mhurhangee/ep-ind-claims huggingface dataset:
A process for producing a frame or a frame portion for a ball-game racket comprising a head portion and a handle portion, wherein at least a part of the frame is configured as a hollow profile and comprises magnesium and wherein the wall thickness of the hollow profile varies along a cross-section through the hollow frame profile, wherein the process comprises the following steps: providing an injection mold and a core, wherein the core consists of a material having a melting temperature below 400°C; casting the frame or the frame portion by means of the thixo process by inserting a material comprising magnesium between the injection mold and the core; and melting the core by heating the frame or frame portion including the core to above the melting temperature of the core, wherein the heat resistance temperature of the frame or frame portion is not exceeded. providing an injection mold and a core, wherein the core consists of a material having a melting temperature below 400°C; casting the frame or the frame portion by means of the thixo process by inserting a material comprising magnesium between the injection mold and the core; and melting the core by heating the frame or frame portion including the core to above the melting temperature of the core, wherein the heat resistance temperature of the frame or frame portion is not exceeded.
An implant for replacing a portion of an articular surface of a femoral condyle comprising: first, second, and third segments (44a, b, c), said first, said second, and said third segments (44a, b, c) comprise a bone contacting surface and a load bearing surface, said load bearing surface comprising an anterior-posterior curvature and a medial lateral curvature, wherein said AP curvature comprises at least two tangential curves of said portion of said articular surface of said femoral condyle, said tangential curves having different radii of curvature, characterized in that said second and said third segments (44b, c) partially overlap said first segment on opposite ends of said first segment, and wherein said first, said second, and said third segments (44a, b, c) each comprise a truncated, generally circular cross-sectional shape. first, second, and third segments (44a, b, c), said first, said second, and said third segments (44a, b, c) comprise a bone contacting surface and a load bearing surface, said load bearing surface comprising an anterior-posterior curvature and a medial lateral curvature, wherein said AP curvature comprises at least two tangential curves of said portion of said articular surface of said femoral condyle, said tangential curves having different radii of curvature, characterized in that said second and said third segments (44b, c) partially overlap said first segment on opposite ends of said first segment, and wherein said first, said second, and said third segments (44a, b, c) each comprise a truncated, generally circular cross-sectional shape.
A veterinary composition comprising dimethicone and cyclomethicone and isopropyl myristate for use in the treatment of flea infestation in a pet, wherein dimethicone is present in an amount of from 2 %w/v to 20 %w/v, cyclomethicone is present in an amount of from 10 %w/v to 40 %w/v, and isopropyl myristate is present in an amount of from 20 %w/v to 70 %w/v, and wherein the composition further comprises benzyl alcohol, wherein benzyl alcohol is present in an amount of from 2 %w/v to 15%w/v.
An oil separator comprising: a separating portion, which separates oil contained in a gaseous fuel from the gaseous fuel; a drain tank, which stores the separated oil; and a detection mechanism, which detects an amount of storage of the oil in the drain tank, wherein the separating portion is located in an upper area in the drain tank in a vertical direction, characterized in that the detection mechanism is fixed to a side wall of the drain tank such that the detection mechanism is located at a position that is lower than the position of the separating portion in the drain thank in the vertical direction, wherein the detection mechanism is capable of outputting different signals in accordance with a type of fluid that the detection mechanism contacts, the detection mechanism includes a first thermistor and a second thermistor that generate heat according to a supply of current, and the detection mechanism is configured such that, in a state where the gaseous fuel that has passed through the separating portion is not supplied to an engine, a voltage (Va) applied to the first thermistor is lower than a voltage (Vc) applied to the second thermistor when the first and second thermistors are not immersed in the oil, and the voltage (Va) applied to the first thermistor is higher than the voltage applied to the second thermistor when the first and second thermistors are immersed in the oil. a separating portion, which separates oil contained in a gaseous fuel from the gaseous fuel; a drain tank, which stores the separated oil; and a detection mechanism, which detects an amount of storage of the oil in the drain tank, wherein the separating portion is located in an upper area in the drain tank in a vertical direction, characterized in that the detection mechanism is fixed to a side wall of the drain tank such that the detection mechanism is located at a position that is lower than the position of the separating portion in the drain thank in the vertical direction, wherein the detection mechanism is capable of outputting different signals in accordance with a type of fluid that the detection mechanism contacts, the detection mechanism includes a first thermistor and a second thermistor that generate heat according to a supply of current, and the detection mechanism is configured such that, in a state where the gaseous fuel that has passed through the separating portion is not supplied to an engine, a voltage (Va) applied to the first thermistor is lower than a voltage (Vc) applied to the second thermistor when the first and second thermistors are not immersed in the oil, and the voltage (Va) applied to the first thermistor is higher than the voltage applied to the second thermistor when the first and second thermistors are immersed in the oil. a voltage (Va) applied to the first thermistor is lower than a voltage (Vc) applied to the second thermistor when the first and second thermistors are not immersed in the oil, and the voltage (Va) applied to the first thermistor is higher than the voltage applied to the second thermistor when the first and second thermistors are immersed in the oil.
