mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a first actuator; a second actuator; a processor coupled to the first and second actuators, the processor configured to apply a first command signal to the first actuator to output a first haptic effect from a first start time to a first stop time, the processor configured to apply a second command signal to the second actuator to output a second haptic effect from a second start time to a second stop time; a computer-readable medium configured to store first and second actuator information, the first actuator information comprising at least one parameter describing a performance characteristic of the first actuator, and the second actuator information comprising at least one parameter describing a performance characteristic of the second actuator; and wherein the processor is configured to: receive a command; determine a haptic effect based on the command; select one or both of the first actuator and the second actuator based at least in part on the haptic effect, and analysis of the first actuator information and of the second actuator information, and if the first actuator is selected, generate the first command signal, and if the second actuator is selected, generate the second command signal. a first actuator; a second actuator; a processor coupled to the first and second actuators, the processor configured to apply a first command signal to the first actuator to output a first haptic effect from a first start time to a first stop time, the processor configured to apply a second command signal to the second actuator to output a second haptic effect from a second start time to a second stop time; a computer-readable medium configured to store first and second actuator information, the first actuator information comprising at least one parameter describing a performance characteristic of the first actuator, and the second actuator information comprising at least one parameter describing a performance characteristic of the second actuator; and wherein the processor is configured to: receive a command; determine a haptic effect based on the command; select one or both of the first actuator and the second actuator based at least in part on the haptic effect, and analysis of the first actuator information and of the second actuator information, and if the first actuator is selected, generate the first command signal, and receive a command; determine a haptic effect based on the command; select one or both of the first actuator and the second actuator based at least in part on the haptic effect, and analysis of the first actuator information and of the second actuator information, and if the first actuator is selected, generate the first command signal, and if the second actuator is selected, generate the second command signal.
A torque sensor comprising a first and a second disc-shaped fastening flange (1, 2) arranged axially parallel to each other and which are rigidly connected to each other by a radially inward torque transmission element, wherein the second fastening flange is embodied as a measuring flange having a plurality of recesses (5, 5') and shear force transducers, separated from each other by radial stiffening webs, on a coaxially circumferential region between its radial outer attachment region and the coaxial inner torque transmission element, characterised in that the recesses are formed by at least three measurement recesses (5, 5') facing axially outwards to one side, that the base surface of the measurement recesses (5, 5') is embodied as a closed planar surface forming a resilient deformation member which is uniformly thin, and that the shear force transducers are applied to the base surfaces or to the axially opposite outer surfaces of the measurement recesses (5, 5').
A method of producing a polymer profile by chemical crosslinking, - wherein a plastics profile is first manufactured from a plastics material with added additives, - wherein the plastics profile is then heated using a heat source and, as a result, the additives that have been added to the plastics material thermally decompose to form radicals, - wherein these radicals cause a chemical crosslinking of the plastics material, and - wherein the plastics profile is extruded and formed as a hollow profile, in particular as a pipe, characterised in that an infrared laser with a wavelength in the range of 780 nm to 1 mm is used as the heat source, and in that, in addition to the additives, IR-radiation-absorbing laser pigments that are adapted to the laser radiation are added to the plastics material. - wherein a plastics profile is first manufactured from a plastics material with added additives, - wherein the plastics profile is then heated using a heat source and, as a result, the additives that have been added to the plastics material thermally decompose to form radicals, - wherein these radicals cause a chemical crosslinking of the plastics material, and - wherein the plastics profile is extruded and formed as a hollow profile, in particular as a pipe,
A method of forming a variably reinforced elongate medical device, comprising braiding a reinforcing sleeve from a first strand comprising a first material and a second strand comprising a second material, characterized in that the first material is substantially eliminated by exposure to a selected environmental stimulus or contact with a selected substance, and the second material is substantially intact following exposure to the selected environmental stimulus or contact with the selected substance; wherein a portion of the reinforcing sleeve is exposed to the environmental stimulus or the portion of the braided reinforcing sleeve is contacted with the selected substance to thereby substantially eliminate the first strand from the respective exposed or contacted portion, while the second strand is retained substantially intact in the respective exposed or contacted portion.
