mhurhangee/ep-ind-claims huggingface dataset:
A plug connection for connecting electrical cables in particular, comprising at least one female connecting element and a male connecting element, wherein the female connecting element receives the male connecting element in a positive fit, wherein a connecting portion of the male connecting element is designed with a coaxial taper and comprises at least one displaceable contact body, which is arranged in a first position within the male connecting element and in a second position protruding from the male connecting element, while producing a contact between the at least one contact body and at least one contact layer of the female connecting element, characterized in that the two connecting elements (2, 3) can be detachably connected in a force-fit manner in positive-locking contact and with the production of a contact between the at least one contact layer and the at least one contact body.
A composition comprising a first engineered polypeptide and a second engineered polypeptide, wherein the first engineered polypeptide comprises a CsgA polypeptide and a conjugation domain fused to the CsgA polypeptide by a linker sequence; wherein the amino acid sequence of the CsgA polypeptide is at least 80% homologous to the amino acid sequence set forth in SEQ ID NO 1; wherein the conjugation domain is selected from the group consisting of SpyTag; biotin acceptor peptide; biotin carboxyl carrier protein (BCCP); and a peptide comprising a LPXTG motif; wherein the linker sequence is located N-terminal to the conjugation domain; and wherein the linker sequence comprises at least 6 amino acids; and wherein the second engineered polypeptide comprises a functionalizing polypeptide and a partner conjugation domain fused to the functionalizing polypeptide; wherein the partner conjugation domain is selected from the group consisting of SpyCatcher, streptavidin, and a peptide comprising aminoglycine; and wherein the conjugation domain can bind and/or is bound to the partner conjugation domain. wherein the first engineered polypeptide comprises a CsgA polypeptide and a conjugation domain fused to the CsgA polypeptide by a linker sequence; wherein the amino acid sequence of the CsgA polypeptide is at least 80% homologous to the amino acid sequence set forth in SEQ ID NO 1; wherein the conjugation domain is selected from the group consisting of SpyTag; biotin acceptor peptide; biotin carboxyl carrier protein (BCCP); and a peptide comprising a LPXTG motif; wherein the linker sequence is located N-terminal to the conjugation domain; and wherein the linker sequence comprises at least 6 amino acids; and wherein the second engineered polypeptide comprises a functionalizing polypeptide and a partner conjugation domain fused to the functionalizing polypeptide; wherein the partner conjugation domain is selected from the group consisting of SpyCatcher, streptavidin, and a peptide comprising aminoglycine; and wherein the conjugation domain can bind and/or is bound to the partner conjugation domain.
Method for the forming and catalytic conversion of a gaseous educt mixture, wherein a first and a second gas or gas mixture are mixed to form the educt mixture and then fed into a reaction zone of a reactor, characterized in that the educt mixture is formed at least intermittently as a flammable gas mixture and that the first and the second gas or gas mixture are fed into a mixing chamber having a limiting wall provided with a number of passages, wherein the first gas or gas mixture is fed via the passages in a critical state of flow into the mixing chamber and the second gas or gas mixture is fed into the mixing chamber by means of one or more feed lines, with feed openings, extending into the mixing chamber.
Process for making membranes M comprising the following steps: a) providing a dope solution D comprising at least one polymer P and a solvent S, wherein said at least one polymer P is selected from poly(vinylidene fluoride) (PVDF), polysulfone, polyphenylenesulfone (PPSU) or polyethersulfone (PESU), or mixtures thereof, and b) adding at least one coagulant C to said dope solution D to coagulate said at least one polymer P from said dope solution D to obtain membrane M, wherein said solvent S comprises more than 50 % by weight of at least one compound according to formula wherein R 1 and R 2 are independantly selected from C 1 to C 4 alkyl, R 3 is selected from C 1 to C 4 alkyl, and R 4 is H or C 1 -C 20 alkyl. a) providing a dope solution D comprising at least one polymer P and a solvent S, wherein said at least one polymer P is selected from poly(vinylidene fluoride) (PVDF), polysulfone, polyphenylenesulfone (PPSU) or polyethersulfone (PESU), or mixtures thereof, and b) adding at least one coagulant C to said dope solution D to coagulate said at least one polymer P from said dope solution D to obtain membrane M,
A sole structure for footwear comprising a midsole, the midsole comprising a first portion having an upper surface having a recess, and a second portion seated in the recess of the upper surface of the first portion, wherein the recess extends from a heel portion to a forefoot portion of the first portion, the first portion of the midsole comprising an exterior sidewall having a plurality of substantially horizontal ribs, the second portion of the midsole comprising a first foam material having a density less than 0.25 g/cm 3 and a resiliency greater than about 40 %.