A method of preparing 4-methyl-3-decen-5-one, the method comprising oxidizing 4-methyl-3-decen-5-ol in the presence of (i) an oxygen-containing gas and (ii) a metal catalyst, wherein the metal catalyst contains a catalytic metal deposited on a nanoparticle support.
An apparatus for evaluating an earth formation intersected by a borehole, the apparatus comprising: a first radiation responsive component configured to detect gamma rays; a second radiation responsive component configured to detect gamma rays that traverse the first radiation responsive component, wherein the second radiation responsive component is disposed within the first radiation responsive component, and characterised in that the first radiation responsive component and the second radiation responsive component are configured such that the second radiation responsive component detects gamma rays with a higher detection efficiency than the first radiation responsive component; the apparatus further comprising: a processor configured to: generate a reduced-Compton gamma ray spectrum by generating an anticoincidence gamma ray spectrum responsive to the gamma rays detected by the first radiation responsive component and the gamma rays detected by the second radiation responsive component, wherein the anticoincidence gamma ray spectrum is indicative of those gamma rays of the gamma rays detected by the second radiation responsive component that are not detected in coincidence with the same gamma rays detected by the first radiation responsive component. a first radiation responsive component configured to detect gamma rays; a second radiation responsive component configured to detect gamma rays that traverse the first radiation responsive component, wherein the second radiation responsive component is disposed within the first radiation responsive component, and characterised in that the first radiation responsive component and the second radiation responsive component are configured such that the second radiation responsive component detects gamma rays with a higher detection efficiency than the first radiation responsive component; the apparatus further comprising: a processor configured to: generate a reduced-Compton gamma ray spectrum by generating an anticoincidence gamma ray spectrum responsive to the gamma rays detected by the first radiation responsive component and the gamma rays detected by the second radiation responsive component, wherein the anticoincidence gamma ray spectrum is indicative of those gamma rays of the gamma rays detected by the second radiation responsive component that are not detected in coincidence with the same gamma rays detected by the first radiation responsive component.
An information processing device for performing image reception, comprising: circuitry configured to, establish a first connection with a first information processing device via an access point, establish a second connection with a second information processing device via the access point, display information regarding devices connected to the information processing device on the information processing device, receive a first, a second and a third manipulation information from the first information processing device with the first connection via the access point, and/or receive a first, a second and a third manipulation information from the second information processing device with the second connection via the access point, wherein the first manipulation information is to cause the information processing device to display a first image based on a first image data received from the first information processing device with the first connection via the access point without disconnecting the second connection, wherein the second manipulation information is to cause the information processing device to display a second image based on a second image data received from the second information processing device with the second connection via the access point without disconnecting the first connection, and wherein the third manipulation information is to cause the information processing device to establish a third connection via direct connection without disconnecting the first and the second connection. circuitry configured to, establish a first connection with a first information processing device via an access point, establish a second connection with a second information processing device via the access point, display information regarding devices connected to the information processing device on the information processing device, receive a first, a second and a third manipulation information from the first information processing device with the first connection via the access point, and/or receive a first, a second and a third manipulation information from the second information processing device with the second connection via the access point, wherein the first manipulation information is to cause the information processing device to display a first image based on a first image data received from the first information processing device with the first connection via the access point without disconnecting the second connection, wherein the second manipulation information is to cause the information processing device to display a second image based on a second image data received from the second information processing device with the second connection via the access point without disconnecting the first connection, and wherein the third manipulation information is to cause the information processing device to establish a third connection via direct connection without disconnecting the first and the second connection.