A vehicle charging station for charging an electrically powered vehicle, said vehicle charging station comprising: a power source; and a charging device coupled to said power source, said charging device configured to: control a charging process between said power source and an electrically powered vehicle; transmit, via at least one network, a first electronic message to a user, the first electronic message including a charging error and an indication that the charging process has been suspended; and receive, via the at least one network, a second electronic message from the user that includes a user command, characterized in that the charging device is configured to receive in the user command a acceptance of a longer charge time, a different voltage, or a partial charge in order to allow the charging process to be resumed. a power source; and a charging device coupled to said power source, said charging device configured to: control a charging process between said power source and an electrically powered vehicle; transmit, via at least one network, a first electronic message to a user, the first electronic message including a charging error and an indication that the charging process has been suspended; and receive, via the at least one network, a second electronic message from control a charging process between said power source and an electrically powered vehicle; transmit, via at least one network, a first electronic message to a user, the first electronic message including a charging error and an indication that the charging process has been suspended; and receive, via the at least one network, a second electronic message from the user that includes a user command, characterized in that the charging device is configured to receive in the user command a acceptance of a longer charge time, a different voltage, or a partial charge in order to allow the charging process to be resumed.
A method of authenticating a semiconductor memory device by a host device, the semiconductor memory device storing hidden first key information (NKey), secret identification information which is unique to the device (SecretID), encrypted secret identification information (E-SecretID), and key management information commonly attached, the host device storing hidden identification key information (IDKey) and index information (k), the method comprising: reading, by the host device, the encrypted secret identification information (E-SecretID) and the key management information from the semiconductor memory device; obtaining, by the host device, specific encrypted management key (E-FKey) which is capable to be selected and decrypted with using the identification key information (IDKey) and the index information (k) from the key management information; transmitting, by the host device, the index information (k) which indicates a selected store location of the encrypted management key (E-FKey) in the key management information, and the encrypted management key (E-FKey) to the semiconductor memory device; generating, by the semiconductor memory device, an index key using the first key information (NKey) and the received index information (k); and decrypting, by the semiconductor memory device, the encrypted management key (E-FKey) using the index key to obtain and transmit management key (FKey) to the host device. reading, by the host device, the encrypted secret identification information (E-SecretID) and the key management information from the semiconductor memory device; obtaining, by the host device, specific encrypted management key (E-FKey) which is capable to be selected and decrypted with using the identification key information (IDKey) and the index information (k) from the key management information; transmitting, by the host device, the index information (k) which indicates a selected store location of the encrypted management key (E-FKey) in the key management information, and the encrypted management key (E-FKey) to the semiconductor memory device; generating, by the semiconductor memory device, an index key using the first key information (NKey) and the received index information (k); and decrypting, by the semiconductor memory device, the encrypted management key (E-FKey) using the index key to obtain and transmit management key (FKey) to the host device.
An ultrasonic surgical device (100, 200) comprising: a power source (110, 210) configured to generate power; an ultrasonic transducer (150, 250), the ultrasonic transducer electrically coupled to the power source and configured to generate ultrasonic motion in response to the generated power; an ultrasonic probe (190, 290) configured to be mechanically couplable to the ultrasonic transducer, the ultrasonic transducer and the ultrasonic probe having a second resonant frequency when the ultrasonic probe is coupled to the ultrasonic transducer, wherein the ultrasonic transducer has a first resonant frequency when the ultrasonic probe is not coupled to the ultrasonic transducer; and a controller configured to determine whether the ultrasonic probe is properly coupled to the ultrasonic transducer based on the first resonant frequency and the second resonant frequency, wherein the controller further calculates a difference between the first resonant frequency and the second resonant frequency, and wherein the controller determines whether the ultrasonic probe is properly coupled to the ultrasonic transducer based on a comparison of the difference and a predetermined threshold. a power source (110, 210) configured to generate power; an ultrasonic transducer (150, 250), the ultrasonic transducer electrically coupled to the power source and configured to generate ultrasonic motion in response to the generated power; an ultrasonic probe (190, 290) configured to be mechanically couplable to the ultrasonic transducer, the ultrasonic transducer and the ultrasonic probe having a second resonant frequency when the ultrasonic probe is coupled to the ultrasonic transducer, wherein the ultrasonic transducer has a first resonant frequency when the ultrasonic probe is not coupled to the ultrasonic transducer; and a controller configured to determine whether the ultrasonic probe is properly coupled to the ultrasonic transducer based on the first resonant frequency and the second resonant frequency, wherein the controller further calculates a difference between the first resonant frequency and the second resonant frequency, and wherein the controller determines whether the ultrasonic probe is properly coupled to the ultrasonic transducer based on a comparison of the difference and a predetermined threshold.
