mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a composite insert comprising the steps of: obtaining a polymer mold for a composite insert comprising a polymer having a glass transition temperature; joining the polymer mold and a carrier thereby forming a cavity disposed between the polymer mold and the carrier; dispensing a liquid composite insert composition, having a full cure temperature, into the cavity at a selected dispensing temperature that is less than the full cure temperature; and allowing the composition to become dimensionally stable about the carrier, but not fully cured after manufacture, thereby forming a solid composite insert disposed between the polymer mold and the carrier wherein the glass transition temperature of the polymer forming the polymer mold is greater than or equal to the selected dispensing temperature, preferably at least 5 °C greater than the selected dispensing temperature. obtaining a polymer mold for a composite insert comprising a polymer having a glass transition temperature; joining the polymer mold and a carrier thereby forming a cavity disposed between the polymer mold and the carrier; dispensing a liquid composite insert composition, having a full cure temperature, into the cavity at a selected dispensing temperature that is less than the full cure temperature; and allowing the composition to become dimensionally stable about the carrier, but not fully cured after manufacture, thereby forming a solid composite insert disposed between the polymer mold and the carrier wherein the glass transition temperature of the polymer forming the polymer mold is greater than or equal to the selected dispensing temperature, preferably at least 5 °C greater than the selected dispensing temperature.
A battery pack for an electric vehicle, the battery pack comprising: a plurality of battery cells arranged in rows; a coolant loop (306, 406); and a molded insert that encompasses the plurality of cells and the coolant loop such that the plurality of cells and the coolant loop are fixed relative to each other; characterized in that the molded insert comprises holes for the coolant loop to exit the molded insert; the coolant loop is routed around rows of battery cells and out of the molded insert and the coolant loop is configured to connect to a vehicle cooling system. a plurality of battery cells arranged in rows; a coolant loop (306, 406); and a molded insert that encompasses the plurality of cells and the coolant loop such that the plurality of cells and the coolant loop are fixed relative to each other; characterized in that the molded insert comprises holes for the coolant loop to exit the molded insert; the coolant loop is routed around rows of battery cells and out of the molded insert and the coolant loop is configured to connect to a vehicle cooling system.
A heat exchanger comprising a front wall and a back wall to form a space for a flue gas such that a fluid flowing through a channel (60, 70) formed in the front wall and back wall can exchange heat with the flue gas, in use, wherein the back wall is provided with a back fin, the front wall includes a lower portion extending upwardly along the back wall, and an upper portion extending upwardly from the upper end of the lower portion, extending outwardly away from the back wall so as to form a combustion space of a flammable gas between the upper portion and the back wall, and being provided with a front fin, and the front fin and the back fin are arranged symmetrically with respect to a virtual line along which the flammable gas is to be injected into the combustion space, characterized in that the entire back wall extends along a first plane. a lower portion extending upwardly along the back wall, and an upper portion extending upwardly from the upper end of the lower portion, extending outwardly away from the back wall so as to form a combustion space of a flammable gas between the upper portion and the back wall, and being provided with a front fin, and
A grate bar arrangement comprising at least three grate bars (91, 92, 93) each comprising a running surface (98, 99) and a grate bar head (100, 101), in which arrangement an upper grate bar with its grate bar head is arranged to be movable relative to a lower grate bar in such a way that the grate bar head may slide over a front area, and a rear area of the running surface (98, 99) of the grate bar, characterized in that the running surface (98, 99) has air slots (94, 95, 96, 97) in the front and rear areas (102, 103) and the grate bar head (100, 101) is displaceable relative to these air slots (94, 95, 96, 97) in such a way that the opening cross section of all air slots (94, 95, 96, 97) remains constant.
A method for extending channels, comprising: generating a non-cascade extended channel by using a first channel and a second channel; and generating a first-level cascade extended channel by using the non-cascade extended channel and a third channel, wherein the first channel and the second channel are both twisted-pair channels, and the third channel is a twisted-pair channel or another non-cascade extended channel;wherein the number of the twisted-pair channels is N, a total number of all generated extended channels is M, wherein N and M are both natural numbers, and all the extended channels comprises non-cascade extended channels and cascade extended channels, characterized in that, the method further comprising: after receiving a signal from the N twisted-pair channels and the M extended channels, performing a crosstalk cancellation process on a received signal, wherein a crosstalk cancellation matrix used in the crosstalk cancellation process is a matrix of (N+M) rows and (N+M) columns on each sub-carrier; or when sending a signal to the N twisted-pair channels and the M extended channels, first, performing a vector precoding process on the signal and then sending the signal, wherein a vector precoding matrix used in the vector precoding process is a matrix of (N+M) rows and (N+M) columns on each sub-carrier. generating a non-cascade extended channel by using a first channel and a second channel; and generating a first-level cascade extended channel by using the non-cascade extended channel and a third channel, after receiving a signal from the N twisted-pair channels and the M extended channels, performing a crosstalk cancellation process on a received signal, wherein a crosstalk cancellation matrix used in the crosstalk cancellation process is a matrix of (N+M) rows and (N+M) columns on each sub-carrier; or when sending a signal to the N twisted-pair channels and the M extended channels, first, performing a vector precoding process on the signal and then sending the signal, wherein a vector precoding matrix used in the vector precoding process is a matrix of (N+M) rows and (N+M) columns on each sub-carrier.
