, when executed by a corresponding processor (121 - 123) cause the corresponding processor (121 - 123) to control access to the TEE by checking a data structure including allowed AIDs and pointers to memory locations accessible by the allowed AIDs and rejecting access from another TEE identified by the AID that is not one of the allowed AIDs to the TEE, characterized in in that the plurality of processors (121 - 123, 125) are further to execute a plurality of processes in a plurality of rich execution environments, in the following also referred to as REEs, each of the REEs is identified by a corresponding AID, and protected by a corresponding SRPU (151 - 156), wherein, when executed by a corresponding one of the processors (121 - 123), a monitor process in each TEE is operative to detect an attack on the TEE and cause an AID of the TEE to be removed from all data structures used by all SRPUs (151 - 157) in the system. an I/O subsystem; a memory subsystem; and a plurality of processors (121 - 123, 125) to execute a plurality of processes in a plurality of trusted execution environments, in the following also referred to as TEEs, each of the TEEs is identified by a corresponding access identifier, in the following also referred to as AID, and protected by a corresponding system resource protection unit, in the following also referred to as SRPU, (151 - 156), wherein the corresponding SRPU (151 - 153) of a TEE includes instructions, when executed by a corresponding processor (121 - 123) cause the corresponding processor (121 - 123) to control access to the TEE by checking a data structure including allowed AIDs and pointers to memory locations accessible by the allowed AIDs and rejecting access from another TEE identified by the AID that is not one of the allowed AIDs to the TEE, characterized in in that the plurality of processors (121 - 123, 125) are further to execute a plurality of processes in a plurality of rich execution environments, in the following also referred to as REEs, each of the REEs is identified by a corresponding AID, and protected by a corresponding SRPU (151 - 156), wherein, when executed by a corresponding one of the processors (121 - 123), a monitor process in each TEE is operative to detect an attack on the TEE and cause an AID of the TEE to be removed from all data structures used by all SRPUs (151 - 157) in the system.
A multi-layer circuit board comprising: a first catalytic layer having a surface which contains an insufficient density of catalytic particles to enable electroless plating unless a channel extending an exclusion depth below the surface is reached, the first catalytic layer having a conductive trace formed by electroless deposition in a channel in the first catalytic layer, the channel extending into the first catalytic layer and below the exclusion depth for catalytic particles; a second catalytic layer applied, bonded, or laminated to the first catalytic layer, the second catalytic layer having a channel formed through the thickness of the second catalytic layer and extending in depth to the conductive trace of the first catalytic layer; the channel of the second catalytic layer filled with a conductive metal by electroless deposition and in contact with the electroless deposition of the first catalytic layer. a first catalytic layer having a surface which contains an insufficient density of catalytic particles to enable electroless plating unless a channel extending an exclusion depth below the surface is reached, the first catalytic layer having a conductive trace formed by electroless deposition in a channel in the first catalytic layer, the channel extending into the first catalytic layer and below the exclusion depth for catalytic particles; a second catalytic layer applied, bonded, or laminated to the first catalytic layer, the second catalytic layer having a channel formed through the thickness of the second catalytic layer and extending in depth to the conductive trace of the first catalytic layer; the channel of the second catalytic layer filled with a conductive metal by electroless deposition and in contact with the electroless deposition of the first catalytic layer.
A method of providing an indication to a driver of a geared vehicle that the vehicle is not in an optimal gear, comprising: determining a current gear of the vehicle; determining a current speed of a drive unit of the vehicle; determining a coasting state of the vehicle; and providing an indication to the driver of the vehicle that the vehicle is not in an optimal gear when: (i) the determined current speed of the drive unit is greater than a first predetermined threshold; (ii) the determined current gear of the vehicle is less than a maximum gear of the vehicle; and (iii) the determined coasting state of the vehicle indicates the vehicle is not currently coasting, characterised in that: the coasting state of the vehicle is determined based upon at least one of: a comparison between the current speed of the drive unit of the vehicle and at least one second predetermined threshold, and a fuel usage rate of the drive unit of the vehicle, wherein the current speed of the drive unit and the fuel usage rate are obtained by an onboard diagnostics adaptor. determining a current gear of the vehicle; determining a current speed of a drive unit of the vehicle; determining a coasting state of the vehicle; and providing an indication to the driver of the vehicle that the vehicle is not in an optimal gear when: (i) the determined current speed of the drive unit is greater than a first predetermined threshold; (ii) the determined current gear of the vehicle is less than a maximum gear of the vehicle; and (iii) the determined coasting state of the vehicle indicates the vehicle is not currently coasting, (i) the determined current speed of the drive unit is greater than a first predetermined threshold; (ii) the determined current gear of the vehicle is less than a maximum gear of the vehicle; and (iii) the determined coasting state of the vehicle indicates the vehicle is not currently coasting, characterised in that: the coasting state of the vehicle is determined based upon at least one of: a comparison between the current speed of the drive unit of the vehicle and at least one second predetermined threshold, and a fuel usage rate of the drive unit of the vehicle, wherein the current speed of the drive unit and the fuel usage rate are obtained by an onboard diagnostics adaptor. the coasting state of the vehicle is determined based upon at least one of: a comparison between the current speed of the drive unit of the vehicle and at least one second predetermined threshold, and a fuel usage rate of the drive unit of the vehicle, wherein the current speed of the drive unit and the fuel usage rate are obtained by an onboard diagnostics adaptor.