A method, comprising: determining, by a processor, a free space input standard for a free space input, the free space input being received within an augmented reality construct defined by a volumetric boundary; sensing, with a sensor, the free space input within the volumetric boundary; comparing, by the processor, the free space input with the free space input standard; determining, by the processor, that the free space input includes a motion of an index finger while the index finger and a little finger are extended, so as to identify the hand motion as a gesture for input purposes and excludes a motion of the index finger while the little finger is not extended; determining, by the processor, that the free space input satisfies the free space input standard; and in response to the free space input satisfying the free space input standard, executing, by the processor, a surface constrained input response associated with the free space input. determining, by a processor, a free space input standard for a free space input, the free space input being received within an augmented reality construct defined by a volumetric boundary; sensing, with a sensor, the free space input within the volumetric boundary; comparing, by the processor, the free space input with the free space input standard; determining, by the processor, that the free space input includes a motion of an index finger while the index finger and a little finger are extended, so as to identify the hand motion as a gesture for input purposes and excludes a motion of the index finger while the little finger is not extended; determining, by the processor, that the free space input satisfies the free space input standard; and in response to the free space input satisfying the free space input standard, executing, by the processor, a surface constrained input response associated with the free space input.
A process for producing furan-2,5-dicarboxylic acid (FDCA), said process comprising: oxidizing in a primary oxidation zone at least one oxidizable compound in an oxidizable raw material stream in the presence of a solvent stream comprising acetic acid with or without the presence of water and a catalyst system comprising cobalt, manganese, and bromine, at a temperature of 110°C to 160°C to produce said FDCA, wherein the oxidizable raw material stream comprises 5-(acetoxymethyl)furfural (5-AMF), 5-(ethoxymethyl)furfural (5-EMF), 5-methyl furfural (5-MF), 5-AMF and 5-(hydroxymethyl)furfural (5-HMF), 5-EMF and 5-HMF, 5-MF and 5-HMF, or 5-AMF, 5-EMF and 5-HMF, wherein the weight ratio of cobalt to manganese in the reaction mixture ranges from 10 to 400 and the weight ratio of cobalt to bromine is from 0.7 to 3.5, wherein said catalyst system comprises cobalt in an amount ranging from 500 ppm to 6000 ppm, manganese in an amount ranging from 2 ppm to 600 ppm, and bromine in an amount ranging from 300 ppm to 4500 ppm with respect to the total weight of the liquid in the reaction medium. oxidizing in a primary oxidation zone at least one oxidizable compound in an oxidizable raw material stream in the presence of a solvent stream comprising acetic acid with or without the presence of water and a catalyst system comprising cobalt, manganese, and bromine, at a temperature of 110°C to 160°C to produce said FDCA, wherein the oxidizable raw material stream comprises 5-(acetoxymethyl)furfural (5-AMF), 5-(ethoxymethyl)furfural (5-EMF), 5-methyl furfural (5-MF), 5-AMF and 5-(hydroxymethyl)furfural (5-HMF), 5-EMF and 5-HMF, 5-MF and 5-HMF, or 5-AMF, 5-EMF and 5-HMF, wherein the weight ratio of cobalt to manganese in the reaction mixture ranges from 10 to 400 and the weight ratio of cobalt to bromine is from 0.7 to 3.5, wherein said catalyst system comprises cobalt in an amount ranging from 500 ppm to 6000 ppm, manganese in an amount ranging from 2 ppm to 600 ppm, and bromine in an amount ranging from 300 ppm to 4500 ppm with respect to the total weight of the liquid in the reaction medium.
A plastic film winding machine comprising an automatic core charging and reel discharging group, positioned partially juxtaposed and partially below a winding reel comprising a portion of core charging consisting of a motorized linear actuator carrying a guide-support which houses a certain number of cores suitable for receiving plastic film, said guide-support being movable, backwards and forwards, between a position associated with a core charger and a juxtaposed position, axially parallel to a spindle (16,17) of the winding reel, with said cores inserted on said spindle, said linear actuator also being vertically liftable with a variation in an external diameter of said cores in relation to the diameter of said cores, and a portion of bobbin discharging consisting of a motorized conveyor belt, equipped with at least one extendable portion, movable between a position below a spindle (16 or 17) carrying said wound bobbins and a discharging portion of said bobbins, said conveyor belt being vertically liftable with a variation in an external diameter of said cores, in relation to the diameter of said cores, both of said vertical liftings being operated by a linear potentiometer (73,82).
