mhurhangee/ep-ind-claims huggingface dataset:
A high frequency amplifier comprising: a transistor having comb-shaped electrodes in which multiple finger electrodes are arranged in parallel; a pillar member having electrical conductivity and a heat dissipation characteristic, and covering the comb-shaped electrodes and covering between the comb-shaped electrodes via a thin film dielectric (14, 14A), wherein the comb-shaped electrodes include multiple gate fingers (5-1 to 5-10), multiple source fingers (6-1 to 6-4), and multiple drain fingers (7-1 to 7-5), and wherein the pillar member is electrically connected to the source fingers, and is electrically insulated from the gate fingers (5-1 to 5-10) and the drain fingers (7-1 to 7-5) via the thin film dielectric, characterized in that, the high frequency amplifier further comprises a rewiring layer disposed between the thin film dielectric and the pillar member, and electrically connecting the source fingers and the pillar member. a transistor having comb-shaped electrodes in which multiple finger electrodes are arranged in parallel; a pillar member having electrical conductivity and a heat dissipation characteristic, and covering the comb-shaped electrodes and covering between the comb-shaped electrodes via a thin film dielectric (14, 14A), wherein the comb-shaped electrodes include multiple gate fingers (5-1 to 5-10), multiple source fingers (6-1 to 6-4), and multiple drain fingers (7-1 to 7-5), and wherein the pillar member is electrically connected to the source fingers, and is electrically insulated from the gate fingers (5-1 to 5-10) and the drain fingers (7-1 to 7-5) via the thin film dielectric, characterized in that, the high frequency amplifier further comprises a rewiring layer disposed between the thin film dielectric and the pillar member, and electrically connecting the source fingers and the pillar member.
A system, comprising: an intra-shop connectivity system configured to be positioned within a service shop, comprising: a terminal configured to intake a vehicle into the service shop by receiving vehicle identification information associated with the vehicle; a server comprising a processor and a volatile or non-volatile memory, the server configured to store vehicle data associated with the vehicle, wherein the vehicle data comprises the vehicle identification information, ordered job information, color of paint for the vehicle, assigned operator, job start time, and job end time; and a scanner of a spray gun of a coating system, wherein the scanner is configured to scan a scannable indicia of the vehicle to identify the vehicle and relay the vehicle identification information to the server; wherein the intra-shop connectivity system is configured to control an amount and color of paint supplied to the spray gun in the service shop based at least in part on the vehicle identification information. a terminal configured to intake a vehicle into the service shop by receiving vehicle identification information associated with the vehicle; a server comprising a processor and a volatile or non-volatile memory, the server configured to store vehicle data associated with the vehicle, wherein the vehicle data comprises the vehicle identification information, ordered job information, color of paint for the vehicle, assigned operator, job start time, and job end time; and a scanner of a spray gun of a coating system, wherein the scanner is configured to scan a scannable indicia of the vehicle to identify the vehicle and relay the vehicle identification information to the server; wherein the intra-shop connectivity system is configured to control an amount and color of paint supplied to the spray gun in the service shop based at least in part on the vehicle identification information.
A cosmetic composition comprising: - a nonionic surfactant; and - a polyvalent alcohol fatty acid ester of: - a fatty acid having 6 to 12 carbon atoms, and - a polyvalent alcohol having 2 to 4 hydroxyl groups; wherein, a total amount of monoester and diester in the polyvalent alcohol fatty acid ester is 50% or more, and a weight ratio of monoester to diester is 4 or less, wherein the nonionic surfactant is a polyglycerin fatty acid ester, an average degree of polymerization of a constituent polyglycerin of the polyglycerin fatty acid ester is from 3 to less than 100, and a content of a cyclic form is 30% or less of the constituent polyglycerin. - a nonionic surfactant; and - a polyvalent alcohol fatty acid ester of: - a fatty acid having 6 to 12 carbon atoms, and - a polyvalent alcohol having 2 to 4 hydroxyl groups; - a fatty acid having 6 to 12 carbon atoms, and - a polyvalent alcohol having 2 to 4 hydroxyl groups;
Car safety supervising unit for an elevator comprising an elevator car displaceable within an elevator shaft, wherein the car SSU comprises at least: at least one sensor (17, 19, 21) for sensing car-related parameters and outputting corresponding car-related signals; an I/O interface for inputting input signals into the car SSU and for outputting output signals to external devices (31, 37); a signal processing unit for processing at least one of the car-related signals and the input signals and for generating the output signals; wherein the car SSU is adapted to operate in each one of an installation operation mode and a normal operation mode; wherein, in the normal operation mode, the signal processing unit processes both the car-related signals and the input signals and generates the output signals based on both the car-related signals and the input signals; characterized in that in the installation operation mode, the signal processing unit processes exclusively the car-related signals and generates the output signals based exclusively on the car-related signals. at least one sensor (17, 19, 21) for sensing car-related parameters and outputting corresponding car-related signals; an I/O interface for inputting input signals into the car SSU and for outputting output signals to external devices (31, 37); a signal processing unit for processing at least one of the car-related signals and the input signals and for generating the output signals; wherein the car SSU is adapted to operate in each one of an installation operation mode and a normal operation mode; wherein, in the normal operation mode, the signal processing unit processes both the car-related signals and the input signals and generates the output signals based on both the car-related signals and the input signals; characterized in that in the installation operation mode, the signal processing unit processes exclusively the car-related signals and generates the output signals based exclusively on the car-related signals.
