mhurhangee/ep-ind-claims huggingface dataset:
A hybrid energy system, comprising: a generator step-up transformer; a gas turbine generator, GTG, configured to provide a full-load power output; a storage device configured to store energy, wherein the GTG and the storage device are electrically co-located on a low side of the generator step-up transformer, wherein the hybrid energy system is configured to use the GTG to supplement the storage device to maintain a state of charge of the storage device within a specified range from a target state of charge, characterised in that the hybrid energy system is configured to start the GTG from a stand-by-state to a desired power output of the hybrid energy system and discharge at least a portion of the stored energy of the storage device at a hybrid ramp rate to discharge energy according to a difference between a gas-turbine alone ramp rate as if the GTG was to ramp alone from being in an on-line mode and synchronized, and the actual power output of the GTG, on a net basis. a generator step-up transformer; a gas turbine generator, GTG, configured to provide a full-load power output; a storage device configured to store energy, wherein the GTG and the storage device are electrically co-located on a low side of the generator step-up transformer, wherein the hybrid energy system is configured to use the GTG to supplement the storage device to maintain a state of charge of the storage device within a specified range from a target state of charge, characterised in that the hybrid energy system is configured to start the GTG from a stand-by-state to a desired power output of the hybrid energy system and discharge at least a portion of the stored energy of the storage device at a hybrid ramp rate to discharge energy according to a difference between a gas-turbine alone ramp rate as if the GTG was to ramp alone from being in an on-line mode and synchronized, and the actual power output of the GTG, on a net basis.
A plywood panel for use at a temperature of less than -50 °C, the plywood panel having a length (Ip), a width (wp), and a thickness (tp), wherein the thickness (tp) is less than the smaller of the length (Ip) and the width (wp), the plywood panel comprising - a first veneer layer comprising hardwood having a first grain orientation, - a second veneer layer comprising hardwood having a second grain orientation, and - a third veneer layer comprising hardwood having a third grain orientation, wherein - the third veneer layer is arranged in between the first veneer layer and the second veneer layer in the direction of the thickness (tp) of the plywood panel, - the first grain orientation forms an angle (α13) with the third grain orientation, the angle (α13) being from 60 to 120 degrees, and - the veneer layers (110, 120, 130) have been attached to each other with adhesive comprising resin that • comprises polymerizable substance and crosslinking agent, wherein • at least 50 weight-% of the polymerizable substance originates from lignin, • at least 10 % of the molecules in the resin have a molecular weight of above 10000 Da, • at least 10 % of the molecules in the resin have a molecular weight of below 1000 Da, • a number-average molar mass of the resin is from 1000 Da to 1600 Da, and • a weight-average molar mass of the resin is from 5000 Da to 14000 Da. - a first veneer layer comprising hardwood having a first grain orientation, - a second veneer layer comprising hardwood having a second grain orientation, and - a third veneer layer comprising hardwood having a third grain orientation, wherein - the third veneer layer is arranged in between the first veneer layer and the second veneer layer in the direction of the thickness (tp) of the plywood panel, - the first grain orientation forms an angle (α13) with the third grain orientation, the angle (α13) being from 60 to 120 degrees, and - the veneer layers (110, 120, 130) have been attached to each other with adhesive comprising resin that • comprises polymerizable substance and crosslinking agent, wherein • at least 50 weight-% of the polymerizable substance originates from lignin, • at least 10 % of the molecules in the resin have a molecular weight of above 10000 Da, • at least 10 % of the molecules in the resin have a molecular weight of below 1000 Da, • a number-average molar mass of the resin is from 1000 Da to 1600 Da, and • a weight-average molar mass of the resin is from 5000 Da to 14000 Da. • comprises polymerizable substance and crosslinking agent, wherein • at least 50 weight-% of the polymerizable substance originates from lignin, • at least 10 % of the molecules in the resin have a molecular weight of above 10000 Da, • at least 10 % of the molecules in the resin have a molecular weight of below 1000 Da, • a number-average molar mass of the resin is from 1000 Da to 1600 Da, and • a weight-average molar mass of the resin is from 5000 Da to 14000 Da.
