mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for melting and dispensing thermoplastic material, comprising: a reservoir section (18, 118) for receiving and at least temporarily storing the material, and a manifold section (12, 112, 112a, 112b) for receiving material from the reservoir section (18, 118) and for connecting the reservoir section (18, 118) to a dispensing port, the manifold section (12, 112, 112a, 112b) being connected to the reservoir section (18, 118), characterized in that the manifold section (12, 112, 112a, 112b) is releasably and directly attachable to the reservoir section (18, 118) into a sealing engagement with the reservoir section (18, 118), further comprising an integral connection (14, 20, 120a, 120b) between the manifold section (12, 112, 112a, 112b) and the reservoir section (18, 118). a reservoir section (18, 118) for receiving and at least temporarily storing the material, and a manifold section (12, 112, 112a, 112b) for receiving material from the reservoir section (18, 118) and for connecting the reservoir section (18, 118) to a dispensing port, the manifold section (12, 112, 112a, 112b) being connected to the reservoir section (18, 118), characterized in that the manifold section (12, 112, 112a, 112b) is releasably and directly attachable to the reservoir section (18, 118) into a sealing engagement with the reservoir section (18, 118), further comprising an integral connection (14, 20, 120a, 120b) between the manifold section (12, 112, 112a, 112b) and the reservoir section (18, 118).
Compounds of formula (Ia) wherein V is a COOH group; W is a guanidino group or an isostere chosen in the group consisting of where M = NH; L = H, cycloalkyl, aryl optionally substituted, NH2, OH, SH, tyrosine, tyramine, and s = 0-8; R9 = H, NH2, CH3, CF3; V-Y- is chosen in the group consisting of V- p-CH -N - m-, V- p-CH -N -CO- m-,; m = 1,2,3; p = 0,1,2;; R4 = H, alkyl, aryl optionally substituted, SO2aryl optionally substituted; R5 = amino acid side chain, or is chosen in the group consisting of said rings being optionally substituted, where R6, R7 and R8 are independently chosen in the group consisting of H, alkyl, cycloalkyl; and L and s are defined as above; W-X- is chosen in the group consisting of W- n-, where n=1,2,3; including all the possible variations of the stereogenic centers, pharmaceutically acceptable salts, and including the possible presence of one or more radioisotopes. V is a COOH group; W is a guanidino group or an isostere chosen in the group consisting of where M = NH; L = H, cycloalkyl, aryl optionally substituted, NH2, OH, SH, tyrosine, tyramine, and s = 0-8; R9 = H, NH2, CH3, CF3; V-Y- is chosen in the group consisting of V- p-CH -N - m-, V- p-CH -N -CO- m-,; m = 1,2,3; p = 0,1,2;; R4 = H, alkyl, aryl optionally substituted, SO2aryl optionally substituted; R5 = amino acid side chain, or is chosen in the group consisting of said rings being optionally substituted, where R6, R7 and R8 are independently chosen in the group consisting of H, alkyl, cycloalkyl; and L and s are defined as above; W-X- is chosen in the group consisting of W- n-, where n=1,2,3;
A cutting tool comprising: a rod; and a blade mounting device including a lock device (13, 14) and a blade guide, wherein: the lock device (13, 14) is configured to releasably lock a blade against the rod, the blade having a head (Ba) and a width, and the blade guide has a configuration other than a thin flat plate configuration, characterized in that the blade guide is movable relative to the rod in an axial direction of the rod and coupled to the lock device (13, 14), so that the lock device (13, 14) locks and releases the blade in response to the position of the blade guide in the axial direction, and the blade guide has a guide recess capable of guiding and engaging the blade, so that the blade guide can be moved by the blade in the axial direction through engagement of the guide recess with the blade. a rod; and a blade mounting device including a lock device (13, 14) and a blade guide, wherein: the lock device (13, 14) is configured to releasably lock a blade against the rod, the blade having a head (Ba) and a width, and the blade guide has a configuration other than a thin flat plate configuration, characterized in that the blade guide is movable relative to the rod in an axial direction of the rod and coupled to the lock device (13, 14), so that the lock device (13, 14) locks and releases the blade in response to the position of the blade guide in the axial direction, and the blade guide has a guide recess capable of guiding and engaging the blade, so that the blade guide can be moved by the blade in the axial direction through engagement of the guide recess with the blade. the lock device (13, 14) is configured to releasably lock a blade against the rod, the blade having a head (Ba) and a width, and the blade guide has a configuration other than a thin flat plate configuration, characterized in that the blade guide is movable relative to the rod in an axial direction of the rod and coupled to the lock device (13, 14), so that the lock device (13, 14) locks and releases the blade in response to the position of the blade guide in the axial direction, and the blade guide has a guide recess capable of guiding and engaging the blade, so that the blade guide can be moved by the blade in the axial direction through engagement of the guide recess with the blade.