A razor cartridge comprising: - a blade; - a cartridge housing; and - a retainer for retaining the blade in the cartridge housing, the retainer comprising a central portion for extending across a minor axis of the blade, and a pair of legs extending from respective distal ends of the central portion to form substantially a U-shape with the central portion; - wherein the cartridge housing has a pair of openings for respectively receiving the pair of retainer legs, each opening having a first portion extending along an insertion axis of the leg and a second portion in communication with the first portion and extending in a direction offset from the insertion axis; and - wherein the retainer legs are sequentially inserted into the first portion and the second portion of the respective openings, and are deformed by the second portion to engage a wall of the second portion, to restrict movement of the retainer relative to the cartridge housing. - a blade; - a cartridge housing; and - a retainer for retaining the blade in the cartridge housing, the retainer comprising a central portion for extending across a minor axis of the blade, and a pair of legs extending from respective distal ends of the central portion to form substantially a U-shape with the central portion; - wherein the cartridge housing has a pair of openings for respectively receiving the pair of retainer legs, each opening having a first portion extending along an insertion axis of the leg and a second portion in communication with the first portion and extending in a direction offset from the insertion axis; and - wherein the retainer legs are sequentially inserted into the first portion and the second portion of the respective openings, and are deformed by the second portion to engage a wall of the second portion, to restrict movement of the retainer relative to the cartridge housing.
Composite mesh having biocompatible, antibacterial, hemostatic and anti-adhesive properties comprising a non-degradable mesh; the said mesh is prepared with blend system of biodegradable polyester-based polymers/ chitosan mixture in hexafluoro isopropanol (HFIP) solvent and coated on polypropylene layer as nanofiber via electrospun method.
A method for forwarding a firing signal within a nozzle group of a fluid ejection device, comprising: receiving warm data and fire data; receiving a firing signal having a firing pulse preceded by a warming pulse; conditionally modifying the firing signal according to a state of the warm data and a state of the fire data, forwarding the conditionally modified firing signal to a particular nozzle circuit of the nozzle group and passing a current representative of the conditionally modified firing signal through a firing element of the nozzle circuit, characterised in that conditionally modifying the firing signal comprises either not modifying the firing signal, blocking the firing pulse and not blocking the warming pulse or blocking the firing pulse and the warming pulse. receiving warm data and fire data; receiving a firing signal having a firing pulse preceded by a warming pulse; conditionally modifying the firing signal according to a state of the warm data and a state of the fire data, forwarding the conditionally modified firing signal to a particular nozzle circuit of the nozzle group and passing a current representative of the conditionally modified firing signal through a firing element of the nozzle circuit, characterised in that conditionally modifying the firing signal comprises either not modifying the firing signal, blocking the firing pulse and not blocking the warming pulse or blocking the firing pulse and the warming pulse.
Shieldable needle device comprising: a housing; a hub portion; a needle cannula including a forward end and a rearward end, said needle cannula extending from said hub portion; a tip guard axially movable along said needle cannula between a retracted position where said forward end of said needle cannula is exposed and an extended position where said tip guard protectively surrounds said forward end of said needle cannula; and a flexibly resilient drive mechanism, characterised in that the housing comprises the hub portion, a dorsal fin-shaped structure extending radially outward from said hub portion and a first lateral wing and a second lateral wing, wherein the drive mechanism interconnects the housing and the tip guard, said drive mechanism positioned within said dorsal fin-shaped structure of said housing and adapted to be retained therein in a biased state when said tip guard is in the retracted position. a housing; a hub portion; a needle cannula including a forward end and a rearward end, said needle cannula extending from said hub portion; a tip guard axially movable along said needle cannula between a retracted position where said forward end of said needle cannula is exposed and an extended position where said tip guard protectively surrounds said forward end of said needle cannula; and a flexibly resilient drive mechanism, characterised in that the housing comprises the hub portion, a dorsal fin-shaped structure extending radially outward from said hub portion and a first lateral wing and a second lateral wing, wherein the drive mechanism interconnects the housing and the tip guard, said drive mechanism positioned within said dorsal fin-shaped structure of said housing and adapted to be retained therein in a biased state when said tip guard is in the retracted position.