Abrasive tool having - a support, - a plurality of abrasive flaps, -- which are arranged on the support and -- which each have a base and abrasive material, wherein the abrasive material is attached to the base by means of a binder, characterized in that at least one of the abrasive flaps has a cured filling resin for reinforcement, and the respective base comprises at least one thread (19, 20), which is provided with the cured filling resin. - a support, - a plurality of abrasive flaps, -- which are arranged on the support and -- which each have a base and abrasive material, wherein the abrasive material is attached to the base by means of a binder, -- which are arranged on the support and -- which each have a base and abrasive material, wherein the abrasive material is attached to the base by means of a binder,
A method for coding video data via a plurality of coding modes in display link video compression, comprising: coding a slice of the video data, the slice comprising a plurality of pixels in a first line of the slice and a plurality of non-first lines of the slice, the coding of the slice comprising: coding a current pixel of the first line of the slice in a spatial prediction mode using a previous pixel of the first line as a predictor; and coding another pixel of a non-first line of the slice in a coding mode other than the spatial prediction mode; wherein the slice of the video data is further organized into a plurality of blocks (215, 217), each block being a two-dimensional, 2D, block including at least two rows of pixels, each line of the slice comprising a plurality of blocks (215, 217), wherein the current pixel and the previous pixel are in the same row, and wherein the coding of the slice of the video data further comprises coding each row of the first line via corresponding first and second interleaved coding paths, each of the pixels in the first and second interleaved coding paths being coded independently of pixels outside of the corresponding interleaved coding path. coding a slice of the video data, the slice comprising a plurality of pixels in a first line of the slice and a plurality of non-first lines of the slice, the coding of the slice comprising: coding a current pixel of the first line of the slice in a spatial prediction mode using a previous pixel of the first line as a predictor; and coding another pixel of a non-first line of the slice in a coding mode other than the spatial prediction mode; wherein coding a current pixel of the first line of the slice in a spatial prediction mode using a previous pixel of the first line as a predictor; and coding another pixel of a non-first line of the slice in a coding mode other than the spatial prediction mode; wherein the slice of the video data is further organized into a plurality of blocks (215, 217), each block being a two-dimensional, 2D, block including at least two rows of pixels, each line of the slice comprising a plurality of blocks (215, 217), wherein the current pixel and the previous pixel are in the same row, and wherein the coding of the slice of the video data further comprises coding each row of the first line via corresponding first and second interleaved coding paths, each of the pixels in the first and second interleaved coding paths being coded independently of pixels outside of the corresponding interleaved coding path.
A method for face anonymization, the method comprising: - receiving an input image (I in) showing a face to be anonymized; - receiving an input vector with control data for face anonymization; and - generating, by a generative adversarial network, an output image (I out) in which the face is anonymized in accordance with the control data of the input vector; characterized in that the generative adversarial network comprises a generator sub-network trained to generate new faces with different facial attributes, a discriminator sub-network trained to evaluate if generated new faces are realistic and natural, and an identity classifier sub-network trained to evaluate if face identities of new faces have been changed. - receiving an input image (I in) showing a face to be anonymized; - receiving an input vector with control data for face anonymization; and - generating, by a generative adversarial network, an output image (I out) in which the face is anonymized in accordance with the control data of the input vector;
A circular saw blade, comprising: a circular core having a first planar side and a second planar side, a central arbor hole, and an outer perimeter; a plurality of cutting elements at the outer perimeter of the core; and one or more offset gullets extending radially inward from the perimeter of the core, each offset gullet including a first opening in the first planar side of the core and a second opening in the second planar side of the core, wherein the first and second openings are adjacent but at least partially offset from one another so that at least a portion of the offset gullet is not see-through, characterized in that the first and second openings (25,27) are oriented about a plane containing the rotational axis. a circular core having a first planar side and a second planar side, a central arbor hole, and an outer perimeter; a plurality of cutting elements at the outer perimeter of the core; and one or more offset gullets extending radially inward from the perimeter of the core, each offset gullet including a first opening in the first planar side of the core and a second opening in the second planar side of the core, wherein the first and second openings are adjacent but at least partially offset from one another so that at least a portion of the offset gullet is not see-through, characterized in that the first and second openings (25,27) are oriented about a plane containing the rotational axis.
A III-V semiconductor-comprising epitaxial substrate having a sacrificial layer (12; 22; 32) deposited on a wafer substrate (11; 21; 31), a bandgap of said sacrificial layer (12; 22; 32) being smaller than the bandgap of the substrate crystal of the wafer substrate (11; 21; 31), characterized in that the wafer (11; 21; 31) contains GaAs, the band gap of the sacrificial layer (12; 22; 32) is smaller than the band gap of GaAs, the sacrificial layer (12; 22; 32) contains Ge, GaAsN, GaAsSb or InGaAs, and the epitaxial substrate comprises an etch stop layer (24a; 34a), wherein the etch stop layer (24a; 34a) is disposed below the sacrificial layer (22; 32), wherein the epitaxial substrate - comprises at least one epitaxial layer (23, 33) whose band gap is greater than the band gap of the sacrificial layer (22, 32), - comprises an etch stop layer (24a, 34a), which is disposed between the wafer substrate (21, 31) and the sacrificial layer (22, 32), - comprises a further etching stop layer (24b, 34b), which is arranged between the sacrificial layer (22, 32) and the overlying epitaxial layer (23, 33), - comprises a lattice matching layer (25a, 35a), which is disposed between the etch stop layer (24a, 34a) and the sacrificial layer (22, 32), and - comprises a further lattice matching layer (25b, 35b), which is arranged between the sacrificial layer (22, 32) and the further etching stop layer (24b, 34b). - comprises at least one epitaxial layer (23, 33) whose band gap is greater than the band gap of the sacrificial layer (22, 32), - comprises an etch stop layer (24a, 34a), which is disposed between the wafer substrate (21, 31) and the sacrificial layer (22, 32), - comprises a further etching stop layer (24b, 34b), which is arranged between the sacrificial layer (22, 32) and the overlying epitaxial layer (23, 33), - comprises a lattice matching layer (25a, 35a), which is disposed between the etch stop layer (24a, 34a) and the sacrificial layer (22, 32), and - comprises a further lattice matching layer (25b, 35b), which is arranged between the sacrificial layer (22, 32) and the further etching stop layer (24b, 34b).