A method, comprising: receiving a coded bit stream that is generated by encoding source information using a Non Return to Zero Inverted (NRZI) code; selecting an NRZI decoding method based on one or more parameters associated with noise in the received coded bit stream, wherein the one or more parameters comprises a type of the noise and a level of the noise in the received coded bit stream, and the type of the noise comprises optical noise and electrical noise; and generating a plurality of decisions by processing the received coded bit stream using the selected NRZI decoding method, wherein the received coded bit stream comprises a plurality of coded bits, and the plurality of decisions are estimates of a plurality of source bits in the source information. receiving a coded bit stream that is generated by encoding source information using a Non Return to Zero Inverted (NRZI) code; selecting an NRZI decoding method based on one or more parameters associated with noise in the received coded bit stream, wherein the one or more parameters comprises a type of the noise and a level of the noise in the received coded bit stream, and the type of the noise comprises optical noise and electrical noise; and generating a plurality of decisions by processing the received coded bit stream using the selected NRZI decoding method, wherein the received coded bit stream comprises a plurality of coded bits, and the plurality of decisions are estimates of a plurality of source bits in the source information.
A plastic covered stent for aortic dissection, comprising: a tubular membrane; and a plurality of annular stents sequentially sutured on the membrane along an axial direction, wherein part of the annular stents on the membrane are semi-suture stents, each of the semi-suture stents has non-suture zones separable from the membrane, and when the plastic covered stent for aortic dissection is bent, the membrane corresponding to the non-suture zones of each of the semi-suture stents at an inner bending side of the plastic covered stent for aortic dissection is separated from each of the semi-suture stents and folded, wherein each of the semi-suture stents fluctuates along the axial direction to form a wave while extending circumferentially, and the non-suture zones of each of the semi-suture stents are located at turning portions of the wave, wherein along a trend of a blood vessel, after the plastic covered stent for aortic dissection is implanted, the turning portions pointing to heart are peaks, the turning portions facing away from the heart are valleys, and each of the annular stents comprises connecting rods each connecting one peak and one valley adjacent to the peak. a tubular membrane; and a plurality of annular stents sequentially sutured on the membrane along an axial direction, wherein part of the annular stents on the membrane are semi-suture stents, each of the semi-suture stents has non-suture zones separable from the membrane, and when the plastic covered stent for aortic dissection is bent, the membrane corresponding to the non-suture zones of each of the semi-suture stents at an inner bending side of the plastic covered stent for aortic dissection is separated from each of the semi-suture stents and folded, wherein each of the semi-suture stents fluctuates along the axial direction to form a wave while extending circumferentially, and the non-suture zones of each of the semi-suture stents are located at turning portions of the wave, wherein along a trend of a blood vessel, after the plastic covered stent for aortic dissection is implanted, the turning portions pointing to heart are peaks, the turning portions facing away from the heart are valleys, and each of the annular stents comprises connecting rods each connecting one peak and one valley adjacent to the peak.
Pistol with a catch device for the breech of the pistol, with a spring attempts to pivot a holding lever, which is mounted pivotably in a housing of the pistol, in such a manner that an impact surface, which is formed on the upper side thereof directed towards the breech, passes out of the path of the breech, and a handle provided on the holding lever is pressed downwards, away from the breech, wherein part of the holding lever projects into the path of movement of a magazine slide, which presses the cartridges towards the breech, and is acted upon by said magazine slide, after the final cartridge of the magazine has been pushed in counter to the force of the spring, in such a manner that, during the return movement after said cartridge has been fired, the breech is caught by a recess on the impact surface and remains in the region of the rear end position thereof, characterized in that the spring is a compression spring which, pretensioned between two claws (11, 11') of the holding lever, is arranged in a slot of the housing and bears at one end thereof against the base of the slot and at the other end thereof against the claw.
