mhurhangee/ep-ind-claims huggingface dataset:
A power management system comprising: a first switch having a first transfer terminal and a first body diode; a second switch having a second transfer terminal and a second body diode; a third switch having a third transfer terminal and a third body diode; a fourth switch coupled to said third switch and having a fourth body diode; and a controller coupled to said first, second, third and fourth switches (512, 514, 516, 518) and operable for controlling power conversion by turning on said third and fourth switches (516, 518) alternately, wherein said first, second and third transfer terminals (512A, 514A, 516A) are coupled to a common node, and wherein resistance between said first transfer terminal and said common node, resistance between said second transfer terminal and said common node, and resistance between said third transfer terminal and said common node are substantially equal to zero, and wherein cathodes of said first, second and third body diodes (522, 524, 526) are coupled to said common node, and a cathode of said fourth body diode is coupled to an anode of said third body diode. a first switch having a first transfer terminal and a first body diode; a second switch having a second transfer terminal and a second body diode; a third switch having a third transfer terminal and a third body diode; a fourth switch coupled to said third switch and having a fourth body diode; and a controller coupled to said first, second, third and fourth switches (512, 514, 516, 518) and operable for controlling power conversion by turning on said third and fourth switches (516, 518) alternately, wherein said first, second and third transfer terminals (512A, 514A, 516A) are coupled to a common node, and wherein resistance between said first transfer terminal and said common node, resistance between said second transfer terminal and said common node, and resistance between said third transfer terminal and said common node are substantially equal to zero, and wherein cathodes of said first, second and third body diodes (522, 524, 526) are coupled to said common node, and a cathode of said fourth body diode is coupled to an anode of said third body diode.
A concentrate container for preparing a medical fluid, preferably for preparing a dialysis solution, the concentrate container (10; 20; 30; 40; 50; 60; 70) comprising at least two concentrate compartments (12, 14; 22, 24; 33, 34), wherein at least one of the concentrate compartments has a medical fluid outlet (16; 26; 36; 46), and at least one of the concentrate compartments has a diluent inlet (18; 28; 38; 48), wherein the concentrate container comprises a V-shaped inner surface and is rigid.
A device for determining an estimate of at least one secret value used by at least one cryptographic mechanism from a statistical distribution of a set of multivariate leakage traces, each leakage trace being a vector comprising a plurality of random values, the number of said random values being an integer number superior or equal to 1, said statistical distribution being a function of parametric linear combinations of a set of leakage model basis vectors representing a multivariate leakage model, the number of said basis vectors being an integer number superior or equal to 1, said linear combinations being defined by a matrix of real values comprising at least one unknown value, wherein said device is configured to determine said estimate of at least one secret value and an estimate of said at least one unknown value using a multivariate estimation algorithm according to the maximization of the probability of success secret value(s) recovery.
A method of forming pigment flakes comprising: providing a substrate with a surface having a plurality of regions, some of the regions raised or lowered with respect to an average level plane associated with the surface, wherein, for each two regions in an abutting relationship, a level of a first of the two regions is different from a level of a second of the two regions; providing a coating onto the substrate, wherein the thickness of the coating is greater than a difference between levels of regions of the substrate; and, removing the coating from the substrate and breaking the coating along region borders into the pigment flakes, wherein shapes of the pigment flakes are predetermined shapes corresponding to shapes of the regions. providing a substrate with a surface having a plurality of regions, some of the regions raised or lowered with respect to an average level plane associated with the surface, wherein, for each two regions in an abutting relationship, a level of a first of the two regions is different from a level of a second of the two regions; providing a coating onto the substrate, wherein the thickness of the coating is greater than a difference between levels of regions of the substrate; and, removing the coating from the substrate and breaking the coating along region borders into the pigment flakes, wherein shapes of the pigment flakes are predetermined shapes corresponding to shapes of the regions.
