mhurhangee/ep-ind-claims huggingface dataset:
A liquid discharge head comprising: a substrate having, on one side thereof, energy generating elements for generating energy used for discharging liquid; and a sealing member arranged in contact with at least a part of one or more end faces of the substrate, the sealing member being a cured product of a first composition comprising an epoxy resin having a butadiene skeleton and an epoxy resin curing agent having a butadiene skeleton, characterized in that the epoxy resin is a compound expressed by one of formulae,, and: wherein X represents an integer from 1 to 100 inclusive, and Y represents an integer from 0 to 100 inclusive; wherein R represents H or an alkyl group, a and b each represent an integer from 1 to 100 inclusive, and c and d each represent an integer from 0 to 100 inclusive; wherein e represents an integer from 24 to 35 inclusive, and f represents an integer from 8 to 11 Inclusive. a substrate having, on one side thereof, energy generating elements for generating energy used for discharging liquid; and a sealing member arranged in contact with at least a part of one or more end faces of the substrate, the sealing member being a cured product of a first composition comprising an epoxy resin having a butadiene skeleton and an epoxy resin curing agent having a butadiene skeleton, characterized in that the epoxy resin is a compound expressed by one of formulae,, and: wherein X represents an integer from 1 to 100 inclusive, and Y represents an integer from 0 to 100 inclusive; wherein R represents H or an alkyl group, a and b each represent an integer from 1 to 100 inclusive, and c and d each represent an integer from 0 to 100 inclusive; wherein e represents an integer from 24 to 35 inclusive, and f represents an integer from 8 to 11 Inclusive.
A printing system (100, 200) for printing a plurality of images on a web being a type of media, the printing system (100, 200) comprises: a) a print engine; b) a feeder for feeding the web to the print engine in a feed direction relative to said print engine; c) a receiver (3d, 21) for receiving the printed web; d) a user interface configured to set a printing arrangement (500, 600, 700) of the plurality of images on the web and to input the print engine, the feeder and the receiver (3d, 21) for performing printing according to the printing arrangement (500, 600, 700) by ejecting marking material on the web; and e) a scheduling module for scheduling the plurality of images on the web; and the printing system comprises a storage with a media list of media types, each media type in the list provided with at least one predetermined distance (402, 403), and according to the type of media of the web the scheduling module is configured to move an image of the plurality of images in the printing arrangement (500, 600) from an originally planned location of the web to a new location of the web such that a distance of the new location to an end of the web, which end is closest to the originally planned location, is larger than the at least one predetermined distance (402, 403), characterized in that the at least one predetermined distance (402, 403) is out of a group of a predetermined distance with respect to an end of the web at which printing is started and a predetermined distance with respect to an end of the web at which printing is ended. a) a print engine; b) a feeder for feeding the web to the print engine in a feed direction relative to said print engine; c) a receiver (3d, 21) for receiving the printed web; d) a user interface configured to set a printing arrangement (500, 600, 700) of the plurality of images on the web and to input the print engine, the feeder and the receiver (3d, 21) for performing printing according to the printing arrangement (500, 600, 700) by ejecting marking material on the web; and e) a scheduling module for scheduling the plurality of images on the web; and the printing system comprises a storage with a media list of media types, each media type in the list provided with at least one predetermined distance (402, 403), and according to the type of media of the web the scheduling module is configured to move an image of the plurality of images in the printing arrangement (500, 600) from an originally planned location of the web to a new location of the web such that a distance of the new location to an end of the web, which end is closest to the originally planned location, is larger than the at least one predetermined distance (402, 403),
A method for encapsulating a flow identifier, comprising: receiving, by a OpenFlow switch, a flow table configuration message from an OpenFlow controller, wherein the flow table configuration message comprises management information, wherein the management information is used for performing one of the following managements on the operation of invoking the function entry to assign a value to an outer label corresponding to a flow identifier: addition, modification and deletion; in the case where flow table matching is successfully performed on a packet, adding, by the OpenFlow switch, the outer label to the packet; and invoking, by the OpenFlow switch, a pre-saved function entry to assign a value to the outer label, so as to complete encapsulation of the flow identifier; wherein, the management information includes an indicating bit, the indicating bit being used for indicating that the management information includes a function identification value for invoking the function entry and does not include an explicit numerical value to be assigned to the outer label. receiving, by a OpenFlow switch, a flow table configuration message from an OpenFlow controller, wherein the flow table configuration message comprises management information, wherein the management information is used for performing one of the following managements on the operation of invoking the function entry to assign a value to an outer label corresponding to a flow identifier: addition, modification and deletion; in the case where flow table matching is successfully performed on a packet, adding, by the OpenFlow switch, the outer label to the packet; and invoking, by the OpenFlow switch, a pre-saved function entry to assign a value to the outer label, so as to complete encapsulation of the flow identifier; wherein, the management information includes an indicating bit, the indicating bit being used for indicating that the management information includes a function identification value for invoking the function entry and does not include an explicit numerical value to be assigned to the outer label.