Vehicle, in particular rail vehicle, having at least one bogie which supports a wagon body situated above it and has at least two track guidance units, in particular at least two wheelsets, characterized in that - a rectifier is held directly or indirectly by means of at least one pendulum by the wagon body floor of the wagon body situated above it, and - at least one link couples the bogie frame mechanically to the rectifier. - a rectifier is held directly or indirectly by means of at least one pendulum by the wagon body floor of the wagon body situated above it, and - at least one link couples the bogie frame mechanically to the rectifier.
Suspension device for the sprung and damping suspension of a driver's cab of a motor vehicle relative to a vehicle chassis, the suspension device comprising a spring/damper arrangement (4, 5) and a hydraulic arrangement with right-hand and left-hand (in relation to the driving direction) hydraulic cylinders (7, 8) with respective piston upper-side and piston lower-side cylinder spaces (9, 10), the piston upper-side and piston lower-side cylinder spaces (9, 10) of the right-hand and left-hand hydraulic cylinders (7, 8) being connected fluidically crosswise to a hydraulic roll stabilization device, characterized in that an upper crossmember is arranged in the rear suspension region of the driver's cab and a lower crossmember which is assigned to the upper crossmember is arranged on the vehicle chassis, the spring/damper arrangement (4, 5) and the hydraulic arrangement being arranged between the two crossmembers (2, 3) and being connected to the crossmembers (2, 3).
A ring type wearable terminal comprising: a ring; and a communication unit that is housed in the ring, wherein the communication unit is provided with a ring-shaped flexible substrate, wherein the flexible substrate is provided with a plurality of linear patterns that extend in a longitudinal direction, characterized by the flexible substrate being provided with bonding portions formed such that the bonding portions are bonded at a position in a longitudinal direction in accordance with the size of the ring, wherein each of the bonding portions are formed at a respective end portion of the plurality of linear patterns and wherein the plurality of linear patterns form a single loop antenna once the bonding portions are bonded. a ring; and a communication unit that is housed in the ring, wherein the communication unit is provided with a ring-shaped flexible substrate, wherein the flexible substrate is provided with a plurality of linear patterns that extend in a longitudinal direction, characterized by the flexible substrate being provided with bonding portions formed such that the bonding portions are bonded at a position in a longitudinal direction in accordance with the size of the ring, wherein each of the bonding portions are formed at a respective end portion of the plurality of linear patterns and wherein the plurality of linear patterns form a single loop antenna once the bonding portions are bonded. wherein the communication unit is provided with a ring-shaped flexible substrate, wherein the flexible substrate is provided with a plurality of linear patterns that extend in a longitudinal direction, characterized by the flexible substrate being provided with bonding portions formed such that the bonding portions are bonded at a position in a longitudinal direction in accordance with the size of the ring, wherein each of the bonding portions are formed at a respective end portion of the plurality of linear patterns and wherein the plurality of linear patterns form a single loop antenna once the bonding portions are bonded.
Aircraft fuselage portion comprising a fuselage structure comprising annular frames perpendicular to a longitudinal direction of extent of said fuselage portion, a flat floor, and vertical struts perpendicular to the floor that extend from the floor to a frame, forming a space, termed triangle region, which is delimited by an underside of the floor, said vertical struts and said frames, characterized in that it comprises a slideway element, termed second slideway element, which is connected to or formed by the fuselage structure and which is designed to form, in said triangle region, a longitudinal slideway by cooperation with a first corresponding slideway element, and in that it additionally comprises, in said triangle region, an aircraft duct assembly comprising at least two ducts (9, 11, 13, 14) extending along a general direction of rectilinear extent, each duct (9, 11, 13, 14) being able to be an electrical, hydraulic or aeraulic duct, and in that it also comprises a duct support, each duct (9, 11, 13, 14) being connected to said duct support, said duct support comprising the first slideway element designed to cooperate with the second slideway element so as to form a slideway in the general direction of extent of said ducts, in which the first slideway element of the duct support cooperates with the second slideway element to form a slideway via which said duct assembly is connected to said fuselage structure.