A cutter build and truing machine comprising: a machine base; and a cutter head spindle rotatable about a spindle axis B; characterised by further comprising a build carriage subsystem comprising a pair of blade positioning arms (52, 54) relatively movable toward and away from one another in a linear direction (Y 3, Y 4), said blade positioning arms (52, 54) being positionable for contacting a cutting blade at opposite lengthwise ends thereof, said blade positioning arms (52, 54) being further movable so as to position said cutting blade in a blade mounting slot of a cutter head releasably mountable on said cutter head spindle, said blade mounting slot extending in a lengthwise direction and said blade positioning arms being capable of moving said cutting blade in either direction along said lengthwise slot direction. a machine base; and a cutter head spindle rotatable about a spindle axis B; characterised by further comprising a build carriage subsystem comprising a pair of blade positioning arms (52, 54) relatively movable toward and away from one another in a linear direction (Y 3, Y 4), said blade positioning arms (52, 54) being positionable for contacting a cutting blade at opposite lengthwise ends thereof, said blade positioning arms (52, 54) being further movable so as to position said cutting blade in a blade mounting slot of a cutter head releasably mountable on said cutter head spindle, said blade mounting slot extending in a lengthwise direction and said blade positioning arms being capable of moving said cutting blade in either direction along said lengthwise slot direction.
A method of dynamically configuring a storage system to facilitate independent scaling of resources, the storage system comprising different sets of blades (408, 410) configured within each one of a plurality of chassis (406, 412), the method comprising: detecting a change to a topology of the storage system comprising detecting a change in the number of blades (408, 410) in a chassis (406, 412); and responsive to detecting the change to the topology of the storage system reconfiguring the storage system to change an allocation of resources to one or more authorities comprising ceasing execution of an authority on a particular blade (408, 410) and beginning execution of the authority on a different blade; wherein each authority (216, 218) represents a logical partition of control over every piece of data and metadata in the storage system, each authority embodied as a software module executing on compute resources (210, 212, 214) of a blade (408, 410); the method further comprising: associating storage on a first set of blades (408, 410) with a write group; and wherein reconfiguring the storage system further comprises associating, in dependence upon a write group formation policy, storage on a second set of blades (408, 410) with the write group. detecting a change to a topology of the storage system comprising detecting a change in the number of blades (408, 410) in a chassis (406, 412); and responsive to detecting the change to the topology of the storage system reconfiguring the storage system to change an allocation of resources to one or more authorities comprising ceasing execution of an authority on a particular blade (408, 410) and beginning execution of the authority on a different blade; wherein each authority (216, 218) represents a logical partition of control over every piece of data and metadata in the storage system, each authority embodied as a software module executing on compute resources (210, 212, 214) of a blade (408, 410); the method further comprising: associating storage on a first set of blades (408, 410) with a write group; and wherein reconfiguring the storage system further comprises associating, in dependence upon a write group formation policy, storage on a second set of blades (408, 410) with the write group. associating storage on a first set of blades (408, 410) with a write group; and wherein reconfiguring the storage system further comprises associating, in dependence upon a write group formation policy, storage on a second set of blades (408, 410) with the write group.
A method for the control of access network/access technology selection for the routing of IP traffic by a User Equipment UE in a multi-access Evolved Packet System EPS communication system, based on operator's policies, a method wherein: - said operator's policies include EPS Quality of Service QoS-based policies, based on IP traffic matching specific EPS QoS filters (QoSF1,...QoSFn), EPS QoS filters filtering IP traffic associated with specific values of at least one EPS QoS parameter, the Quality of Service EPS QoS being provided by said EPS system to said IP traffic and determined by a Policy and Charging Rules Function PCRF, said method comprising: - if said User Equipment cannot use Radio Access Technologies selection rules based on the target IP address of said IP traffic, said User Equipment selecting an access network/access technology for the routing of IP traffic, based on said EPS QoS-based policies, and on the EPS QoS associated with a Service Data Flow carrying said traffic, notified to said User Equipment when a service is started. - said operator's policies include EPS Quality of Service QoS-based policies, based on IP traffic matching specific EPS QoS filters (QoSF1,...QoSFn), EPS QoS filters filtering IP traffic associated with specific values of at least one EPS QoS parameter, the Quality of Service EPS QoS being provided by said EPS system to said IP traffic and determined by a Policy and Charging Rules Function PCRF, said method comprising: - if said User Equipment cannot use Radio Access Technologies selection rules based on the target IP address of said IP traffic, said User Equipment selecting an access network/access technology for the routing of IP traffic, based on said EPS QoS-based policies, and on the EPS QoS associated with a Service Data Flow carrying said traffic, notified to said User Equipment when a service is started.