A driver circuit for driving at least one LED, the driver circuit comprising a data input for receiving set point data at a first data rate and at a first bit resolution, an LED output for driving the at least one LED with LED driving values at a second data rate and at a second bit resolution, and a processing device arranged for determining from the set point data by interpolation at least part of the LED driving values, characterized in that the processing device is arranged to: - compare the value of the received setpoint with the value of the previously received setpoint, - increment the elapsed time measurement counter (320, 330, 340) when the value of the received setpoint is the same as the value of the previously received setpoint, - repeat the compare and increment until the value of the received setpoint is different from the value of the previously received setpoint, - store the value of the elapsed time measurement counter in a memory of the processing device, - determine the interpolation slope (321, 331 341) from the received setpoint data and the value of the elapsed time measurement counter as stored in the memory, and - interpolate following LED driving values in accordance with the slope (321, 331 341). - compare the value of the received setpoint with the value of the previously received setpoint, - increment the elapsed time measurement counter (320, 330, 340) when the value of the received setpoint is the same as the value of the previously received setpoint, - repeat the compare and increment until the value of the received setpoint is different from the value of the previously received setpoint, - store the value of the elapsed time measurement counter in a memory of the processing device, - determine the interpolation slope (321, 331 341) from the received setpoint data and the value of the elapsed time measurement counter as stored in the memory, and - interpolate following LED driving values in accordance with the slope (321, 331 341).
A cover assembly which consists of side panels covering the side loading areas of vehicle bodies, a rear panel covering the rear loading area and a roof panel covering the overhead loading area, the roof panel comprises a support element, rail parts and a reinforced cover providing protection for the materials in the vehicle body and load safety by being mounted on the said roof panel, at least one tensioning element (43.2) ensuring that the said reinforced cover is tense and stands rigidly and assumes the functions of tarpaulin and steel ropes used to cover the bodies of vehicles used for haulage, a cover (43.1) allowing the said roof panel to be closed, preventing external impacts from damaging the materials in the body, and it is characterized in that it incorporates; - a post (43.3) allowing the tensioning element (43.2) to be mounted on the cover (43.1) by being mounted on the said cover (43.1), which is mounted at inner side of the assembly formed by tensioning elements (43.2) and cover (43.1) in alignment with support element. - a post (43.3) allowing the tensioning element (43.2) to be mounted on the cover (43.1) by being mounted on the said cover (43.1), which is mounted at inner side of the assembly formed by tensioning elements (43.2) and cover (43.1) in alignment with support element.
A method comprising: receiving a data flow of an application directed to a destination in a software-defined network; identifying a classification of the application; identifying a set of performance thresholds associated with the classification of the application; determining a current performance of the data flow of the application in the SDN, including identifying a first tunnel associated with the application through which the data flow is configured to travel; generating a performance score for the application based on the set of performance thresholds and the current performance of the data flow of the application in the SDN; causing the performance score for the application to be presented via an interface; selecting a second tunnel based on the performance score for the application; monitoring one or more network performance metrics for the first tunnel and the second tunnel; and storing historical performance data of the network performance metrics of the first tunnel and the second tunnel; characterised by the method comprising the step wherein the second tunnel is selected at least in part based on the historical performance data of the network performance metrics of the first tunnel and the second tunnel, wherein the selecting comprises analysing the historical performance data to yield a historical score for each of the first tunnel and the second tunnel, the historical score representing an aggregate historical performance for the respective tunnel, and wherein the second tunnel is selected based on the second tunnel historically being above the set of performance thresholds for a longer duration than the first tunnel historically being above the set of performance thresholds. receiving a data flow of an application directed to a destination in a software-defined network; identifying a classification of the application; identifying a set of performance thresholds associated with the classification of the application; determining a current performance of the data flow of the application in the SDN, including identifying a first tunnel associated with the application through which the data flow is configured to travel; generating a performance score for the application based on the set of performance thresholds and the current performance of the data flow of the application in the SDN; causing the performance score for the application to be presented via an interface; selecting a second tunnel based on the performance score for the application; monitoring one or more network performance metrics for the first tunnel and the second tunnel; and storing historical performance data of the network performance metrics of the first tunnel and the second tunnel;