A process for codimerizing olefins, which comprises a) providing a first olefin starting material which consists essentially of C n -olefins and providing a second olefin starting material, by dimerization of a raffinate II in the presence of a nickel-comprising oligomerization catalyst which consists essentially of C m -olefins, where n and m are, independently of one another, two different integers from 2 to 12, wherein the second olefin starting material has a degree of branching of the olefins, determined as the ISO index, in the range from 0 to 1.8, and b) reacting the first and second olefin starting materials over a heterogeneous olefin oligomerization catalyst which has a nickel content, based on elemental nickel, of not more than 1% by weight and which comprises at least one zeolite or consists of a zeolite. a) providing a first olefin starting material which consists essentially of C n -olefins and providing a second olefin starting material, by dimerization of a raffinate II in the presence of a nickel-comprising oligomerization catalyst which consists essentially of C m -olefins, where n and m are, independently of one another, two different integers from 2 to 12, wherein the second olefin starting material has a degree of branching of the olefins, determined as the ISO index, in the range from 0 to 1.8, and b) reacting the first and second olefin starting materials over a heterogeneous olefin oligomerization catalyst which has a nickel content, based on elemental nickel, of not more than 1% by weight and which comprises at least one zeolite or consists of a zeolite.
A container, comprising: a sidewall having a substantially circular cross-section and a container height and including: a circular top; a cylindrical upper portion having an upper height, a continuously concave curved intermediate portion extending downward from the upper portion; and a cylindrical lower portion having a lower height and extending downward from the intermediate portion; a bottom closing the cylindrical lower portion; wherein the container is metallic, characterised in that the upper height and the lower height combined are in a range of from about 15% to about 35% of the container height, and in that the cylindrical upper portion defines the circular top. a sidewall having a substantially circular cross-section and a container height and including: a circular top; a cylindrical upper portion having an upper height, a continuously concave curved intermediate portion extending downward from the upper portion; and a cylindrical lower portion having a lower height and a circular top; a cylindrical upper portion having an upper height, a continuously concave curved intermediate portion extending downward from the upper portion; and a cylindrical lower portion having a lower height and extending downward from the intermediate portion; a bottom closing the cylindrical lower portion; wherein the container is metallic, characterised in that the upper height and the lower height combined are in a range of from about 15% to about 35% of the container height, and in that the cylindrical upper portion defines the circular top.
A method for controlling a controlled self-oscillating resonant power converter, the power converter comprising two bipolar junction transistors (Q1, Q2) as switches in a half bridge arrangement, a capacitive series element and a load winding (T1d) in the path of a power converter load current, the base of each of said bipolar junction transistors (Q1, Q2) being connected to a respective drive winding (T1b, T1c), said drive windings (T1b, T1c) being magnetically coupled to the load winding (T1d) in opposite directions, said load winding (T1d) being coupled to the midpoint of the transistors (Q1, Q2) and configured to carry the power converter load current, whereby control over the power converter is achieved by controlling a control winding (T1a) magnetically coupled to said drive windings (T1b, T1c), the method comprising: selectively providing a short-circuit across the control winding (T1a) wherein the base drive windings (T1b, T1c) coupled to each bipolar junction transistor are clamped; monitoring the load winding current; and removing the short-circuit after commutation of the collector-emitter voltage of the bipolar junction transistors (Q1, Q2) and the current flowing out of the base of one of the bipolar junction transistors (Q1, Q2) drops to zero, and before reversal of the load winding current, when the load winding current drops below a first threshold value as it is approaching zero. selectively providing a short-circuit across the control winding (T1a) wherein the base drive windings (T1b, T1c) coupled to each bipolar junction transistor are clamped; monitoring the load winding current; and removing the short-circuit after commutation of the collector-emitter voltage of the bipolar junction transistors (Q1, Q2) and the current flowing out of the base of one of the bipolar junction transistors (Q1, Q2) drops to zero, and before reversal of the load winding current, when the load winding current drops below a first threshold value as it is approaching zero.