A gas measurement apparatus (1, 3) for measuring a target gas, comprising: a light source configured to oscillate a wavelength of a laser light that has a central wavelength determined by a main current and which is wavelength modulated according to a modulation current at an oscillation frequency and with a width of wavelength modulation, while varying the central wavelength by changing the main current with a longer cycle than that of the modulation current; a standard sample; a detection unit configured to output a detection signal according to an intensity of the laser light transmitted through a standard sample; an obtaining unit configured to obtain a specific frequency component of the detection signal that oscillates at a frequency that is a positive integer multiple, of an oscillation frequency of the modulation current; a calculation unit configured to calculate a ratio of a magnitude of a local minimum of the specific frequency component with respect to the central wavelength of the laser light and a magnitude of a local maximum of the specific frequency component with respect to the central wavelength of the laser light; and a setting unit configured to set the width of the wavelength modulation of the laser light so that the calculated ratio satisfies a predetermined condition. a light source configured to oscillate a wavelength of a laser light that has a central wavelength determined by a main current and which is wavelength modulated according to a modulation current at an oscillation frequency and with a width of wavelength modulation, while varying the central wavelength by changing the main current with a longer cycle than that of the modulation current; a standard sample; a detection unit configured to output a detection signal according to an intensity of the laser light transmitted through a standard sample; an obtaining unit configured to obtain a specific frequency component of the detection signal that oscillates at a frequency that is a positive integer multiple, of an oscillation frequency of the modulation current; a calculation unit configured to calculate a ratio of a magnitude of a local minimum of the specific frequency component with respect to the central wavelength of the laser light and a magnitude of a local maximum of the specific frequency component with respect to the central wavelength of the laser light; and a setting unit configured to set the width of the wavelength modulation of the laser light so that the calculated ratio satisfies a predetermined condition.
An LED lighting fixture comprising: a set of LED optical units (26, 26a, 26b, 26c) having different light distribution characteristics, each LED optical unit (26, 26a, 26b, 26c) comprising two or more LED optical modules (1, 1a, 1b, 1c) for forming corresponding light distribution characteristics, each LED optical module (1, 1a, 1b, 1c) including an LED serving as a light source and a light distribution controlling lens arranged in an illumination direction of the LED light source, wherein the LED optical modules (1, 1a, 1b, 1c) mounted to the same LED optical unit (26, 26a, 26b, 26c) are of the same type forming the same light distribution characteristics whereas the LED optical modules (1, 1a, 1b, 1c) mounted to the different LED optical units (26, 26a, 26b, 26c) are different from each other, characterised in that the LED optical units (26, 26a, 26b, 216c) include at least one wide LED optical unit, at least one narrow LED optical unit, and at least one intermediate LED optical unit, the wide, narrow, and intermediate LED optical units (26a, 26b, 26c) being arranged adjacent to one another; and wherein the number of the sum of the narrow LED optical units and intermediate LED optical units to be arranged is equal to or greater than the number of the wide LED optical units to be arranged. a set of LED optical units (26, 26a, 26b, 26c) having different light distribution characteristics, each LED optical unit (26, 26a, 26b, 26c) comprising two or more LED optical modules (1, 1a, 1b, 1c) for forming corresponding light distribution characteristics, each LED optical module (1, 1a, 1b, 1c) including an LED serving as a light source and a light distribution controlling lens arranged in an illumination direction of the LED light source, wherein the LED optical modules (1, 1a, 1b, 1c) mounted to the same LED optical unit (26, 26a, 26b, 26c) are of the same type forming the same light distribution characteristics whereas the LED optical modules (1, 1a, 1b, 1c) mounted to the different LED optical units (26, 26a, 26b, 26c) are different from each other, characterised in that the LED optical units (26, 26a, 26b, 216c) include at least one wide LED optical unit, at least one narrow LED optical unit, and at least one intermediate LED optical unit, the wide, narrow, and intermediate LED optical units (26a, 26b, 26c) being arranged adjacent to one another; and wherein the number of the sum of the narrow LED optical units and intermediate LED optical units to be arranged is equal to or greater than the number of the wide LED optical units to be arranged.
A light transmitting electrically conductive member in which an electrically conductive layer including an overcoat layer and silver nanowires embedded therein is formed on a surface of a light transmitting base material, wherein the electrically conductive layer is partitioned into an electrically conductive region and a non-electrically conductive region having a high surface resistivity as compared to that of the electrically conductive region, and in the non-electrically conductive region, the silver nanowires embedded in the overcoat layer are at least partially iodized, and a silver iodide is not exposed to a surface of the overcoat layer in the non-electrically conductive region, or the amount of a silver iodide exposed to the surface of the overcoat layer in the non-electrically conductive region is reduced as compared to the amount of silver nanowires exposed to a surface of the overcoat layer in the electrically conductive region.
