mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising: a) 10 to 20 wt.% of a block copolymer having the structure SEBS wherein S represents a polystyrene block, EB represents a hydrogenated polybutadiene block, wherein the block copolymer is selectively hydrogenated so that at least 90 percent of the conjugated diene double bonds have been reduced and 0-10 percent of the styrene double bonds have been reduced, wherein the block copolymer has a vinyl content of at least 60% before selective hydrogenation, wherein said SEBS has polystyrene end blocks with a peak molecular weight of 8 to 12 kg/mol, a peak molecular weight of 145-200 kg/mol, a polystyrene content of 15 to 30 wt.% and a melt flow rate of less than 12 grams per 10 min measured in accordance with ASTM D-1238 at 230°C under 2.16 kg mass, and wherein 10 wt.% or less of diblock polymer is present, wherein the peak molecular weight is measured with gel permeation chromatography using polystyrene calibration standards as is done according to ASTM D5296; b) 40 to 50 wt.% of an amorphous polyolefin; c) 25 to 35 wt.% of a tackifier; and d) 3 to 8 wt.% of a maleated polypropylene oligomer or maleated SEBS where the total composition is 100 wt.%. a) 10 to 20 wt.% of a block copolymer having the structure SEBS wherein S represents a polystyrene block, EB represents a hydrogenated polybutadiene block, wherein the block copolymer is selectively hydrogenated so that at least 90 percent of the conjugated diene double bonds have been reduced and 0-10 percent of the styrene double bonds have been reduced, wherein the block copolymer has a vinyl content of at least 60% before selective hydrogenation, wherein said SEBS has polystyrene end blocks with a peak molecular weight of 8 to 12 kg/mol, a peak molecular weight of 145-200 kg/mol, a polystyrene content of 15 to 30 wt.% and a melt flow rate of less than 12 grams per 10 min measured in accordance with ASTM D-1238 at 230°C under 2.16 kg mass, and wherein 10 wt.% or less of diblock polymer is present, wherein the peak molecular weight is measured with gel permeation chromatography using polystyrene calibration standards as is done according to ASTM D5296; b) 40 to 50 wt.% of an amorphous polyolefin; c) 25 to 35 wt.% of a tackifier; and d) 3 to 8 wt.% of a maleated polypropylene oligomer or maleated SEBS
A heat moldable composition comprising an inorganic material that sets as a result of baking or sintering, and a hydroxypropyl methylcellulose having a DS of at least 1.4 and a MS of at least 0.6, wherein DS is the degree of substitution of methoxyl groups and MS is the molar substitution of hydroxypropoxyl groups, and a viscosity of up to 80 mPa·s, determined as a 2% by weight solution in water at 20°C, wherein the heat moldable composition comprises at least 40 weight percent of the inorganic material and at least 10 weight percent of the hydroxypropyl methylcellulose, and wherein the composition does not comprise more than 5 weight percent of water, all percentages being based on the total weight of the composition.
A synthetic polypeptide, comprising an amino acid sequence that comprises at least one pair of non-natural amino acids inserted into the α-helix that are crosslinked to stabilize the α-helical shape, and wherein the polypeptide (a) mimics an alpha helix of Cytoplasmic FMR1-interacting protein 1 (CYFIP1) or an alpha helix of Wiskott-Aldrich syndrome protein family member 3 (WASF3) in physiological conditions and inhibits endogenous CYFIPI from binding to endogenous WASF3, or (b) mimics an alpha helix of CYFIP1 or an alpha helix of NCK-associated protein (NCKAP1) in physiological conditions and inhibits endogenous CYFIP1 from binding to endogenous NCKAP1. (a) mimics an alpha helix of Cytoplasmic FMR1-interacting protein 1 (CYFIP1) or an alpha helix of Wiskott-Aldrich syndrome protein family member 3 (WASF3) in physiological conditions and inhibits endogenous CYFIPI from binding to endogenous WASF3, or (b) mimics an alpha helix of CYFIP1 or an alpha helix of NCK-associated protein (NCKAP1) in physiological conditions and inhibits endogenous CYFIP1 from binding to endogenous NCKAP1.