A method comprising: obtaining (405, 605) video data at a client device; extracting (410, 610), at the client device, information from the video data by the client device applying one or more processes to the video data when the video data is obtained at the client device; storing (415, 615), at the client device, the extracted information as metadata associated with the video data; receiving (420, 620), at the client device, information identifying one or more modifications to the video data; storing, at the client device, the received information identifying modifications to the video data in association with the video data; providing, at the client device, the video data, the metadata, and the identified modifications to an online system; storing, at the online system, the video data, the metadata, and the identified modifications; and providing, by the client device, at the online system, the video data, the metadata, and the identified modifications to a plurality of additional client devices for display, each of the plurality of additional client devices configured to modify the video data differently during presentation of the video data based on differences in data captured by one or more components of each of the plurality of additional client devices. obtaining (405, 605) video data at a client device; extracting (410, 610), at the client device, information from the video data by the client device applying one or more processes to the video data when the video data is obtained at the client device; storing (415, 615), at the client device, the extracted information as metadata associated with the video data; receiving (420, 620), at the client device, information identifying one or more modifications to the video data; storing, at the client device, the received information identifying modifications to the video data in association with the video data; providing, at the client device, the video data, the metadata, and the identified modifications to an online system; storing, at the online system, the video data, the metadata, and the identified modifications; and providing, by the client device, at the online system, the video data, the metadata, and the identified modifications to a plurality of additional client devices for display, each of the plurality of additional client devices configured to modify the video data differently during presentation of the video data based on differences in data captured by one or more components of each of the plurality of additional client devices.
A display device comprising: a display panel; a front cover including: a front part covering an edge of a front surface of the display panel, a side part extended from the front part and covering a side surface of the display panel, and a guide positioned between the side surface of the display panel and the side part, protruding from the front part and the side part and supporting the side surface of the display panel; a frame including a rear part positioned in a rear of the display panel and a supporting part extended from the rear part and supporting a rear surface of the display panel; and a back cover positioned in the rear of the frame and coupled to the side part of the front cover, wherein the side part of the front cover is coupled to the frame. a display panel; a front cover including: a front part covering an edge of a front surface of the display panel, a side part extended from the front part and covering a side surface of the display panel, and a guide positioned between the side surface of the display panel and the side part, protruding from the front part and the side part and supporting the side surface of the display panel; a front part covering an edge of a front surface of the display panel, a side part extended from the front part and covering a side surface of the display panel, and a guide positioned between the side surface of the display panel and the side part, protruding from the front part and the side part and supporting the side surface of the display panel; a frame including a rear part positioned in a rear of the display panel and a supporting part extended from the rear part and supporting a rear surface of the display panel; and a back cover positioned in the rear of the frame and coupled to the side part of the front cover, wherein the side part of the front cover is coupled to the frame.
A method of a User Equipment, in the following also referred to as UE, comprising: maintaining at least one serving beam in a serving cell during a Discontinuous Reception, in the following also referred to as DRX, active time; and performing measurement on the at least one serving beam to determine whether the at least one serving beam is valid during a DRX inactive time; wherein a beam feedback procedure is not continued during the DRX inactive time; characterized in that the measurement on the at least one serving beam to determine whether the at least one serving beam is valid is performed when uplink data is available for transmission; and the method further comprises selecting a specific beam of the serving cell during the DRX inactive time and transmitting a request for uplink resource via the specific beam if the at least one serving beam is not valid, wherein the UE selects the specific beam based on beam reference signal measurement. maintaining at least one serving beam in a serving cell during a Discontinuous Reception, in the following also referred to as DRX, active time; and performing measurement on the at least one serving beam to determine whether the at least one serving beam is valid during a DRX inactive time; wherein a beam feedback procedure is not continued during the DRX inactive time; characterized in that the measurement on the at least one serving beam to determine whether the at least one serving beam is valid is performed when uplink data is available for transmission; and the method further comprises selecting a specific beam of the serving cell during the DRX inactive time and transmitting a request for uplink resource via the specific beam if the at least one serving beam is not valid, wherein the UE selects the specific beam based on beam reference signal measurement.