A plating apparatus for the spine, comprising: a plate having a generally triangular shape and having an upper node and a pair of lower nodes (9a, 10a); an upper hole in the plate at the upper node to receive a screw for passage into an L5 vertebra; and a first lower hole in the plate formed through one of the lower nodes to receive a screw for passage into the S1 vertebra and a second lower hole in the plate through the other of the lower nodes to receive a screw for passage into the S1 vertebra, characterized in that said plate includes a protrusion extending from a posterior face of said plate and extending along at least part or substantially all of its width and adapted to contact the inferior margin of the L5 vertebra, wherein the plate is sized and shaped for placement between the L5 and the S 1 vertebrae. a plate having a generally triangular shape and having an upper node and a pair of lower nodes (9a, 10a); an upper hole in the plate at the upper node to receive a screw for passage into an L5 vertebra; and a first lower hole in the plate formed through one of the lower nodes to receive a screw for passage into the S1 vertebra and a second lower hole in the plate through the other of the lower nodes to receive a screw for passage into the S1 vertebra, characterized in that said plate includes a protrusion extending from a posterior face of said plate and extending along at least part or substantially all of its width and adapted to contact the inferior margin of the L5 vertebra, wherein the plate is sized and shaped for placement between the L5 and the S 1 vertebrae.
An aqueous metal-ion battery comprising: an aqueous electrolyte; a first electrode comprising at least one organic electrode material, the at least one organic electrode material comprises an organic carbonyl compound having a structural formula chosen from the group consisting of:, wherein the core is at least one structural formula chosen from the group consisting of: wherein the chain comprises any polymer or oligomer; L comprises a moeity chosen from the group consisting of dicarbonyl, NH, O, S, CH 2, (CH 2) 2, (CH 2) 3, (CH 2) 4, (CH 2) 6, optionally substituted 5-6 membered aryl/heteroaryl groups, R comprises at least one of H, CH 3 or C 2 H 5; n is at least 2; Ar 1 comprises at least one moiety chosen from the group consisting of naphthalene, perylene, optionally substituted 5-6 membered aryl or heteroaryl groups, and biaryls consisting of two identical or different optionally substituted 5-6 membered aryl or heteroaryl groups; and a counter electrode capable of intercalation by or coordination to at least one metal-ion chosen from the group consisting of lithium (Li), sodium (Na), magnesium (Mg), calcium (Ca), and aluminum (Al), and combinations thereof; wherein the counter electrode comprises at least one organic electrode material chosen from the group consisting of carbonyl compounds, organosulfur compounds, radical compounds, non-conjugated polymers, and combinations thereof. an aqueous electrolyte; a first electrode comprising at least one organic electrode material, the at least one organic electrode material comprises an organic carbonyl compound having a structural formula chosen from the group consisting of:, wherein the core is at least one structural formula chosen from the group consisting of: wherein the chain comprises any polymer or oligomer; L comprises a moeity chosen from the group consisting of dicarbonyl, NH, O, S, CH 2, (CH 2) 2, (CH 2) 3, (CH 2) 4, (CH 2) 6, optionally substituted 5-6 membered aryl/heteroaryl groups, R comprises at least one of H, CH 3 or C 2 H 5; n is at least 2; Ar 1 comprises at least one moiety chosen from the group consisting of naphthalene, perylene, optionally substituted 5-6 membered aryl or heteroaryl groups, and biaryls consisting of two identical or different optionally substituted 5-6 membered aryl or heteroaryl groups; and a counter electrode capable of intercalation by or coordination to at least one metal-ion chosen from the group consisting of lithium (Li), sodium (Na), magnesium (Mg), calcium (Ca), and aluminum (Al), and combinations thereof; wherein the counter electrode comprises at least one organic electrode material chosen from the group consisting of carbonyl compounds, organosulfur compounds, radical compounds, non-conjugated polymers, and combinations thereof.