A silicon carbide semiconductor device comprising a termination end-portion provided for relaxing the electric field in a perimeter of a cell portion driven as a semiconductor element, wherein the termination end-portion comprises: - a first region (3, 31, 42) of a second conductivity type; - an electric-field relaxation region of the second conductivity type whose impurity concentration is relatively lower than that of the first region (3, 31, 42); and a silicon carbide layer of a first conductivity type; in such a way that the first region (3, 31, 42), the electric-field relaxation region and the silicon carbide layer are provided in that order from a side of the cell portion in a surface of the silicon carbide layer and exposed on a surface side of the silicon carbide layer, and wherein an inorganic protection film is formed on a surface of the first region (3, 31, 42); and an organic protection film is formed at least on the top-side surface of the electric-field relaxation region and on the top-side surface portion of the silicon carbide layer. - a first region (3, 31, 42) of a second conductivity type; - an electric-field relaxation region of the second conductivity type whose impurity concentration is relatively lower than that of the first region (3, 31, 42); and
A surgical system for determining tissue viability, comprising: a thermographic camera for taking infrared images of a surgical site; a display (5, 20) for displaying sensor measurements; and a tissue grasper configured to grasp tissue and sense one or more biological parameters of the grasped tissue, the tissue grasper comprising: a handle portion; a body portion an elongated shaft; and a jaw assembly, comprising jaw members (42, 44), each jaw member comprising at least a first sensor (42a, 44a) disposed on respective tissue contacting surfaces (54, 56), wherein the first sensor (42a, 44a) on at least one jaw member (42, 44) is a perfusion sensor, and wherein the first sensors (42a, 44a) are in communication with the display (6, 20) such that upon measuring the perfusion in grasped tissue, the perfusion sensor (42a, 44a) transmits the measurement data to the display (6, 20), wherein the system is adapted to use the infrared images taken by said thermographic camera and the sensor measurements in combination to determine tissue viability. a thermographic camera for taking infrared images of a surgical site; a display (5, 20) for displaying sensor measurements; and a tissue grasper configured to grasp tissue and sense one or more biological parameters of the grasped tissue, the tissue grasper comprising: a handle portion; a body portion an elongated shaft; and a jaw assembly, comprising jaw members (42, 44), each jaw member comprising at least a first sensor (42a, 44a) disposed on respective tissue contacting surfaces (54, 56), wherein the first sensor (42a, 44a) on at least one jaw member (42, 44) is a perfusion sensor, and wherein the first sensors (42a, 44a) are in communication with the display (6, 20) such that upon measuring the perfusion in grasped tissue, the perfusion sensor (42a, 44a) transmits the measurement data to the display (6, 20), wherein the system is adapted to use the infrared images taken by said thermographic camera and the sensor measurements in combination to determine tissue viability. a handle portion; a body portion an elongated shaft; and a jaw assembly, comprising jaw members (42, 44), each jaw member comprising at least a first sensor (42a, 44a) disposed on respective tissue contacting surfaces (54, 56), wherein the first sensor (42a, 44a) on at least one jaw member (42, 44) is a perfusion sensor, and wherein the first sensors (42a, 44a) are in communication with the display (6, 20) such that upon measuring the perfusion in grasped tissue, the perfusion sensor (42a, 44a) transmits the measurement data to the display (6, 20), wherein the system is adapted to use the infrared images taken by said thermographic camera and the sensor measurements in combination to determine tissue viability.
A compound which is 2-(3,5-Dichloro-1-oxido-pyridin-4-yl)-1-{9-difluoromethoxy-spiro[2H-1,5-benzodioxepin-3,3'-oxetane]-6-yl}ethanone, or a pharmaceutically acceptable hydrate or solvate thereof, for use in the treatment of proliferative and inflammatory skin disorders such as psoriasis, epidermal inflammation, acne, dermatitis, atopic dermatitis, seborrheic dermatitis, contact dermatitis, urticaria, pruritis and eczema.
A refrigerating system, comprising a compressor, a condenser, a throttling element and an evaporator that are connected in sequence; and further comprising a water tank configured to receive condensate water, and an atomizer, characterized in that the atomizer is disposed in the water tank; and a mist removing opening of the water tank is in communication with an upwind side of the condenser. a compressor, a condenser, a throttling element and an evaporator that are connected in sequence; and further comprising a water tank configured to receive condensate water, and an atomizer, characterized in that the atomizer is disposed in the water tank; and a mist removing opening of the water tank is in communication with an upwind side of the condenser.