An elevator safety system, comprising: a safety device, comprising a shell having a vertical passage for elevator guide rails to pass through, the safety device further comprising a first brake block on a first side of the vertical passage, and a second brake block on a second opposite side of the vertical passage; and a safety device carrier for supporting the safety device and fixedly connected to an elevator car; characterized in that the shell of the safety device is obliquely movably mounted on the safety device carrier. a safety device, comprising a shell having a vertical passage for elevator guide rails to pass through, the safety device further comprising a first brake block on a first side of the vertical passage, and a second brake block on a second opposite side of the vertical passage; and a safety device carrier for supporting the safety device and fixedly connected to an elevator car; characterized in that the shell of the safety device is obliquely movably mounted on the safety device carrier.
A multiwall sheet, comprising: walls, wherein the walls include: a first wall; a second wall; and a transverse wall, wherein the first wall, the second wall, and the transverse wall extend longitudinally; a rib extending between adjacent walls, wherein a layer (26,28) is formed by two adjacent walls; and dividers which are non parallel and non-perpendicular to the walls (14, 16) and the rib, wherein the layer is filled with a nanoporous polymer foam material; and wherein the multiwall sheet comprises a normalized thermal conductivity value of less than or equal to 1.00 W·m/kg K measured according to the method disclosed in the description. walls, wherein the walls include: a first wall; a second wall; and a transverse wall, wherein the first wall, the second wall, and the transverse wall extend longitudinally; a first wall; a second wall; and a transverse wall, wherein the first wall, the second wall, and the transverse wall extend longitudinally; a rib extending between adjacent walls, wherein a layer (26,28) is formed by two adjacent walls; and dividers which are non parallel and non-perpendicular to the walls (14, 16) and the rib, wherein the layer is filled with a nanoporous polymer foam material; and wherein the multiwall sheet comprises a normalized thermal conductivity value of less than or equal to 1.00 W·m/kg K measured according to the method disclosed in the description.
A solid electrolyte membrane comprising: a plurality of inorganic solid electrolytes and a plurality of polymer filaments, wherein the polymer filaments are entangled and arranged cross and linked to form a 3-dimensional mesh structure, and the mesh structure is filled with the inorganic solid electrolyte particles all along a thicknesswise direction, the solid electrolyte membrane having a porosity of 8 vol% or less and an air permeability in the range of 3,000sec/100 cm 3 or above, determined as described in the description. a plurality of inorganic solid electrolytes and a plurality of polymer filaments, wherein the polymer filaments are entangled and arranged cross and linked to form a 3-dimensional mesh structure, and the mesh structure is filled with the inorganic solid electrolyte particles all along a thicknesswise direction, the solid electrolyte membrane having a porosity of 8 vol% or less and an air permeability in the range of 3,000sec/100 cm 3 or above, determined as described in the description.
Modular connection block (2, 2') with a plurality of electric connection modules for conductor connection to an electronic component, and with holding means; the connection modules each having a connection housing, which connection housings are held to one another in a compound structure by way of the holding means, the holding means having at least one strip-shaped connecting element (16, 18, 56, 58), to which the connector housings are connected, the connector housings being arranged next to one another in a series arrangement (20, 20', 20'') along the strip-shaped connecting element (16, 18, 56, 58), the connector housing having at least one receptacle for the strip-shaped connecting element (16, 18, 56, 58), the receptacle and the strip-shaped connecting element (16, 18, 56, 58) being set up and configured to correspond to one another in such a way that the connection housing can be connected to the strip-shaped connecting element (16, 18, 56, 58), characterized in that the strip-shaped connecting element (16, 18, 56, 58) has a plurality of connecting portions which are spaced apart from one another and by way of the arrangement of which connecting spaces are prespecified on the strip-shaped connecting element (16, 18, 56, 58), at which connecting spaces a respective connection module can be connected or is connected in a positively locking or non-positive manner to the strip-shaped connecting element (16, 18, 56, 58) by means of latching means, a connecting portion and the receptacle being set up and configured for a translational movement in the series direction of the connection housing and the strip-shaped connecting element (16, 18, 56, 58) relative to one another between a starting position, in which the respective connection housing is not connected to the strip-shaped connecting element (16, 18, 56, 58), and an end position, in which the respective connection housing is connected to the strip-shaped connecting element (16, 18, 56, 58).