A phase change material composition comprising an ester of a linear alcohol which has at least 4 carbon atoms and a linear carboxylic acid selected from heptanoic acid, nonanoic acid and mixtures thereof, wherein the total number of carbon atoms in the ester is in the range from 13 to 31.
A chimeric Newcastle Disease Virus, comprising a packaged genome comprising a nucleotide sequence encoding an F-fusion protein having the transmembrane and cytoplasmic domains of an F protein and at least one epitope of an ectodomain of a protective antigen of an infectious agent or an antigen associated with a disease that is anchored by the C-terminus, so that the F-fusion protein is expressed and incorporated into the chimeric NDV, wherein the antigen is not derived from a paramyxovirus, and wherein the function of the F protein is supplied by the F-fusion protein or by the native F protein.
A network switching system for an industrial plant comprising: a switch comprising a central processor unit, CPU, side channel, a first input channel, a second input channel and a third input channel; an internal CPU (110, 210) connected to the switch via the CPU side channel; a first external port connected to the first input channel of the switch; a multiplexer, MUX, comprising at least two MUX switches, wherein a first MUX switch is connected to the second input channel of the switch and a second MUX switch is connected to the third input channel of the switch; a second external port connected to the first MUX switch of the multiplexer; a third external port connected to the second MUX switch of the multiplexer; and a means configured to receive a configuration parameter (1490, 1499, 1590, 1599) that transitions the network switching system between a first mode that configures the first external port, the second external port, and the third external port for operation on a single network, and a second mode that configures the first external port and the second external port for operation on a first network and configures the third external port for operation on a second network, wherein the first external port and the second external port are configured to operate with at least one of an EtherNet/IP ENIP, network protocol, a NEO backplane protocol, and an EtherNet/IP ENIP, network protocol on a local area network a switch comprising a central processor unit, CPU, side channel, a first input channel, a second input channel and a third input channel; an internal CPU (110, 210) connected to the switch via the CPU side channel; a first external port connected to the first input channel of the switch; a multiplexer, MUX, comprising at least two MUX switches, wherein a first MUX switch is connected to the second input channel of the switch and a second MUX switch is connected to the third input channel of the switch; a second external port connected to the first MUX switch of the multiplexer; a third external port connected to the second MUX switch of the multiplexer; and a means configured to receive a configuration parameter (1490, 1499, 1590, 1599) that transitions the network switching system between a first mode that configures the first external port, the second external port, and the third external port for operation on a single network, and a second mode that configures the first external port and the second external port for operation on a first network and configures the third external port for operation on a second network, wherein the first external port and the second external port are configured to operate with at least one of an EtherNet/IP ENIP, network protocol, a NEO backplane protocol, and an EtherNet/IP ENIP, network protocol on a local area network
A method for surface-treating a rolled copper foil, the method comprising steps of: a) forming a nodule on a surface of the rolled copper foil; b) introducing the copper foil having thereon the nodule to a plating solution including first metal having heat resistance, second metal having chemical resistance, and third metal having an anticorrosive property to perform alloy plating; and c) applying the alloy plated copper foil with a silane coupling agent, wherein first metal is at least one selected from the group consisting of nickel (Ni), cobalt (Co), niobium (Nb), copper (Cu), zinc (Zn), and molybdenum (Mo), the second metal is zinc (Zn) or tin (Sn), the third metal is chrome (Cr), and a concentration ratio of the first metal, the second metal, and the third metal included in the plating solution is 0.5 to 3: 0.5 to 3: 2 to 7. a) forming a nodule on a surface of the rolled copper foil; b) introducing the copper foil having thereon the nodule to a plating solution including first metal having heat resistance, second metal having chemical resistance, and third metal having an anticorrosive property to perform alloy plating; and c) applying the alloy plated copper foil with a silane coupling agent,
A stack carbon foam being a stack of at least two monolayer carbon foams stacked one another, each monolayer carbon foam comprising linear portions and node portions joining the linear portions, wherein the thickness of the stack carbon foam is 0.01 mm to 5.0 mm.