A terminal crimping machine for crimping a terminal to a wire, the terminal crimping machine comprising: a crimp tooling defining a crimping zone that receives the terminal and the wire, the crimp tooling being actuated during a crimp stroke to form a crimped segment between the terminal and the wire; an actuator operably coupled to the crimp tooling and driving the crimp tooling during the crimp stroke; and an electrical crimp consolidation circuit electrically connected to the crimped segment and operated during the crimp stroke to provide an electrical pulse to at least one of the wire and the terminal of the crimped segment before completion of the crimp stroke, the electrical crimp consolidation circuit including a trigger for controlling a pulse start time of the electrical pulse during the crimp stroke, characterized in that the trigger comprises a sensor monitoring a position of the actuator to activate the electrical pulse during the crimp stroke. a crimp tooling defining a crimping zone that receives the terminal and the wire, the crimp tooling being actuated during a crimp stroke to form a crimped segment between the terminal and the wire; an actuator operably coupled to the crimp tooling and driving the crimp tooling during the crimp stroke; and an electrical crimp consolidation circuit electrically connected to the crimped segment and operated during the crimp stroke to provide an electrical pulse to at least one of the wire and the terminal of the crimped segment before completion of the crimp stroke, the electrical crimp consolidation circuit including a trigger for controlling a pulse start time of the electrical pulse during the crimp stroke, characterized in that the trigger comprises a sensor monitoring a position of the actuator to activate the electrical pulse during the crimp stroke.
A reactor system for gasifying a feedstock, said reactor system comprising: a vertically elongated main body; a pair of inlet projections extending outwardly from opposite sides of said main body, wherein said main body and said inlet projections present inner surfaces that cooperatively define a first reaction zone; and at least one inlet positioned on each of said inlet projections, wherein each inlet is operable to discharge said feedstock into said first reaction zone, wherein: the maximum outside diameter of said main body is at least 25 percent greater than the maximum outside diameter of said inlet projections, and at least 75 percent of the total area of said inner surfaces has an orientation having a slope of less than 45 degrees from vertical. a vertically elongated main body; a pair of inlet projections extending outwardly from opposite sides of said main body, wherein said main body and said inlet projections present inner surfaces that cooperatively define a first reaction zone; and at least one inlet positioned on each of said inlet projections, wherein each inlet is operable to discharge said feedstock into said first reaction zone, wherein: the maximum outside diameter of said main body is at least 25 percent greater than the maximum outside diameter of said inlet projections, and at least 75 percent of the total area of said inner surfaces has an orientation having a slope of less than 45 degrees from vertical. the maximum outside diameter of said main body is at least 25 percent greater than the maximum outside diameter of said inlet projections, and at least 75 percent of the total area of said inner surfaces has an orientation having a slope of less than 45 degrees from vertical.
Plant for producing ethylene and comprising - a reactor set up and provided to effect oxidative coupling of methane, - a work-up unit connected to the reactor and configured to separate a first material stream produced during oxidative coupling of methane into at least a C 1- material stream and an ethylene product stream and - a separation unit connected to the work-up unit and configured to separate the C 1- material stream at least into a hydrogen-rich product stream and a hydrogen-lean residual gas stream (S'), characterized in that the plant is provided with a steam cracker for producing an olefin- and hydrogen-containing crude gas stream and connected to the work-up unit, wherein the work-up unit is configured to separate the crude gas stream along with the first material stream into at least the C 1- material stream and the ethylene product stream, wherein the plant is configured to recycle at least a portion of the residual gas stream (S') into the reactor as input. - a reactor set up and provided to effect oxidative coupling of methane, - a work-up unit connected to the reactor and configured to separate a first material stream produced during oxidative coupling of methane into at least a C 1- material stream and an ethylene product stream and - a separation unit connected to the work-up unit and configured to separate the C 1- material stream at least into a hydrogen-rich product stream and a hydrogen-lean residual gas stream (S'), characterized in that the plant is provided with a steam cracker for producing an olefin- and hydrogen-containing crude gas stream and connected to the work-up unit, wherein the work-up unit is configured to separate the crude gas stream along with the first material stream into at least the C 1- material stream and the ethylene product stream, wherein the plant is configured to recycle at least a portion of the residual gas stream (S') into the reactor as input.