A battery pack comprising two or more battery modules connected to each other, external input and output terminals (242, 248) being formed at one side of each of the battery modules, each of the battery modules comprising a plurality of unit cells electrically connected to each other while being stacked, wherein the two or more battery modules are connected in series or in parallel to each other via a connection member (260, 270) such that one of the battery modules is connected to an adjacent one of the battery modules, and characterized in that the connection member (260, 270) is configured to have a structure in which different kinds of metals having different melting points are coupled to each other, wherein the connection member (260, 270) comprises a first connection part (262, 262', 272) and a second connection part (266, 266', 276) coupled to the external input and output terminals (242, 248) of the battery modules to be electrically connected to each other, wherein the first connection part (262, 262', 272) and the second connection part (266, 266', 276) are made of different kinds of plate-shaped metal members, wherein the first connection part (262, 262', 272) and the second connection part (266, 266', 276) are provided with fastening holes (263, 267), in which the external input and output terminals (242, 248) of the battery modules are fastened using bolts, wherein the battery modules are loaded on a base plate, and a top plate, side plates, and a front plate are mounted at the top, the sides, and the front of the battery modules, and wherein corresponding ends of the first connection part (262, 262', 272) and the second connection part (266, 266', 276) are coupled to each other to have a clad metal structure formed by rolling.
A flat bed knitting machine comprising at least one yarn distributor comprising a pad capable of sliding in the track of a striping bar, a yarn feeder comprising a tip directed downward and capable of guiding a yarn toward the needles of the knitting machine, and a connection with a connection means (7, 10) for connecting said yarn feeder remotely to a drive means performing a first function for the longitudinal displacement of the yarn distributor in its track, said yarn feeder having a connection moveable with respect to the pad so as to be capable of arranging the tip of the yarn feeder just above the sections, in a first knitting configuration, and of moving it away from the knitting zone, in a second non-knitting configuration, the drive means being positioned laterally with respect to the knitting machine, so that it does not impede the distribution of the yarns above the knitting machine, and performing a second function for the displacement of the yarn feeder in relation to the pad in order to release the tip of the yarn feeder from the knitting zone above the sections, characterized in that either the yarn feeder is mounted moveably in rotation about an axis on the pad and the drive means consists of a motor and an actuator and the connection means consists of a first cord or yarn or belt or cable connecting the motor to the pad and of a second cord or yarn or belt or cable connecting the actuator to the yarn feeder at a point separate from the axis, the actuator being capable of gripping the cord in order to drive the yarn feeder in rotation in relation to the pad about the axis, or the yarn feeder is mounted moveably in vertical translation on the pad and the yarn distributor comprises an intermediate element moveable in relation to the pad and connected to the yarn feeder so as to allow its vertical movement in relation to the pad and the connection means comprises a first cord or yarn or belt or cable and a second cord or yarn or belt or cable connected, respectively, to the pad and to the intermediate element.
A haptic feedback module for a catheter control handle utilized in a non-robotic interventional medical procedure, the haptic feedback module comprising: a housing configured to be releasably secured to the catheter control handle; and a number of transducers disposed at least partially within the housing, wherein the transducers are operable to provide haptic feedback in response to signals received from a computer system; the haptic feedback module being characterized by: a wireless transceiver disposed within the housing and configured to wirelessly connect the transducers to the computer system to receive the signals provided by the computer system. a housing configured to be releasably secured to the catheter control handle; and a number of transducers disposed at least partially within the housing, wherein the transducers are operable to provide haptic feedback in response to signals received from a computer system; the haptic feedback module being characterized by: a wireless transceiver disposed within the housing and configured to wirelessly connect the transducers to the computer system to receive the signals provided by the computer system.
A connector cable comprising: a connector; a shielded cable; and a relay substrate, the connector and the shielded cable being connected via the relay substrate, wherein: the shielded cable includes at least an inner conductor, a dielectric covering the inner conductor, and a shield member covering the dielectric; the inner conductor is connected to a contact of the connector at a part where the shield member and the dielectric are removed to expose the inner conductor; at least directly under a part where the shield member is removed to expose the dielectric, a ground, GND, conductor layer on a front surface of the relay substrate is arranged; and the ground conductor layer on the front surface of the relay substrate, which is arranged directly under the part where the shield member is removed, is covered with an insulating member, characterized in that a connection part between the contact of the connector and the exposed inner conductor of the shielded cable is connected by soldering, the ground conductor layer on the front surface of the relay substrate is extended to directly under the contact of the connector and the connection part, and the ground conductor layer directly under the connection part is cut out. a connector; a shielded cable; and a relay substrate, the connector and the shielded cable being connected via the relay substrate, wherein: the shielded cable includes at least an inner conductor, a dielectric covering the inner conductor, and a shield member covering the dielectric; the inner conductor is connected to a contact of the connector at a part where the shield member and the dielectric are removed to expose the inner conductor; at least directly under a part where the shield member is removed to expose the dielectric, a ground, GND, conductor layer on a front surface of the relay substrate is arranged; and the ground conductor layer on the front surface of the relay substrate, which is arranged directly under the part where the shield member is removed, is covered with an insulating member, characterized in that a connection part between the contact of the connector and the exposed inner conductor of the shielded cable is connected by soldering, the ground conductor layer on the front surface of the relay substrate is extended to directly under the contact of the connector and the connection part, and the ground conductor layer directly under the connection part is cut out.