A method performed by a wireless communication node (102, 202), comprising: broadcasting at least one message indicating first and second formats, wherein the first format is used by a plurality of wireless communication devices (104, 204) to send respective first random access preambles and the second format is used by the plurality of wireless communication devices (104, 204) to send respective second random access preambles, wherein the first and second formats respectively correspond to first and second cell coverage ranges of the wireless communication node (102, 202), the second cell coverage range being greater than the first cell coverage range, wherein the first format is allocated with a first set of resources and wherein the second format is allocated with a second set of resources from which to select based on an enhanced coverage level of a respective wireless communication device (104, 204) of the plurality of wireless communication devices (104, 204), and wherein the first format is supported by the plurality of wireless communication devices and the second format is supported by a subset of the plurality of wireless communication devices (104, 204). broadcasting at least one message indicating first and second formats, wherein the first format is used by a plurality of wireless communication devices (104, 204) to send respective first random access preambles and the second format is used by the plurality of wireless communication devices (104, 204) to send respective second random access preambles, wherein the first and second formats respectively correspond to first and second cell coverage ranges of the wireless communication node (102, 202), the second cell coverage range being greater than the first cell coverage range, wherein the first format is allocated with a first set of resources and wherein the second format is allocated with a second set of resources from which to select based on an enhanced coverage level of a respective wireless communication device (104, 204) of the plurality of wireless communication devices (104, 204), and
A method comprising: determining a number of frequency blocks to be allocated to a mobile station, a frequency block including one uplink resource block or a plurality of uplink resource blocks that are consecutive on a frequency axis; determining an allocation resolution for the mobile station that is a unit of uplink resource block allocation, depending on the number of frequency blocks allocated to the mobile station, with a higher allocation resolution determined for a mobile station having a larger number of allocated frequency blocks; allocating, to the mobile station, one or more uplink resource blocks based on the determined number of frequency blocks and the determined allocation resolution; and transmitting, to the mobile station, downlink control information for uplink scheduling, the downlink control information including information of the one or more allocated frequency blocks. determining a number of frequency blocks to be allocated to a mobile station, a frequency block including one uplink resource block or a plurality of uplink resource blocks that are consecutive on a frequency axis; determining an allocation resolution for the mobile station that is a unit of uplink resource block allocation, depending on the number of frequency blocks allocated to the mobile station, with a higher allocation resolution determined for a mobile station having a larger number of allocated frequency blocks; allocating, to the mobile station, one or more uplink resource blocks based on the determined number of frequency blocks and the determined allocation resolution; and transmitting, to the mobile station, downlink control information for uplink scheduling, the downlink control information including information of the one or more allocated frequency blocks.
Method for producing a plurality of analytical aids for the detection of at least one analyte in a sample, in particular, a body fluid, wherein the analytical aids each comprise at least one housing comprising a housing part and at least one test element comprising at least one test chemistry, wherein the method comprises the following steps: a) providing the test elements; and b) producing the housing parts by means of at least one shaping process, wherein the test elements are connected to the respective housing parts by means of the shaping process, wherein the method is carried out such that the analytical aids are contained in an analytical magazine, wherein the analytical aids are accommodated in a common magazine housing, wherein the method is carried out such that the housings of the analytical aids are constituents of the magazine housing and wherein the analytical aids of the magazine are produced by the housing parts of the analytical aids being simultaneously produced and simultaneously connected to one another during the shaping process. a) providing the test elements; and b) producing the housing parts by means of at least one shaping process, wherein the test elements are connected to the respective housing parts by means of the shaping process,
A method for manufacturing synthetic granules, extruded profiles or molded parts, with step a) producing a synthetic melt using worm machine and step b) pressing the synthetic melt using a melt pump through a tool for creating the granules, the extruded profile or the molded part, wherein the melt pump is designed to be detached from worm machine and has a distinct drive, whereas the melt pump comprises a compressor and whereas the compressor comprises an inlet and an outlet opening, characterized in that the compressor comprises at least two worm conveyors (8, 108, 208, 308) disposed in a common housing, whereas the worm conveyor (8, 108, 208, 308) provides the worm flights (9, 209, 309) configured in such a manner that a force feed of the synthetic melt occurs and whereas the worm conveyors (8, 108, 208, 308) are drivable by the melt pumps own drive, that the worm flights (9, 209, 309) and the worm conveyors (8, 108, 208, 308) are configured so that they correspond to each other and engage with each other in such a manner that between the housing and the worm flights (9, 209, 309) of the worm conveyors (8, 108, 208, 308) at least one worm chamber (12, 212, 312) is formed, which is closed except for a housing gap and/or a worm gap, that the housing gap and the screw gap is chosen depending on the synthetic melt in such a manner that the compressor is axially sealed, that the housing is configured so that it corresponds to the outer contour of the worm conveyors (8, 108, 208, 209) in such a manner that the housing gap remaining between the worm conveyor (8, 108, 208, 308) and the housing depending on the synthetic melt is between 0,05 mm and 2 mm, that the worm flights and the worm conveyors (8, 108, 208, 308) are formed so that they correspond to each other and disposed so that they engage with each other in such a manner that the worm gap remaining between the worm flight (9, 209, 309) and the worm conveyor (8, 108, 208, 308) depending on the synthetic melt is between 0,05 mm and 2 mm, and that between step a) and step b) in step a1) the synthetic melt is transferred from the worm machine to the melt pump at atmospheric pressure.
