mhurhangee/ep-ind-claims huggingface dataset:
An abrasive composite comprising: a substrate; and an abrasive compact comprising a plurality of superabrasive particles consolidated into a solid mass, the superabrasive particles having a characteristic gradient that is continuous, monotonic and uniaxial characterized in that the linear or areal average superabrasive particle size smoothly and continuously increases axially toward the substrate and in that a maximum rate of change of particle size is less than 1 micron of particle size per 1 micron of translation, being the distance along the gradient axis. a substrate; and an abrasive compact comprising a plurality of superabrasive particles consolidated into a solid mass, the superabrasive particles having a characteristic gradient that is continuous, monotonic and uniaxial
An apparatus comprising: a plurality of logic units, each to execute instructions; a debug interconnect coupled to the plurality of logic units, the debug interconnect separate from a second interconnect that couples the plurality of logic units; a plurality of data buffers coupled to the debug interconnect, the plurality of data buffers to store hardware trace information, software trace information, and firmware trace information; and a bandwidth management controller coupled to the debug interconnect, the bandwidth management controller to dynamically allocate buffer space of the plurality of data buffers to the hardware trace information, the software trace information, and the firmware trace information, the bandwidth management controller further including a control logic (155, 240) to determine a buffer level of the allocated buffer space information and dynamically increase at least one of a voltage and a frequency of the debug interconnect if the buffer level exceeds a first threshold. a plurality of logic units, each to execute instructions; a debug interconnect coupled to the plurality of logic units, the debug interconnect separate from a second interconnect that couples the plurality of logic units; a plurality of data buffers coupled to the debug interconnect, the plurality of data buffers to store hardware trace information, software trace information, and firmware trace information; and a bandwidth management controller coupled to the debug interconnect, the bandwidth management controller to dynamically allocate buffer space of the plurality of data buffers to the hardware trace information, the software trace information, and the firmware trace information, the bandwidth management controller further including a control logic (155, 240) to determine a buffer level of the allocated buffer space information and dynamically increase at least one of a voltage and a frequency of the debug interconnect if the buffer level exceeds a first threshold.
An inlet guide vane, comprising: an inlet cavity extending between a first end and a second end in communication with a source of heated air; an outlet cavity extending between the first end and the second end and between the inlet cavity and a leading edge; an inner wall disposed between the inlet and outlet cavities (52,53), the inner wall including a plurality of impingement holes providing communication between the inlet and outlet cavities (52,53); characterised in that it comprises a plurality of bleed holes providing communication between the outlet cavity and an outer surface. an inlet cavity extending between a first end and a second end in communication with a source of heated air; an outlet cavity extending between the first end and the second end and between the inlet cavity and a leading edge; an inner wall disposed between the inlet and outlet cavities (52,53), the inner wall including a plurality of impingement holes providing communication between the inlet and outlet cavities (52,53); characterised in that it comprises a plurality of bleed holes providing communication between the outlet cavity and an outer surface.
An active RFID device of 13.56MHz comprising a main body, and comprising an SE chip, an interface and an internal antenna deployed on the main body, wherein the device further comprises an RF front-end chip and the interface comprises an ISO/IEC7816 interface for operating the SE chip, characterized in that: the interface further comprises a power interface and an SPI interface for setting parameters for a register of the RF front-end chip; the RF front-end chip is coupled to a reader antenna via the internal antenna, an external antenna, or a combination of the internal antenna and the external antenna; in an internal antenna mode in which the RF front-end chip is connected with the internal antenna, specifically the internal antenna is connected with RF I/O pins of the RF front-end chip, in an external antenna mode in which the RF front-end chip is connected with the external antenna, specifically the external antenna is connected with RF I/O pins of the RF front-end chip; in a combined antenna mode in which the RF front-end chip is connected with the combination of the internal antenna and the external antenna, specifically the internal antenna is firstly connected in parallel with the external antenna and then connected with RF I/O pins of the RF front-end chip, or the internal antenna is firstly connected in series with the external antenna and then connected with RF I/O pins of the RF front-end chip; and the RF I/O pins of the RF front-end chip and both ends of the internal antenna are suspended without any connection in the external antenna mode, and the connection between the RF I/O pins of the RF front-end chip and the internal antenna is applied in the internal antenna mode or the combined antenna mode. the interface further comprises a power interface and an SPI interface for setting parameters for a register of the RF front-end chip; the RF front-end chip is coupled to a reader antenna via the internal antenna, an external antenna, or a combination of the internal antenna and the external antenna; in an internal antenna mode in which the RF front-end chip is connected with the internal antenna, specifically the internal antenna is connected with RF I/O pins of the RF front-end chip, in an external antenna mode in which the RF front-end chip is connected with the external antenna, specifically the external antenna is connected with RF I/O pins of the RF front-end chip; in a combined antenna mode in which the RF front-end chip is connected with the combination of the internal antenna and the external antenna, specifically the internal antenna is firstly connected in parallel with the external antenna and then connected with RF I/O pins of the RF front-end chip, or the internal antenna is firstly connected in series with the external antenna and then connected with RF I/O pins of the RF front-end chip; and the RF I/O pins of the RF front-end chip and both ends of the internal antenna are suspended without any connection in the external antenna mode, and the connection between the RF I/O pins of the RF front-end chip and the internal antenna is applied in the internal antenna mode or the combined antenna mode.