Membrane pump comprising: - a housing (2, 3, 4, 5) having, along a main axis, two coaxial arranged pump chambers (30, 31, 32, 33) in which each a flexible membrane (10, 11) is arranged perpendicular to the main axis, which membranes (10, 11) are parallel to each other and divide each pumping chamber (30, 31, 32, 33) into a main compartment (30, 32) and a sub compartment (31, 33); - wherein each main compartment (30, 32) has at least one inlet opening and one outlet opening and wherein one way valves (23, 26) are arranged in each inlet opening and each outlet opening; - an inlet port arranged in the housing (2, 3, 4, 5) and in fluid connection with the inlet openings; - an outlet port arranged in the housing (2, 3, 4, 5) and in fluid connection with the outlet openings; - a connection rod extending coaxially through the housing (2, 3, 4, 5), wherein each end of the rod is attached to a membrane (10, 11); - driving means coupled to the connection rod for reciprocating driving of the connection rod in axial direction,whereinthe two main compartments (30, 32) of the pump chambers (30, 31, 32, 33) are adjacent to each other and the two sub compartments (31, 33) of the pump chambers (30, 31, 32, 33) are distal from each other, characterized in that an equalizing channel is arranged in the housing (2, 3, 4, 5), which equalizing channel connects the sub compartments (31, 33) of the two pump chambers (30, 31, 32, 33) for equalizing pressure. - a housing (2, 3, 4, 5) having, along a main axis, two coaxial arranged pump chambers (30, 31, 32, 33) in which each a flexible membrane (10, 11) is arranged perpendicular to the main axis, which membranes (10, 11) are parallel to each other and divide each pumping chamber (30, 31, 32, 33) into a main compartment (30, 32) and a sub compartment (31, 33); - wherein each main compartment (30, 32) has at least one inlet opening and one outlet opening and wherein one way valves (23, 26) are arranged in each inlet opening and each outlet opening; - an inlet port arranged in the housing (2, 3, 4, 5) and in fluid connection with the inlet openings; - an outlet port arranged in the housing (2, 3, 4, 5) and in fluid connection with the outlet openings; - a connection rod extending coaxially through the housing (2, 3, 4, 5), wherein each end of the rod is attached to a membrane (10, 11); - driving means coupled to the connection rod for reciprocating driving of the connection rod in axial direction,whereinthe two main compartments (30, 32) of the pump chambers (30, 31, 32, 33) are adjacent to each other and the two sub compartments (31, 33) of the pump chambers (30, 31, 32, 33) are distal from each other,
A system for transmitting data to a plurality of devices, the system comprising a memory and at least one processor coupled to the memory and being configured to: identify a subset of devices of the plurality of devices, the subset of devices having a cardinality and including a first device and a second device; allocate a buffer in the memory having a size based on the cardinality of the subset of devices; store a set of packets in the buffer, the set of packets having a cardinality and including a first packet and a second packet, each packet of the set of packets having an ordinal value within the set of packets; transmit the first packet to all devices of the subset of devices; receive a first response from the first device, the first response indicating successful receipt of the first packet by the first device; transmit the second packet to all devices of the subset of devices; receive a second response from the second device, the second response indicating a failure to receive at least one packet by the second device; retransmit, responsive to receipt of the second response, the first packet to all devices of the subset of devices; and retransmit, responsive to receipt of the second response, the second packet to all devices of the subset of devices, wherein the first response and second response are received responsive to transmission of responses to select packets having ordinal values that are in a predefined relationship with the cardinality of the subset of devices and discrete node numbers assigned to the devices. identify a subset of devices of the plurality of devices, the subset of devices having a cardinality and including a first device and a second device; allocate a buffer in the memory having a size based on the cardinality of the subset of devices; store a set of packets in the buffer, the set of packets having a cardinality and including a first packet and a second packet, each packet of the set of packets having an ordinal value within the set of packets; transmit the first packet to all devices of the subset of devices; receive a first response from the first device, the first response indicating successful receipt of the first packet by the first device; transmit the second packet to all devices of the subset of devices; receive a second response from the second device, the second response indicating a failure to receive at least one packet by the second device; retransmit, responsive to receipt of the second response, the first packet to all devices of the subset of devices; and retransmit, responsive to receipt of the second response, the second packet to all devices of the subset of devices, wherein the first response and second response are received responsive to transmission of responses to select packets having ordinal values that are in a predefined relationship with the cardinality of the subset of devices and discrete node numbers assigned to the devices.