A double-layer conductive LED photoelectric glass with voltage compensation, wherein the double-layer conductive LED photoelectric glass with voltage compensation comprises two layers of electrically conductive glasses, wherein one side of each of the two layers of electrically conductive glasses is provided with an electrically conductive cladded layer; inner sides of the electrically conductive cladded layers of the two layers of electrically conductive glasses are oppositely configured; the electrically conductive cladded layer of one of the two layers of electrically conductive glasses is provided with a plurality of etched circuits; a depth of the etched circuits is greater than a depth of the electrically conductive cladded layer; the etched circuits are divided into two sets respectively located on two sides of the electrically conductive glass; LEDs are provided on each etched circuit; a positive electrode connecting terminal and a negative electrode connecting terminal of the LEDs are respectively provided on two sides of the etched circuits; a heat-resistant transparent adhesive layer, wherein the heat-resistant transparent adhesive layer is provided between the two layers of electrically conductive glasses; an electrically conductive element (3,4,5), wherein one end or one side of the electrically conductive element (3,4,5) is connected to a middle portion unetched with circuits of the electrically conductive glass provided with the LEDs; and the other end or the other side of the electrically conductive element (3,4,5) is connected to the electrically conductive cladded layer of the other layer of electrically conductive glass to realize an electrical connection of the two layers of electrically conductive glasses.
A user equipment, UE, for wireless communication, the UE comprising: at least one memory; and at least one processor coupled with the at least one memory and configured to cause the UE to: obtain configuration information indicating at least one sidelink discontinuous reception, DRX, configuration for data on a sidelink, wherein the at least one sidelink DRX configuration is associated with a first resource pool; and transmit or receive the data based on the at least one sidelink DRX configuration indicated by the configuration information; the UE characterised by, wherein, during a logical channel prioritization, LCP, procedure, the UE is configured to select a destination in the case that the destination is related to the data associated with a sidelink DRX configuration and the UE is in a wake-up time of the sidelink DRX configuration. obtain configuration information indicating at least one sidelink discontinuous reception, DRX, configuration for data on a sidelink, wherein the at least one sidelink DRX configuration is associated with a first resource pool; and transmit or receive the data based on the at least one sidelink DRX configuration indicated by the configuration information; the UE characterised by, wherein, during a logical channel prioritization, LCP, procedure, the UE is configured to select a destination in the case that the destination is related to the data associated with a sidelink DRX configuration and the UE is in a wake-up time of the sidelink DRX configuration.
A method for producing a plurality of LED illumination devices which each emit light having an average value of a first photometric parameter, comprising the method steps: - producing a plurality of LED chips which emit light of the same basic color tone, - measuring the values of the first photometric parameter of the respective LED chips, - combining the LED chips to groups of in each case at least two LED chips, which have different values of the first photometric parameter, in such a way that the average values of all the LED illumination devices differ by less than 10% and/or by fewer than five MacAdam threshold units, and - equipping a respective LED illumination device with a group of LED chips, wherein the LED illumination devices have at least one further average value of a second photometric parameter, the first LED chip has a first value of the second photometric parameter and the second LED chip has a second value of the second photometric parameter, said second value being different than the first value, wherein the LED chips are combined to groups, in such a way that the average values of all the LED illumination devices differ by less than 10% and/or by fewer than ten MacAdam threshold units. - producing a plurality of LED chips which emit light of the same basic color tone, - measuring the values of the first photometric parameter of the respective LED chips, - combining the LED chips to groups of in each case at least two LED chips, which have different values of the first photometric parameter, in such a way that the average values of all the LED illumination devices differ by less than 10% and/or by fewer than five MacAdam threshold units, and - equipping a respective LED illumination device with a group of LED chips, wherein the LED illumination devices have at least one further average value of a second photometric parameter, the first LED chip has a first value of the second photometric parameter and the second LED chip has a second value of the second photometric parameter, said second value being different than the first value, wherein the LED chips are combined to groups, in such a way that the average values of all the LED illumination devices differ by less than 10% and/or by fewer than ten MacAdam threshold units.