A method comprising: emitting light from a light emitting diode having a first optical axis, a section of the emitted light headed towards an inner refractive surface on a first side of a unitary optical element, the first side forming a cavity in which at least a dome of the light emitting diode is disposed such that the first side faces the light emitting diode; responsive to incidence on the inner refractive surface, refracting the section of the emitted light to form a beam having a second optical axis, the beam headed towards a totally internally reflective surface on a second side of the unitary optical element, wherein the second side is opposite the first side, and wherein the second optical axis is disposed at an acute angle relative to the first optical axis; responsive to incidence of the beam on the totally internally reflective surface, totally internally reflecting the beam; and transmitting the totally internally reflected beam out of the unitary optical element, wherein the inner refractive surface is a convex collimating lens bulging into the cavity, and wherein transmitting the totally internally reflected beam out of the unitary optical element comprises the totally internally reflected beam exiting the unitary optical element through an outer refractive concave surface located on said second side that diverges the beam. emitting light from a light emitting diode having a first optical axis, a section of the emitted light headed towards an inner refractive surface on a first side of a unitary optical element, the first side forming a cavity in which at least a dome of the light emitting diode is disposed such that the first side faces the light emitting diode; responsive to incidence on the inner refractive surface, refracting the section of the emitted light to form a beam having a second optical axis, the beam headed towards a totally internally reflective surface on a second side of the unitary optical element, wherein the second side is opposite the first side, and wherein the second optical axis is disposed at an acute angle relative to the first optical axis; responsive to incidence of the beam on the totally internally reflective surface, totally internally reflecting the beam; and transmitting the totally internally reflected beam out of the unitary optical element, wherein the inner refractive surface is a convex collimating lens bulging into the cavity, and wherein transmitting the totally internally reflected beam out of the unitary optical element comprises the totally internally reflected beam exiting the unitary optical element through an outer refractive concave surface located on said second side that diverges the beam.
A lipoparticle comprising an external cellular lipid bilayer, a retroviral structural protein and a heterologous multiple membrane spanning protein, wherein the multiple membrane spanning protein that is incorporated in the lipoparticle does not bind to the retroviral structural protein, provided that the only viral proteins in the lipoparticle are viral structural proteins, wherein the retroviral structural protein is gag protein.
A cosmetic product, comprising: a foam carrier; and a cosmetic composition supported in the foam carrier, the cosmetic composition having a viscosity of 2,000-60,000 cps (mPa·s), determined by using a viscometer, wherein the foam carrier: - comprises acrylonitrile-butadiene rubber, - is provided with pores having an average size of 200-900 μm, said pore having bumps at the pore stems, said pores having bumps are present in 20-80% based on the total number of pores included in the foam carrier, and said bumps have a size corresponding to 2.5-25% of the average pore size, wherein the bump size is a length of a longer side of bump measured by an optical microscope, - has a structure having a small-size cell contained in a large-size cell, and - has a thickness of 1-50 mm. a foam carrier; and a cosmetic composition supported in the foam carrier, the cosmetic composition having a viscosity of 2,000-60,000 cps (mPa·s), determined by using a viscometer, wherein the foam carrier: - comprises acrylonitrile-butadiene rubber, - is provided with pores having an average size of 200-900 μm, said pore having bumps at the pore stems, said pores having bumps are present in 20-80% based on the total number of pores included in the foam carrier, and said bumps have a size corresponding to 2.5-25% of the average pore size, wherein the bump size is a length of a longer side of bump measured by an optical microscope, - has a structure having a small-size cell contained in a large-size cell, and - has a thickness of 1-50 mm. - comprises acrylonitrile-butadiene rubber, - is provided with pores having an average size of 200-900 μm, said pore having bumps at the pore stems, said pores having bumps are present in 20-80% based on the total number of pores included in the foam carrier, and said bumps have a size corresponding to 2.5-25% of the average pore size, wherein the bump size is a length of a longer side of bump measured by an optical microscope, - has a structure having a small-size cell contained in a large-size cell, and - has a thickness of 1-50 mm.