Apparatus for detecting an occupancy state of a parking area of a parking lot, comprising: - a luminaire for one or more illuminants, - a parking occupancy detection unit integrated in the luminaire for detecting an occupancy state of a parking area of the parking lot, - a motion detector integrated in the luminaire for monitoring an environment of the parking area, and a control device integrated in the luminaire for controlling an operating state of the parking occupancy detection unit depending on the monitoring by means of the motion detector, - wherein the parking occupancy detection unit comprises at least one environment sensor for monitoring the parking area, wherein the control device is designed to switch off the environment sensor or to drive it into a standby mode if the monitoring by means of the motion detector has revealed an absence of an object, in particular a moving object, in the environment, wherein the control device is designed to switch on the environment sensor or to wake it up from a standby mode if the monitoring by means of the motion detector has revealed a presence of an object, in particular a moving object, in the environment. - a luminaire for one or more illuminants, - a parking occupancy detection unit integrated in the luminaire for detecting an occupancy state of a parking area of the parking lot, - a motion detector integrated in the luminaire for monitoring an environment of the parking area, and a control device integrated in the luminaire for controlling an operating state of the parking occupancy detection unit depending on the monitoring by means of the motion detector, - wherein the parking occupancy detection unit comprises at least one environment sensor for monitoring the parking area, wherein the control device is designed to switch off the environment sensor or to drive it into a standby mode if the monitoring by means of the motion detector has revealed an absence of an object, in particular a moving object, in the environment, wherein the control device is designed to switch on the environment sensor or to wake it up from a standby mode if the monitoring by means of the motion detector has revealed a presence of an object, in particular a moving object, in the environment.
A photovoltaic device comprising at least one nanowire structure fixed to a substrate (110, 210), wherein each of the at least one nanowire structures comprises: a heavily doped p-type core (120, 220) having a proximal end fixed to the substrate (110, 210) and a distal end extending away from the substrate (110, 210); and a lightly doped n-type shell (130, 230) around the p-type core (120, 220) so as to form a radial p-n junction; wherein the p-type core (120, 220) is formed of GaAs and the n-type shell (130, 230) is formed of Al x Ga 1-x As, wherein x has a value of less than or equal to 0.2; wherein the doping density of the n-type shell (130, 230) is less than 10 17 cm -3; and wherein the doping density of the p-type core (120, 220) is greater than 10 18 cm -3. a heavily doped p-type core (120, 220) having a proximal end fixed to the substrate (110, 210) and a distal end extending away from the substrate (110, 210); and a lightly doped n-type shell (130, 230) around the p-type core (120, 220) so as to form a radial p-n junction; wherein the p-type core (120, 220) is formed of GaAs and the n-type shell (130, 230) is formed of Al x Ga 1-x As, wherein x has a value of less than or equal to 0.2; wherein the doping density of the n-type shell (130, 230) is less than 10 17 cm -3; and wherein the doping density of the p-type core (120, 220) is greater than 10 18 cm -3.
A device for releasably securing an elongated object in a predetermined orientation with respect to the device, the device comprising: a gripping element configured for circumferential expansion and contraction; an actuator element coupled to the gripping element and configured to effect circumferential expansion of the gripping element, upon operation of the actuator element, to an expanded configuration able to receive an end of the elongated object; a locking mechanism coupled to the actuator element and configured to lock the actuator element in a position holding the gripping element in the expanded configuration; and a lock release mechanism configured to be triggered by an elongated object inserted into the device to release the locking mechanism, wherein the gripping element is circumferentially biased so as to cause the gripping element to circumferentially contract around the received end of the elongated object upon release of the locking mechanism. a gripping element configured for circumferential expansion and contraction; an actuator element coupled to the gripping element and configured to effect circumferential expansion of the gripping element, upon operation of the actuator element, to an expanded configuration able to receive an end of the elongated object; a locking mechanism coupled to the actuator element and configured to lock the actuator element in a position holding the gripping element in the expanded configuration; and a lock release mechanism configured to be triggered by an elongated object inserted into the device to release the locking mechanism, wherein the gripping element is circumferentially biased so as to cause the gripping element to circumferentially contract around the received end of the elongated object upon release of the locking mechanism.