An air cycle machine, comprising: a compressor section; a turbine section having an inlet nozzle with a variable size; a motor to drive the compressor; and a common rotating shaft on which the compressor section, the turbine section and the motor are mounted, the turbine section driving rotation of the shaft to provide additional drive power to the compressor section along with that of the motor, and characterized by the compressor section having a variable area diffuser, and wherein the turbine section comprises a shroud, a first cavity, a valve body, a second cavity, and a poppet; wherein the poppet is slidably mounted on the shroud, is configured to seal the first cavity from the inlet nozzle and the second cavity, and may slidably extend into the nozzle to reduce the size of the inlet nozzle; wherein the valve body is configured to be selectively controlled to allow for fluid communication between the first cavity and either an inlet of the inlet nozzle or an ambient air source external to the air cycle machine; and wherein the second cavity is defined by the poppet and the shroud and is maintained at a pressure intermediate the pressure at the inlet and of the ambient air source. a compressor section; a turbine section having an inlet nozzle with a variable size; a motor to drive the compressor; and a common rotating shaft on which the compressor section, the turbine section and the motor are mounted, the turbine section driving rotation of the shaft to provide additional drive power to the compressor section along with that of the motor, and characterized by the compressor section having a variable area diffuser, and wherein the turbine section comprises a shroud, a first cavity, a valve body, a second cavity, and a poppet; wherein the poppet is slidably mounted on the shroud, is configured to seal the first cavity from the inlet nozzle and the second cavity, and may slidably extend into the nozzle to reduce the size of the inlet nozzle; wherein the valve body is configured to be selectively controlled to allow for fluid communication between the first cavity and either an inlet of the inlet nozzle or an ambient air source external to the air cycle machine; and wherein the second cavity is defined by the poppet and the shroud and is maintained at a pressure intermediate the pressure at the inlet and of the ambient air source. wherein the poppet is slidably mounted on the shroud, is configured to seal the first cavity from the inlet nozzle and the second cavity, and may slidably extend into the nozzle to reduce the size of the inlet nozzle; wherein the valve body is configured to be selectively controlled to allow for fluid communication between the first cavity and either an inlet of the inlet nozzle or an ambient air source external to the air cycle machine; and wherein the second cavity is defined by the poppet and the shroud and is maintained at a pressure intermediate the pressure at the inlet and of the ambient air source.
A method of compressing an intensity dynamic range of an input image to a reduced intensity dynamic range of an image display signal, the method comprising: a) providing plural pixels of each frame of the input image, each pixel having a corresponding intensity; b) determining a local mean estimate (M X) of the intensity for each of the pixels of the input image; c) processing each local mean estimate (M X), separately and directly, in accordance with the following functions: i) a mean modification function (34; (F M (M X)) to produce a corresponding mean moditication processing result (My), and ii) a contrast modification function (32; F C (M X)) wherein the local mean estimate (M x) is multiplied by a contrast estimate (C X) to produce a corresponding contrast modification processing result (C Y); and d) combining (35, 36) the corresponding mean modification function and contrast modification function results (C Y) to produce, for each local mean estimate (M X), a respective output intensity, within the reduced intensity range, for a corresponding unit of the image display signal. a) providing plural pixels of each frame of the input image, each pixel having a corresponding intensity; b) determining a local mean estimate (M X) of the intensity for each of the pixels of the input image; c) processing each local mean estimate (M X), separately and directly, in accordance with the following functions: i) a mean modification function (34; (F M (M X)) to produce a corresponding mean moditication processing result (My), and ii) a contrast modification function (32; F C (M X)) wherein the local mean estimate (M x) is multiplied by a contrast estimate (C X) to produce a corresponding contrast modification processing result (C Y); and i) a mean modification function (34; (F M (M X)) to produce a corresponding mean moditication processing result (My), and ii) a contrast modification function (32; F C (M X)) wherein the local mean estimate (M x) is multiplied by a contrast estimate (C X) to produce a corresponding contrast modification processing result (C Y); and d) combining (35, 36) the corresponding mean modification function and contrast modification function results (C Y) to produce, for each local mean estimate (M X), a respective output intensity, within the reduced intensity range, for a corresponding unit of the image display signal.