A thermoformed energy absorber for use in a vehicle bumper system, the energy absorber comprising: a frame; and at least one crush lobe extending from the frame, the crush lobe comprising an outer wall spaced apart from the frame at a lobe depth and a lobe wall extending between the frame and the outer wall; wherein the lobe wall has a base thickness near the frame and an outer thickness near the outer wall; characterized in that the outer wall is a curved outer wall that is curved away from the frame, whereby the outer surface of said outer wall is curved. a frame; and at least one crush lobe extending from the frame, the crush lobe comprising an outer wall spaced apart from the frame at a lobe depth and a lobe wall extending between the frame and the outer wall; wherein the lobe wall has a base thickness near the frame and an outer thickness near the outer wall; characterized in that the outer wall is a curved outer wall that is curved away from the frame, whereby the outer surface of said outer wall is curved.
A method for increasing production of a subtilisin variant in a Gram positive bacterial host cell, the method comprising: (a) introducing into a host cell a polynucleotide construct encoding a subtilisin variant comprising a 248D substitution, and (b) growing the host cell under conditions suitable for the production of the encoded subtilisin variant, wherein the host cell produces an increased amount of the subtilisin variant relative to a Gram positive host cell of the same genus, species and genetic background comprising an introduced polynucleotide construct encoding a subtilisin variant that does not comprise a 248D substitution; and wherein the amino acid positions of the variant are numbered by correspondence with the amino acid sequence of SEQ ID NO:26. (a) introducing into a host cell a polynucleotide construct encoding a subtilisin variant comprising a 248D substitution, and (b) growing the host cell under conditions suitable for the production of the encoded subtilisin variant,
A method executed by a base station for allocating a downlink Orthogonal Frequency-Division Multiplexing, OFDM, resource space, the method comprising: transmitting a channel descriptor management message, the channel descriptor management message utilizing a format for a frame, the frame including an OFDM resource space, the channel descriptor management message providing a definition for a plurality of sub-resource spaces within the OFDM resource space, wherein the OFDM resource space is defined in a hierarchy of layers with each successively defined layer including a plurality of channels with a channel size that is smaller than the channel size of a channel of the previous layer, each sub-resource space having an associated sub-resource space identifier and being individually allocatable; and transmitting the frame, the frame comprising: for each of at least one receiver, a respective sub-burst within at least one of the plurality of sub-resource spaces within the OFDM resource space; and a downlink mapping component that includes information for each receiver indicating where the respective sub-burst for the receiver is located in the OFDM resource space. transmitting a channel descriptor management message, the channel descriptor management message utilizing a format for a frame, the frame including an OFDM resource space, the channel descriptor management message providing a definition for a plurality of sub-resource spaces within the OFDM resource space, wherein the OFDM resource space is defined in a hierarchy of layers with each successively defined layer including a plurality of channels with a channel size that is smaller than the channel size of a channel of the previous layer, each sub-resource space having an associated sub-resource space identifier and being individually allocatable; and transmitting the frame, the frame comprising: for each of at least one receiver, a respective sub-burst within at least one of the plurality of sub-resource spaces within the OFDM resource space; and a downlink mapping component that includes information for each receiver indicating where the respective sub-burst for the receiver is located in the OFDM resource space. for each of at least one receiver, a respective sub-burst within at least one of the plurality of sub-resource spaces within the OFDM resource space; and a downlink mapping component that includes information for each receiver indicating where the respective sub-burst for the receiver is located in the OFDM resource space.
Device for forming stacks of piece goods batches, comprising a movable transport device for transporting the piece goods batch, and comprising a feed device which feeds the piece goods batch to the transport device, wherein the transport device comprises a support device which at least intermittently supports the piece goods batch and relative to which the piece goods batch is movable and which can be removed essentially completely from a region located below the piece goods batch, wherein the transport device comprises at least one controllable fixing device for temporarily fixing an intermediate layer, wherein this fixing device for fixing the intermediate layer is movable below the piece goods batch and the support device is movable with respect to the transport device, characterised in that the fixing device (20, 22) is integrated in the support device in such a way that its movement is coupled to the movement of the support device.
An aqueous composition comprising (i) one or more aqueous polymers and (ii) from 2 to 100 ppm of one or more compounds selected from a triphenylmethyl alkyl aryl ether having a formula (Ph 3 C) m Ar n, wherein Ph is a phenyl group, Ar is an aromatic ring containing group having from six to twenty carbon atoms, R is a C 1 -C 18 alkyl group, m is an integer of from 1 to 2, and n is an integer of from 1 to 4.