A glass plate production method comprising: preparing a glass material having a first main surface and a second main surface opposite to each other; irradiating the first main surface of the glass material with a laser to form an in-plane void region having a plurality of voids arranged on the first main surface, and forming a plurality of internal void rows in a virtual end face, each of the internal void rows having one void or two or more voids arranged from the in-plane void region toward the second main surface of the glass material, the virtual end face including the in-plane void region having the plurality of voids; and chemically strengthening the glass material having the internal void rows formed therein, characterised in that in the in-plane void region, the diameter of the voids falls within a range of 0.2 to 10 μm, and an interval between the adjacent voids falls within a range of 1 to 20 μm. preparing a glass material having a first main surface and a second main surface opposite to each other; irradiating the first main surface of the glass material with a laser to form an in-plane void region having a plurality of voids arranged on the first main surface, and forming a plurality of internal void rows in a virtual end face, each of the internal void rows having one void or two or more voids arranged from the in-plane void region toward the second main surface of the glass material, the virtual end face including the in-plane void region having the plurality of voids; and chemically strengthening the glass material having the internal void rows formed therein,
A multilayer plate for heating and/or cooling buildings, wherein at least one heat conducting plate made out of a material with a high thermal conductivity is provided, wherein the heat conducting plate exhibits a plurality of channels for accommodating pipes for a heat transfer medium, wherein the rear side of the heat conducting plate is connected to a foam plastic plate or embedded in a foam plastic plate, characterized in that the foam plastic plate is reinforced with at least one reinforcing element that at least partially penetrates through the foam plastic plate, and that the reinforcing elements at least partially abut against the heat conducting plate.
Method for processing interrupt requests in a processor that is suitable for executing at least two threads in parallel, wherein an instruction pipeline is provided for each of the at least two threads, the method comprising the following steps: - defining one of the at least two threads as a main thread for processing a program, - assigning a thread of the at least two threads as an interrupt thread to the main thread, - starting the main thread by the processor, - receiving an interrupt request, - storing interrupt data in a register assigned to the interrupt thread by the processor, - starting the processing of an interrupt routine in the interrupt thread; characterized in that the following steps are additionally carried out: - placing the interrupt thread in a standby mode after a pre-initialization of the interrupt thread, - stopping the processing of the program in the main thread after the interrupt request is received, - executing a part of the interrupt routine in the interrupt thread, - resuming processing the program in the main thread after processing the one part of the interrupt routine in the interrupt thread, wherein resumption is started by transmitting a signal from the interrupt thread to the main thread, - carrying out interrupt post-processing in the interrupt thread parallel to the resumed processing of the program in the main thread. - defining one of the at least two threads as a main thread for processing a program, - assigning a thread of the at least two threads as an interrupt thread to the main thread, - starting the main thread by the processor, - receiving an interrupt request, - storing interrupt data in a register assigned to the interrupt thread by the processor, - starting the processing of an interrupt routine in the interrupt thread; - placing the interrupt thread in a standby mode after a pre-initialization of the interrupt thread, - stopping the processing of the program in the main thread after the interrupt request is received, - executing a part of the interrupt routine in the interrupt thread, - resuming processing the program in the main thread after processing the one part of the interrupt routine in the interrupt thread, wherein resumption is started by transmitting a signal from the interrupt thread to the main thread, - carrying out interrupt post-processing in the interrupt thread parallel to the resumed processing of the program in the main thread.
A glow plug, comprising: a heating unit that generates heat by transmission of electricity; and a sheath tube including a tube portion and a welded portion, the tube portion being disposed at an outer circumference of the heating unit and extending in an axial direction, the welded portion containing at least a main constituent of the tube portion and a main constituent of the heating unit and closing a front end of the tube portion, wherein the tube portion contains aluminum at a content ratio of more than 1.7 mass% and the heating unit does not contain aluminum, and the welded portion contains aluminum at a content ratio of less than 2 mass% at a part near a boundary with the tube portion, wherein this content ratio is calculated as an average value of content ratios of aluminum on a straight line analyzed at 10 μm intervals, the straight line obtained by translating a straight line passing through a point located at a most front end side on the interface of the welded portion and the tube portion and a point located at a most rear end side on the interface of the welded portion and the tube portion to an axial line side by 0.3 mm, with a part of 0.03 mm from the surface of the welded portion 850 being excluded. a heating unit that generates heat by transmission of electricity; and a sheath tube including a tube portion and a welded portion, the tube portion being disposed at an outer circumference of the heating unit and extending in an axial direction, the welded portion containing at least a main constituent of the tube portion and a main constituent of the heating unit and closing a front end of the tube portion, wherein the tube portion contains aluminum at a content ratio of more than 1.7 mass% and the heating unit does not contain aluminum, and the welded portion contains aluminum at a content ratio of less than 2 mass% at a part near a boundary with the tube portion, wherein this content ratio is calculated as an average value of content ratios of aluminum on a straight line analyzed at 10 μm intervals, the straight line obtained by translating a straight line passing through a point located at a most front end side on the interface of the welded portion and the tube portion and a point located at a most rear end side on the interface of the welded portion and the tube portion to an axial line side by 0.3 mm, with a part of 0.03 mm from the surface of the welded portion 850 being excluded.