A method for conducting a time distance security countermeasure for outbound roaming subscribers using a Diameter edge agent, DEA, the method comprising: receiving, by a DEA, an ingress Diameter message related to a mobile subscriber from a mobility management entity, MME, located in a non-home network, wherein the ingress Diameter message is an authentication information request, AIR, message or a Diameter update location request, ULR, message; sending a routing information request, RIR, message containing a mobile subscriber identifier associated with the mobile subscriber to a home subscriber server, HSS, in a home network of the mobile subscriber; receiving identification information identifying a mobility management entity, MME, in the home network that conducted a most recent attachment of the mobile subscriber in the home network; utilizing the identification information to send an insert subscriber data request, IDR, message containing the mobile subscriber identifier to the identified MME; receiving, from the MME, an insert subscriber data acknowledgement, IDA, message containing user equipment, UE, attachment timestamp data corresponding to the most recent attachment of the mobile subscriber in the home network; determining a transit time using the UE attachment timestamp data and timestamp information corresponding to the ingress Diameter message; and analyzing the transit time to determine if the ingress Diameter message is to be designated as a suspicious ingress message. receiving, by a DEA, an ingress Diameter message related to a mobile subscriber from a mobility management entity, MME, located in a non-home network, wherein the ingress Diameter message is an authentication information request, AIR, message or a Diameter update location request, ULR, message; sending a routing information request, RIR, message containing a mobile subscriber identifier associated with the mobile subscriber to a home subscriber server, HSS, in a home network of the mobile subscriber; receiving identification information identifying a mobility management entity, MME, in the home network that conducted a most recent attachment of the mobile subscriber in the home network; utilizing the identification information to send an insert subscriber data request, IDR, message containing the mobile subscriber identifier to the identified MME; receiving, from the MME, an insert subscriber data acknowledgement, IDA, message containing user equipment, UE, attachment timestamp data corresponding to the most recent attachment of the mobile subscriber in the home network; determining a transit time using the UE attachment timestamp data and timestamp information corresponding to the ingress Diameter message; and analyzing the transit time to determine if the ingress Diameter message is to be designated as a suspicious ingress message.
Use of a culture medium for detecting Enterococcus, wherein the culture medium comprises (a) ionic surfactant, (b) polyvinyl alcohol, and (c) suppressant on Gram-negative bacteria.
Airbag device for a motor vehicle seat comprising a gas generator in the form of an elongate cartridge arranged in an inflatable bag, the gas generator being surrounded at least partially by a deflector secured to the generator, the assembly of the generator and of the deflector comprising bolts for fastening to the frame of a seat, characterized in that the deflector is extended upwardly by a rigid flange over which a part of the folded bag is passed.
A fluidizable module comprising: a containment vessel; a filter sheet secured to the containment vessel; a diffuser plate separating an interior volume of the vessel into a supply plenum and a fluidizable medium receptacle, the fluidizable medium receptacle also being bounded by the filter sheet; a fluidizable medium contained in the fluidizable medium receptacle; characterized in that the module is a stand-alone module sized for no more than about 30 percent of the length of an adult human body, wherein that the module is height adjustable. a containment vessel; a filter sheet secured to the containment vessel; a diffuser plate separating an interior volume of the vessel into a supply plenum and a fluidizable medium receptacle, the fluidizable medium receptacle also being bounded by the filter sheet; a fluidizable medium contained in the fluidizable medium receptacle; characterized in that the module is a stand-alone module sized for no more than about 30 percent of the length of an adult human body, wherein that the module is height adjustable.
A method, comprising: receiving, by a process on a computer, a callback in response to an intercepted outbound web service connection called by an application executing on the computer; extracting, by the process, information from the callback, the information comprising at least a uniform resource locator, URL, for the outbound web service connection and a code location within the application from which the outbound web service connection was called; obtaining, by the process in response to the callback, access to a core transmission control protocol, TCP, socket for the outbound web service connection; determining, by the process, how to modify one or more socket options of the core TCP socket based on the extracted information from the callback, wherein the determination is directed by a machine learning, ML, based adjustment of socket options according to learned behavior and a desired outcome; and modifying, by the process, the one or more socket options of the core TCP socket according to the determining. receiving, by a process on a computer, a callback in response to an intercepted outbound web service connection called by an application executing on the computer; extracting, by the process, information from the callback, the information comprising at least a uniform resource locator, URL, for the outbound web service connection and a code location within the application from which the outbound web service connection was called; obtaining, by the process in response to the callback, access to a core transmission control protocol, TCP, socket for the outbound web service connection; determining, by the process, how to modify one or more socket options of the core TCP socket based on the extracted information from the callback, wherein the determination is directed by a machine learning, ML, based adjustment of socket options according to learned behavior and a desired outcome; and modifying, by the process, the one or more socket options of the core TCP socket according to the determining.