Decentralised peer-to-peer network, into which an actuator-sensor device is incorporated, with at least one operational status which can be called up and/or altered via the network, wherein the network is set up as a packet-oriented network, on which a logic network is overlaid, which creates a resource management system for the realisation of a peer-to-peer architecture, characterised in that the actuator-sensor device is integrated as a peer into the resource management system in such a way that it makes its characteristics known in the form of an identification and its capabilities in the form of available control possibilities and operational states via the resource management systems of other peers, for example other actuator-sensor devices, controlling computer systems, or communications terminals, which are in a position, on the basis of these characteristics and capabilities, to engage onto the actuator-sensor device, and to call up and change the operational state.
Specimen delimiting element for microscopy, said specimen delimiting element, at least in one region, consisting of a nano-porous material which is transparent to at least one observation radiation selected from a wavelength range of 200 to 2000 nm, wherein the nano-porous material has pores, the mean pore diameter of which is smaller than the wavelength of the observation radiation, and - a proportion of at least 5% of the volume of the nano-porous material is taken up by the pores of the nano-porous material, characterized in that - the nano-porous material has an open porosity, - the mean pore diameter is in a value range of 0.5 nm to 100 nm, wherein the mean pore diameter is determined on the basis of a distribution function as diameter of 95% of all pores plus and/or minus the standard deviation thereof, - the number of pores per unit volume of the nano-porous material and/or the mean pore diameter changes or change along at least one extent of the specimen delimiting element, such that a pore gradient is formed in the specimen delimiting element, - the pore gradient has at least one gradient portion (11.1) in which no porosity is present, such that a separation of a specimen medium on one side surface (1.1, 1.2) of the specimen delimiting element and an immersion medium on an opposite side surface (1.1, 1.2) of the specimen delimiting element can be effected by means of the specimen delimiting element, and a respective pore gradient is formed proceeding from two mutually opposite side surfaces (1.1, 1.2) of the specimen delimiting element, wherein the pore gradients are formed in a mutually opposing fashion with regard to the number of pores per unit volume of the material and/or the mean pore diameter. - a proportion of at least 5% of the volume of the nano-porous material is taken up by the pores of the nano-porous material, characterized in that - the nano-porous material has an open porosity, - the mean pore diameter is in a value range of 0.5 nm to 100 nm, wherein the mean pore diameter is determined on the basis of a distribution function as diameter of 95% of all pores plus and/or minus the standard deviation thereof, - the number of pores per unit volume of the nano-porous material and/or the mean pore diameter changes or change along at least one extent of the specimen delimiting element, such that a pore gradient is formed in the specimen delimiting element, - the pore gradient has at least one gradient portion (11.1) in which no porosity is present, such that a separation of a specimen medium on one side surface (1.1, 1.2) of the specimen delimiting element and an immersion medium on an opposite side surface (1.1, 1.2) of the specimen delimiting element can be effected by means of the specimen delimiting element, and a respective pore gradient is formed proceeding from two mutually opposite side surfaces (1.1, 1.2) of the specimen delimiting element, wherein the pore gradients are formed in a mutually opposing fashion with regard to the number of pores per unit volume of the material and/or the mean pore diameter.
A transmission device for repeatedly transmitting punctured data messages, the device comprising: a puncturing unit configured, for each time slot of two or more consecutive time slots, to puncture an encoded data message with a respective puncture indices series, being a first puncture indices series or a second puncture indices series that is complementary to the first puncture indices series, thereby giving rise to a respective punctured data message having a code rate that is higher than the code rate of the encoded data message, the respective punctured data message alternating during the consecutive time slots between a first punctured data message that arises from puncturing the encoded data message with the first puncture indices series and a second punctured data message that arises from the puncturing of the encoded data message with the second puncture indices series; and a transmitter configured to alternately transmit the first punctured data message and the second punctured data message during the consecutive time slots; wherein the transmitter is configured to transmit the first punctured data message and the second punctured data message within a flooding waveform as part of a flooding routine during a flooding window. a puncturing unit configured, for each time slot of two or more consecutive time slots, to puncture an encoded data message with a respective puncture indices series, being a first puncture indices series or a second puncture indices series that is complementary to the first puncture indices series, thereby giving rise to a respective punctured data message having a code rate that is higher than the code rate of the encoded data message, the respective punctured data message alternating during the consecutive time slots between a first punctured data message that arises from puncturing the encoded data message with the first puncture indices series and a second punctured data message that arises from the puncturing of the encoded data message with the second puncture indices series; and a transmitter configured to alternately transmit the first punctured data message and the second punctured data message during the consecutive time slots; wherein the transmitter is configured to transmit the first punctured data message and the second punctured data message within a flooding waveform as part of a flooding routine during a flooding window.