Actuation system comprising an airfoil leading edge high-lift device carrier track which, in use, is connected to an airfoil leading edge high-lift device, the actuation system further comprising a guidance assembly for guiding a movement of the airfoil leading edge high-lift device carrier track between a retracted position in which said high-lift device is retracted with respect to an airfoil, and at least one extended position, in which the high-lift device is deployed with respect to the airfoil, wherein the guidance assembly comprises at least one lower guide element contacting a lower surface of said carrier track and/or at least one upper guide element contacting an upper surface of said carrier track, each one of said lower or upper guide element (6, 8) including a sliding surface in sliding contact with said leading edge high-lift device carrier track for support and load bearing during movement of said carrier track, characterized in that the guidance assembly further comprises a pin for each guide element, wherein the upper and/or lower guide elements (6, 8) have a pin hole through which the respective pin is receivable, wherein the pin is connectable to two airfoil ribs, and defines a pin axis around which said guide element (6, 8) is pivotable, such that, in use, the upper guide element is located between the two airfoil ribs, and/or the lower guide element is located between the two airfoil ribs.
A method, comprising: receiving, by a wireless electronic device (102, 405), a broadcast signal from a base station (112, 410), the broadcast signal including a portion of Global Positioning System, GPS, time information identifying when the base station (112, 410) sends the broadcast signal; receiving, by the wireless electronic device (102, 405), GPS signals; determining, by the wireless electronic device, GPS information associated with the wireless electronic device (102, 405) based, at least in part, on the received GPS signals; estimating (418, 1100), by the wireless electronic device (102, 405), a signal propagation time between the base station (112, 410) and the wireless electronic device based on the received portion of GPS time information and the GPS information associated with the wireless electronic device; determining, by the wireless electronic device (102, 405), a positive time advance for uplink signal synchronization at the base station based, at least in part, on the signal propagation time; determining, by the wireless electronic device (102, 405), a preamble start time based, at least in part, on the positive time advance; and transmitting, by the wireless electronic device (102, 405), at the preamble start time, a random access preamble to the base station (112, 410). receiving, by a wireless electronic device (102, 405), a broadcast signal from a base station (112, 410), the broadcast signal including a portion of Global Positioning System, GPS, time information identifying when the base station (112, 410) sends the broadcast signal; receiving, by the wireless electronic device (102, 405), GPS signals; determining, by the wireless electronic device, GPS information associated with the wireless electronic device (102, 405) based, at least in part, on the received GPS signals; estimating (418, 1100), by the wireless electronic device (102, 405), a signal propagation time between the base station (112, 410) and the wireless electronic device based on the received portion of GPS time information and the GPS information associated with the wireless electronic device; determining, by the wireless electronic device (102, 405), a positive time advance for uplink signal synchronization at the base station based, at least in part, on the signal propagation time; determining, by the wireless electronic device (102, 405), a preamble start time based, at least in part, on the positive time advance; and transmitting, by the wireless electronic device (102, 405), at the preamble start time, a random access preamble to the base station (112, 410).
A method of translating an adjusted medium pressure into performance of one or more selected functions, the method comprising: providing a pneumatic structure in which the medium is retained at a starting pressure; providing an adsorptive material operable within a range of temperatures that is proportionate with a range of medium pressures in which the pneumatic structure operates; adjusting the temperature of the adsorptive material to effect a commensurate adjustment of the medium pressure to a target pressure; and selecting the adjusted medium pressure necessary to perform the one or more selected functions; characterized in that the method further comprises at least one of: detecting the starting pressure; comparing the starting pressure with the target pressure; and adjusting the temperature of the adsorptive material when a comparison indicates non-equivalence. providing a pneumatic structure in which the medium is retained at a starting pressure; providing an adsorptive material operable within a range of temperatures that is proportionate with a range of medium pressures in which the pneumatic structure operates; adjusting the temperature of the adsorptive material to effect a commensurate adjustment of the medium pressure to a target pressure; and selecting the adjusted medium pressure necessary to perform the one or more selected functions; characterized in that the method further comprises at least one of: detecting the starting pressure; comparing the starting pressure with the target pressure; and adjusting the temperature of the adsorptive material when a comparison indicates non-equivalence. detecting the starting pressure; comparing the starting pressure with the target pressure; and adjusting the temperature of the adsorptive material when a comparison indicates non-equivalence.