Manoeuvering flywheel of the type consisting of a main flywheel body composed by a cylindrical base and of a crown consisting of a regular series of gripping lobes wherein said cylindrical base centrally provides a cylindrical cavity, wherein: a. a septum is located which is centrally perforated, perpendicular to the directrices of said cylindrical cavity, and apt to make up two separate chambers, b. on the lower surface of said septum a series of engagement teeth is housed, characterized in that c. within said cylindrical cavity a bush is further provided; d. said bush has above along the perimeter line engagement teeth, and between one tooth and the other there are housings with a circular base being internally provided for the housing of spheres and along the lateral profile a central groove being provided for the housing of an O-ring e. said teeth provided along the perimeter of the lower surface of the septum are engaged with said engagement teeth formed along the perimeter of the summit surface of the said bush. a. a septum is located which is centrally perforated, perpendicular to the directrices of said cylindrical cavity, and apt to make up two separate chambers, b. on the lower surface of said septum a series of engagement teeth is housed, characterized in that c. within said cylindrical cavity a bush is further provided; d. said bush has above along the perimeter line engagement teeth, and between one tooth and the other there are housings with a circular base being internally provided for the housing of spheres and along the lateral profile a central groove being provided for the housing of an O-ring e. said teeth provided along the perimeter of the lower surface of the septum are engaged with said engagement teeth formed along the perimeter of the summit surface of the said bush.
A user equipment, UE, comprising: a transceiver configured to wirelessly communicate by radio resource control, RRC, signaling; and a processor in signal communication with the transceiver, wherein the processor is configured to receive, through the transceiver and from a base station serving the UE, a first configuration by RRC signaling, the first configuration instructing the UE to transmit a first device-to-device synchronization signal, D2DSS, wherein the processor is further configured to receive, through the transceiver and from the base station, a second configuration by RRC signaling, the second configuration identifying a synchronization resource comprising a time resource, a frequency resource, or a time and frequency resource for transmitting the first D2DSS by the UE, wherein the first configuration is received independently from the second configuration, and wherein the processor is further configured to transmit, through the transceiver, the first D2DSS in an uplink resource according to the first configuration and the second configuration. a transceiver configured to wirelessly communicate by radio resource control, RRC, signaling; and a processor in signal communication with the transceiver, wherein the processor is configured to receive, through the transceiver and from a base station serving the UE, a first configuration by RRC signaling, the first configuration instructing the UE to transmit a first device-to-device synchronization signal, D2DSS, wherein the processor is further configured to receive, through the transceiver and from the base station, a second configuration by RRC signaling, the second configuration identifying a synchronization resource comprising a time resource, a frequency resource, or a time and frequency resource for transmitting the first D2DSS by the UE, wherein the first configuration is received independently from the second configuration, and wherein the processor is further configured to transmit, through the transceiver, the first D2DSS in an uplink resource according to the first configuration and the second configuration.
A pharmaceutical composition comprising a recombinant human acid alpha-glucosidase in a formulation comprising: a) a buffering agent selected from the group consisting of histidine, sodium acetate, citrate, phosphate, succinate, Tris and combinations thereof; b) a stabilizing agent selected from the group consisting of sucrose, arginine, sorbitol, mannitol, glycine, trehalose and combinations thereof; c) a tonicity modifier selected from the group consisting of glycine, sorbitol, sucrose, mannitol, sodium chloride, dextrose, arginine and combinations thereof; d) a bulking agent selected from the group consisting of sucrose, mannitol, glycine, sodium chloride, dextran, trehalose and combinations thereof; and e) a poloxamer, wherein the poloxamer is Pluronic ® F-68 at a concentration ranging between 0.001% and 0.2%, at a concentration of 0.1%, or at a concentration of 0.05%; wherein the pH ranges from approximately 4.0 to 7.0. a) a buffering agent selected from the group consisting of histidine, sodium acetate, citrate, phosphate, succinate, Tris and combinations thereof; b) a stabilizing agent selected from the group consisting of sucrose, arginine, sorbitol, mannitol, glycine, trehalose and combinations thereof; c) a tonicity modifier selected from the group consisting of glycine, sorbitol, sucrose, mannitol, sodium chloride, dextrose, arginine and combinations thereof; d) a bulking agent selected from the group consisting of sucrose, mannitol, glycine, sodium chloride, dextran, trehalose and combinations thereof; and e) a poloxamer, wherein the poloxamer is Pluronic ® F-68 at a concentration ranging between 0.001% and 0.2%, at a concentration of 0.1%, or at a concentration of 0.05%;