A method for generating and maintaining a plasma in a magnetic field with a field reversed configuration comprising the steps of: forming an FRC about a plasma in a confinement chamber having a longitudinal mid-plane, and maintaining the FRC at or about a constant value without decay by injecting beams of fast neutral atoms from neutral beam injectors into the FRC plasma at an angle towards the mid-plane of the confinement chamber and characterised in that the method further comprises: injecting compact toroid plasmas from first and second CT injectors into the FRC plasma at an angle towards the mid-plane of the confinement chamber, wherein the first and second CT injectors are positioned on opposing sides of the mid-plane of the confinement chamber. forming an FRC about a plasma in a confinement chamber having a longitudinal mid-plane, and maintaining the FRC at or about a constant value without decay by injecting beams of fast neutral atoms from neutral beam injectors into the FRC plasma at an angle towards the mid-plane of the confinement chamber and characterised in that the method further comprises: injecting compact toroid plasmas from first and second CT injectors into the FRC plasma at an angle towards the mid-plane of the confinement chamber, wherein the first and second CT injectors are positioned on opposing sides of the mid-plane of the confinement chamber.
A steering wheel for a motor vehicle, comprising - a steering wheel rim, via which the steering wheel can be actuated by a driver of the motor vehicle for generating a steering angle; - a superposition drive for generating a steering angle which can be superimposed with a steering angle generated by actuating the steering wheel rim; - a locking means different from the superposition drive, with which the superposition drive can be locked by mechanical action; characterized by - bearing means, by means of which a housing of the locking means is elastically mounted on a housing of the superposition drive such that it can perform a compensating movement relative to the housing of the superposition drive. - a steering wheel rim, via which the steering wheel can be actuated by a driver of the motor vehicle for generating a steering angle; - a superposition drive for generating a steering angle which can be superimposed with a steering angle generated by actuating the steering wheel rim; - a locking means different from the superposition drive, with which the superposition drive can be locked by mechanical action; - bearing means, by means of which a housing of the locking means is elastically mounted on a housing of the superposition drive such that it can perform a compensating movement relative to the housing of the superposition drive.
A bale collection system for receiving and storing a bale introduced at a first location and in a first direction, the bale collection system comprising: a frame at least partially forming a storage trough and defining at least one storage bay sized to store a bale therein, wherein the trough of the bale collection system is configured to support one or more bales and forms a central axis substantially perpendicular to the direction a bale is ejected to form multiple storage bays a shuttle assembly, characterized by a damper assembly, wherein the damper assembly of the bale collection system includes a base coupled to the trough, an arm pivotably coupled to the base, and one or more resistance members extending between and coupled to both the base and the arm, and in that the arm is movable between a first position and a second position different than the first position, the arm having a bale contact surface configured to contact a bale at least partially positioned within the storage bay; in that the arm is coupled to the frame opposite the first location and moves from the first position toward the second position when the bale contacts the bale contact surface; and in that the resistance member is in operable engagement with the arm and configured to resist the motion of the arm between the first and second positions, wherein the damper assembly of the bale collection system is configured to dissipate the kinetic energy of a bale as it enters the trough, bringing the bale to a quick and controlled stop. a frame at least partially forming a storage trough and defining at least one storage bay sized to store a bale therein, wherein the trough of the bale collection system is configured to support one or more bales and forms a central axis substantially perpendicular to the direction a bale is ejected to form multiple storage bays a shuttle assembly, characterized by a damper assembly, wherein the damper assembly of the bale collection system includes a base coupled to the trough, an arm pivotably coupled to the base, and one or more resistance members extending between and coupled to both the base and the arm, and in that the arm is movable between a first position and a second position different than the first position, the arm having a bale contact surface configured to contact a bale at least partially positioned within the storage bay; in that the arm is coupled to the frame opposite the first location and moves from the first position toward the second position when the bale contacts the bale contact surface; and in that the resistance member is in operable engagement with the arm and configured to resist the motion of the arm between the first and second positions, wherein the damper assembly of the bale collection system is configured to dissipate the kinetic energy of a bale as it enters the trough, bringing the bale to a quick and controlled stop.