A device, comprising: one or more processors to: receive a trigger to determine whether a malicious file is operating on a client device; execute the malicious file in a testing environment configured based on a configuration of the client device; determine a network activity profile associated with the malicious file based on receiving the trigger and based on executing the malicious file in the testing environment, the network activity profile including information regarding first network activity associated with the malicious file when the malicious file is executed in the testing environment; monitor second network activity associated with the client device; generate a network activity score representing a measure of similarity of the second network activity to the network activity profile; compare the network activity score to a threshold; determine that the client device is infected with the malicious file based on the network activity score satisfying the threshold; and provide a notification indicating that the client device is infected with the malicious file. receive a trigger to determine whether a malicious file is operating on a client device; execute the malicious file in a testing environment configured based on a configuration of the client device; determine a network activity profile associated with the malicious file based on receiving the trigger and based on executing the malicious file in the testing environment, the network activity profile including information regarding first network activity associated with the malicious file when the malicious file is executed in the testing environment; monitor second network activity associated with the client device; generate a network activity score representing a measure of similarity of the second network activity to the network activity profile; compare the network activity score to a threshold; determine that the client device is infected with the malicious file based on the network activity score satisfying the threshold; and provide a notification indicating that the client device is infected with the malicious file.
A method of manufacturing a heat exchanger provided with a heat transfer pipe through which a fluid passes and a heat transfer fin which said heat transfer pipe penetrates and carries out heat exchange with air, by providing a plurality of holes on a surface of said heat transfer fin, characterized in that the method further comprises said holes each having a radius smaller than a critical radius r* of a condensed water droplet, said critical radius r* being determined by an air temperature and an air humidity around said heat transfer fin and a surface temperature of said heat transfer fin, said critical radius r* having a relation of p/pe = exp((2γv) / (kTr*)), where p is a water vapor pressure, pe is an equilibrium vapor pressure of said condensed water droplet, γ is surface energy density, v is a volume of a single molecule, k is the Boltsmann constant, and T is a surface temperature of said heat transfer fin.
An orthotic device, comprising: a forearm section; a powered hand portion coupled to a distal end of the forearm section; a switching element configured to generate one or more input signals for adjusting operation of the powered hand portion; and a controller configured to receive the input signals and, based on the input signals, generate control signals for the adjusting of the operation of the powered hand portion, wherein the switching element comprises a momentary switch for generating the input signals, and wherein, in response to the input signals indicating a first temporary activation of the momentary switch, the controller configures the control signals to cause the powered hand portion to alternate between an open position and a closed position, characterised in that the controller generates the control signals following a predetermined time delay, wherein the predetermined time delay commences upon release of the momentary switch after the first activation, wherein, in response to the input signals indicating one or more second temporary activations of the momentary switch within the predetermined delay, the controller configures the control signals to cause the powered hand portion to alternate between the open position and the closed position with an amount of force proportional to a number of the one or more second temporary activations. a forearm section; a powered hand portion coupled to a distal end of the forearm section; a switching element configured to generate one or more input signals for adjusting operation of the powered hand portion; and a controller configured to receive the input signals and, based on the input signals, generate control signals for the adjusting of the operation of the powered hand portion, wherein the switching element comprises a momentary switch for generating the input signals, and wherein, in response to the input signals indicating a first temporary activation of the momentary switch, the controller configures the control signals to cause the powered hand portion to alternate between an open position and a closed position, characterised in that the controller generates the control signals following a predetermined time delay, wherein the predetermined time delay commences upon release of the momentary switch after the first activation, wherein, in response to the input signals indicating one or more second temporary activations of the momentary switch within the predetermined delay, the controller configures the control signals to cause the powered hand portion to alternate between the open position and the closed position with an amount of force proportional to a number of the one or more second temporary activations.