A method of collecting a nucleic acid from formalin fixed paraffin embedded cells, wherein the nucleic acid is degraded nucleic acid or RNA, said method comprising: suspending the formalin fixed paraffin embedded cells in an aqueous solution; incubating the suspension for 3 hours or more under conditions non-denaturing to double stranded DNA of the cells at a temperature ranging from 40°C to 100°C and at least 2°C below the Tm for double stranded DNA of the cells, whereby the paraffin melts and the nucleic acid is released from the cells into the aqueous solution; and, physically separating the aqueous solution from the paraffin after said incubation, thereby collecting the nucleic acid from the cells. suspending the formalin fixed paraffin embedded cells in an aqueous solution; incubating the suspension for 3 hours or more under conditions non-denaturing to double stranded DNA of the cells at a temperature ranging from 40°C to 100°C and at least 2°C below the Tm for double stranded DNA of the cells, whereby the paraffin melts and the nucleic acid is released from the cells into the aqueous solution; and, physically separating the aqueous solution from the paraffin after said incubation, thereby collecting the nucleic acid from the cells.
A method of control of arc welding with a consumable electrode type that alternately performs forward feeding for feeding a welding wire in a direction of a welding object and backward feeding for feeding in an opposite direction to the forward feeding, and feeds the welding wire at a wire feeding speed cyclically changed in a predetermined cycle and at a predetermined amplitude to perform welding by repeating an arc period and a short-circuit period, the arc welding control method being characterised by the following steps: a first wire feeding stop step that stops feeding of the welding wire from a time of an elapse of a half cycle of a change of the wire feeding speed to an elapse of a first feeding stop period during forward feeding of the welding wire; and a first wire forward feeding step that feeds the welding wire forward at a first feeding speed from a time of an elapse of the first feeding stop period to an elapse of a predetermined period, the welding wire being fed backward after the elapse of the predetermined period. a first wire feeding stop step that stops feeding of the welding wire from a time of an elapse of a half cycle of a change of the wire feeding speed to an elapse of a first feeding stop period during forward feeding of the welding wire; and a first wire forward feeding step that feeds the welding wire forward at a first feeding speed from a time of an elapse of the first feeding stop period to an elapse of a predetermined period, the welding wire being fed backward after the elapse of the predetermined period.
A self-propelled mower comprising: a self-propellable mover main body; at least one of a battery, an electric generator, and an engine, provided in the self-propellable mover main body; a protruding wing that protrudes sideward from sides of the mover main body, the protruding wing being retractable and an extension length of the protruding wing being variable; a plurality of mowing units provided protruding from a front face of the mover main body and a front face of the protruding wing, each mowing unit comprising a movable blade that reciprocates or rotates to cut grasses driven by an electric motor powered by the battery or the electric generator, or by an engine provided in each mowing unit; characterized in that the self-propelled mower further comprises: a spanning cable spanning in the air; a suspension rope hung from the spanning cable, the suspension rope suspending the mover main body such that mover main body moves on the ground or in the air while being suspended; and a pulley that is pivoted to an upper end of the suspension rope so as to be freely rotated such that the pulley moves through the spanning cable in accordance with a movement of the mover main body. a self-propellable mover main body; at least one of a battery, an electric generator, and an engine, provided in the self-propellable mover main body; a protruding wing that protrudes sideward from sides of the mover main body, the protruding wing being retractable and an extension length of the protruding wing being variable; a plurality of mowing units provided protruding from a front face of the mover main body and a front face of the protruding wing, each mowing unit comprising a movable blade that reciprocates or rotates to cut grasses driven by an electric motor powered by the battery or the electric generator, or by an engine provided in each mowing unit; a spanning cable spanning in the air; a suspension rope hung from the spanning cable, the suspension rope suspending the mover main body such that mover main body moves on the ground or in the air while being suspended; and a pulley that is pivoted to an upper end of the suspension rope so as to be freely rotated such that the pulley moves through the spanning cable in accordance with a movement of the mover main body.