A blade for a wind turbine, comprising an aerodynamic shell delimiting an internal volume of the blade, the aerodynamic shell comprising at least one composite laminated structure comprising at least one metallisation layer, characterised in that the metallisation layer has a basis weight which gives the metallisation layer a surface impedance of between 130μΩ.square and 850μΩ.square.
An air purifier comprising: (a) a first pot (22, 14); (b) a second pot which is provided with a bottom and is housed inside the first pot (22, 14) in which the lateral walls of the second pot are formed by a plurality of ribs which extend in the axial direction of the pot and in which adjacent ribs are arranged essentially parallel to each other, creating slots between them essentially of the length of the ribs, wherein a gap is formed between the first pot (22, 14) and the second pot which preferably extends at least along the entire length of said slots; and (c) a fan suitable for carrying out an air flow between the inside and the outside of said air purifier, characterized in that said air purifier further comprises (d) an air permeable photocatalytic filter arranged between the bottom of the second pot and the fan and (e) a light source for activating the catalyst of the photocatalytic filter; and in that said bottom of said second pot is located at a certain height inside said lateral walls of said second pot and that said ribs are arranged around said bottom extending beyond the bottom downwards and also forming at least a part of the bottom admitting an air flow along said slots from the part of said second pot which is located above the bottom towards the part of said second pot which is located under the bottom and creating a space under the bottom inside said lateral walls; and in that the photocatalytic filter is arranged in the space created under the bottom inside the lateral walls of the second pot. (a) a first pot (22, 14); (b) a second pot which is provided with a bottom and is housed inside the first pot (22, 14) in which the lateral walls of the second pot are formed by a plurality of ribs which extend in the axial direction of the pot and in which adjacent ribs are arranged essentially parallel to each other, creating slots between them essentially of the length of the ribs, wherein a gap is formed between the first pot (22, 14) and the second pot which preferably extends at least along the entire length of said slots; and (c) a fan suitable for carrying out an air flow between the inside and the outside of said air purifier, characterized in that said air purifier further comprises (d) an air permeable photocatalytic filter arranged between the bottom of the second pot and the fan and (e) a light source for activating the catalyst of the photocatalytic filter; and in that said bottom of said second pot is located at a certain height inside said lateral walls of said second pot and that said ribs are arranged around said bottom extending beyond the bottom downwards and also forming at least a part of the bottom admitting an air flow along said slots from the part of said second pot which is located above the bottom towards the part of said second pot which is located under the bottom and creating a space under the bottom inside said lateral walls; and in that the photocatalytic filter is arranged in the space created under the bottom inside the lateral walls of the second pot.
Disc brake for a commercial vehicle, having a) a brake calliper which engages over a brake disc and which is preferably designed as a sliding calliper and which is arranged on a stationary adapter, and having an application device for applying the brake, b) two brake pads (100, 200) which each have a backing plate (110, 210) and a friction pad (120, 220) fastened to said backing plate and of which one, as an application-side brake pad, can be pressed by means of the application device against the brake disc on one side of the brake disc and of which the other, as a reaction-side brake pad, is arranged on the opposite side of the brake disc, and which are each inserted into a pad slot (11, 12) of the adapter, c) wherein the brake calliper has a central calliper opening over the brake disc, through which calliper opening the two brake pads (100, 200) can be inserted into the respective pad slot (11, 12) of the adapter, d) wherein the application-side brake pad is secured radially in the adapter in its pad slot by means of positive locking, characterised in that e) a hold-down clip is provided which is designed so as to radially secure only the reaction-side brake pad (100, 200) in its pad slot (11, 12) in the adapter, wherein the hold-down clip is, with its end averted from the brake pad, held on the brake calliper. a) a brake calliper which engages over a brake disc and which is preferably designed as a sliding calliper and which is arranged on a stationary adapter, and having an application device for applying the brake, b) two brake pads (100, 200) which each have a backing plate (110, 210) and a friction pad (120, 220) fastened to said backing plate and of which one, as an application-side brake pad, can be pressed by means of the application device against the brake disc on one side of the brake disc and of which the other, as a reaction-side brake pad, is arranged on the opposite side of the brake disc, and which are each inserted into a pad slot (11, 12) of the adapter, c) wherein the brake calliper has a central calliper opening over the brake disc, through which calliper opening the two brake pads (100, 200) can be inserted into the respective pad slot (11, 12) of the adapter, d) wherein the application-side brake pad is secured radially in the adapter in its pad slot by means of positive locking,