Method for adapting adaptation values for adapting fuel injection quantities in an internal combustion engine, to which fuel can be fed by means of a mixed operation of two types of injection, wherein a first type of injection corresponds to an intake manifold injection, and a second type of injection corresponds to a direct injection, wherein a first adaptation value for adapting a first injection quantity, according to the internal combustion engine is operated with the first type of injection, and a second adaptation value for adapting a second injection quantity specification, according to which the internal combustion engine is operated with the second type of injection, are adapted, wherein the adaptation values are respectively adapted in defined adaptation ranges which do not overlap and are dependent on the operating state, wherein the first adaptation value is adapted in an adaptation operating range in which both an intake manifold injection and a direct injection take place, wherein the second adaptation value is adapted in an adaptation operating range in which fuel is fed as more than 70%, 80%, 90% or 95% to the internal combustion engine by direct injection, wherein the adaptation of the respective adaptation value is carried out in that a current adaptation value is determined for the respective type of injection and a previously determined adaptation value for the respective type of injection is adapted in that the determined adaptation value for the respective type of injection, which value is weighted with a weighting factor, is applied to the previous adaptation value.
Medical device comprising an electrical measurement circuit, wherein are connected at least two sensors the impedance of which varies as a function of a sensed physical quantity, an electrical power source for supplying power to the electrical measurement circuit, an antenna for emitting an electromagnetic field according to the impedance of the electrical measurement circuit, each of the sensors being associated with a switch for interrupting the current supply of the sensor in said measurement circuit, characterized in that the medical device further comprises a control system of the switches to successively control the opening or the closing of the switches, according to determined configurations, wherein the control system includes modules (28; 62) arranged in series with respect to one another, each controlling an associated switch, the modules (28; 62) being configured so that a change of state of an input of a first module triggers the closing or opening of the associated switch and triggers, after an amount of time, a change of state at the output of said module, corresponding to the input of the next module of the series of modules.
Liquid ring pump, having a pump housing which surrounds a pump chamber into which a pump liquid is filled in the intended operating state, and having an pump wheel which is arranged inside the pump chamber and is rotatable about an axis of rotation for conveying a gaseous working medium, - the pump wheel having on its outer circumference a number of delivery chambers separated from one another at least in the circumferential direction, - the pump wheel having in each case an outlet opening, which is assigned to each delivery chamber and is introduced locally into a bottom wall of the pump wheel, which delimits the respective delivery chamber radially on the inside, for the fluidic connection of the respective delivery chamber to a pressure region of the pump chamber, - wherein the bottom wall runs along the axis of rotation on both sides of the outlet opening at least in sections inclined to the axis of rotation in the direction of the outlet opening, - wherein the respective outlet opening is arranged at a point of the respective conveying chamber with the smallest radial distance to the axis of rotation, characterized in that the pump wheel has for each delivery chamber in each case an inflow opening made locally in one of the walls bounding the delivery chamber for fluidic connection of the respective delivery chamber with a suction region of the pump chamber. - the pump wheel having on its outer circumference a number of delivery chambers separated from one another at least in the circumferential direction, - the pump wheel having in each case an outlet opening, which is assigned to each delivery chamber and is introduced locally into a bottom wall of the pump wheel, which delimits the respective delivery chamber radially on the inside, for the fluidic connection of the respective delivery chamber to a pressure region of the pump chamber, - wherein the bottom wall runs along the axis of rotation on both sides of the outlet opening at least in sections inclined to the axis of rotation in the direction of the outlet opening, - wherein the respective outlet opening is arranged at a point of the respective conveying chamber with the smallest radial distance to the axis of rotation,
Module for a video wall, comprising a carrier comprising a multiplicity of image pixels, wherein an image pixel is formed by at least one first and one second light emitting chip, wherein each light emitting chip (3, 4, 5) comprises a first and a second electrical terminal (11, 12, 13, 14, 15, 16), wherein the first light emitting chip of an image pixel is connected to a first power line by the first electrical terminal, wherein the first light emitting chip of an image pixel is connected to a third power line by the second electrical terminal, wherein the second light emitting chip of the image pixel is connected to a second power line by the first electrical terminal, and wherein the second light emitting chip of the image pixel is connected to a fourth power line by the second electrical terminal, wherein the first and/or the second power line (21, 22) is/are embodied in the form of a surface metallization, wherein the surface metallization comprises contact sections (81, 82, 83), wherein a light emitting chip (3, 4, 5) is arranged on a contact section (81, 82, 83), wherein at least between contact sections (81, 82, 83) of a first and of a second power line (21, 22) an insulation layer is provided on the carrier, wherein the insulation layer comprises openings above the contact sections (81, 82, 83), and wherein the light emitting chips (3, 4, 5) are arranged in the openings.