mhurhangee/ep-ind-claims huggingface dataset:
An intraocular lens insertion device comprising: a lens disposing part where an intraocular lens, including an optical part, an outer edge adjacent to the optical part, and a haptic adjacent to the outer edge, is disposed; a plunger, including a distal portion defining a size and having a lens contact part and a protrusive part, which pushes out the intraocular lens disposed on the lens disposing part; a nozzle through which the intraocular lens is ejected; a transition part between the lens disposing part and the nozzle, the transition part having an inner surface that has a bottom face and that defines a lumen which decreases in size towards the nozzle; characterized by the respective sizes of the intraocular lens, the plunger distal portion and the transition part lumen are such that, when the plunger contact part engages the optical part and pushes the intraocular lens through the transition part, there will be a gap between one side of the plunger protrusive part and the optical part and the intraocular lens outer edge will be located over the opposite side of plunger protrusive part and apply force to the plunger protrusive part in a direction that pushes the lens contact part toward the transition part bottom face. a lens disposing part where an intraocular lens, including an optical part, an outer edge adjacent to the optical part, and a haptic adjacent to the outer edge, is disposed; a plunger, including a distal portion defining a size and having a lens contact part and a protrusive part, which pushes out the intraocular lens disposed on the lens disposing part; a nozzle through which the intraocular lens is ejected; a transition part between the lens disposing part and the nozzle, the transition part having an inner surface that has a bottom face and that defines a lumen which decreases in size towards the nozzle; characterized by the respective sizes of the intraocular lens, the plunger distal portion and the transition part lumen are such that, when the plunger contact part engages the optical part and pushes the intraocular lens through the transition part, there will be a gap between one side of the plunger protrusive part and the optical part and the intraocular lens outer edge will be located over the opposite side of plunger protrusive part and apply force to the plunger protrusive part in a direction that pushes the lens contact part toward the transition part bottom face.
An in vitro method for identifying a human who has an altered risk for developing venous thrombosis, comprising detecting a single nucleotide polymorphism in any one of the nucleotide sequences of SEQ ID NOs: 172, 118, 165, 135, 161 and 82 or a complement thereof, in said human's nucleic acids, wherein (a) the presence of C at position 101 of SEQ ID NO: 172 or the presence of G at position 101 of its complement; (b) the presence of C at position 101 of SEQ ID NO: 118 or the presence of G at position 101 of its complement; (c) the presence of G at position 101 of SEQ ID NO: 165 or the presence of C at position 101 of its complement; (d) the presence of A at position 101 of SEQ ID NO: 135 or the presence of T at position 101 of its complement; (e) the presence of A at position 101 of SEQ ID NO: 161 or the presence of T at position 101 of its complement; or (f) the presence of A at position 101 of SEQ ID NO: 82 or the presence of T at position 101 of its complement is indicative of an increased risk for VT in said human. (a) the presence of C at position 101 of SEQ ID NO: 172 or the presence of G at position 101 of its complement; (b) the presence of C at position 101 of SEQ ID NO: 118 or the presence of G at position 101 of its complement; (c) the presence of G at position 101 of SEQ ID NO: 165 or the presence of C at position 101 of its complement; (d) the presence of A at position 101 of SEQ ID NO: 135 or the presence of T at position 101 of its complement; (e) the presence of A at position 101 of SEQ ID NO: 161 or the presence of T at position 101 of its complement; or (f) the presence of A at position 101 of SEQ ID NO: 82 or the presence of T at position 101 of its complement is indicative of an increased risk for VT in said human.
Spotlight for a motor vehicle, comprising a light source producing a beam of light which is directed along a first axis intended to be oriented towards the front of the vehicle, said spotlight comprising a lens such that said light source projects all of the beam directly onto the lens, without reflection nor obturation, said lens being arranged to move in rotation about a second axis intended to be oriented towards the top of the vehicle, characterized in that said light beam has a shape which is substantially elongated along the second axis.
A block form for producing perforated insulating panels, which block form includes walls (5, 8, 7, 16, 17), a closable opening that allows to discharge a block, as well as multiple closable openings (2, 3, 4), e.g. for supplying of expandable material, an expanding agent, in particular water vapour, and for connecting a vacuum source, and the cavity of which, in the closed state of the block form, is interspersed with needles, wherein a needle holding plate displaceable outside of the block form is provided and the wall of the block form adjacent to this needle holding plate is provided with guide bores each provided for one needle and within the block form a needle receiving plate is provided which is provided with bores for receiving the free ends of the needles, wherein the size of the needle receiving plate corresponds to the cross-section of the cavity of the block form transverse to the needles, and the bores of the needle receiving plate being aligned with the guide bores for the needles in the one wall of the block form, characterized in that the needle receiving plate is held displaceably within the block form substantially accross the entire extent of the cavity of the block form in the direction of the needles, and in that the movement path of the needle holding plate ends at a distance from the outside of the wall of the block form provided with guide bores for the needles, which is smaller than the free length of the needles protruding from the needle holding plate, but larger than the free length of the needles reduced by the length of the guide holes or the thickness of the wall, respectively.
A clutched device comprising: a driving member; a driven member; a torsionally resilient member which is defined by a plurality of arcuate coil springs, wherein the torsionally resilient member is configured to receiving rotary power from the driving member; and a clutch assembly between the torsionally resilient member and the driven member, the clutch assembly comprising a carrier having a carrier shell, a wrap spring, and a spacer, the carrier shell defines arcuate recesses, which are configured for receipt of the arcuate coil springs, the carrier being configured to couple the wrap spring to the driven member to permit transmission of rotary power from the wrap spring to the driven member, the spacer being coupled to the carrier for rotation therewith and being configured to limit elongation of the wrap spring in an axial direction away from the carrier, characterised in that, the carrier shell further defines a plurality of spacer lugs and the spacer is a thrust ring which comprises a spacer portion and a spacer mount, wherein the spacer mount is configured to engage the spacer lugs to non-rotatably couple the spacer to the carrier. a driving member; a driven member; a torsionally resilient member which is defined by a plurality of arcuate coil springs, wherein the torsionally resilient member is configured to receiving rotary power from the driving member; and a clutch assembly between the torsionally resilient member and the driven member, the clutch assembly comprising a carrier having a carrier shell, a wrap spring, and a spacer, the carrier shell defines arcuate recesses, which are configured for receipt of the arcuate coil springs, the carrier being configured to couple the wrap spring to the driven member to permit transmission of rotary power from the wrap spring to the driven member, the spacer being coupled to the carrier for rotation therewith and being configured to limit elongation of the wrap spring in an axial direction away from the carrier, characterised in that, a driven member; a torsionally resilient member which is defined by a plurality of arcuate coil springs, wherein the torsionally resilient member is configured to receiving rotary power from the driving member; and a clutch assembly between the torsionally resilient member and the driven member, the clutch assembly comprising a carrier having a carrier shell, a wrap spring, and a spacer, the carrier shell defines arcuate recesses, which are configured for receipt of the arcuate coil springs, the carrier being configured to couple the wrap spring to the driven member to permit transmission of rotary power from the wrap spring to the driven member, the spacer being coupled to the carrier for rotation therewith and being configured to limit elongation of the wrap spring in an axial direction away from the carrier, characterised in that, the carrier shell further defines a plurality of spacer lugs and the spacer is a thrust ring which comprises a spacer portion and a spacer mount, wherein the spacer mount is configured to engage the spacer lugs to non-rotatably couple the spacer to the carrier.
A polynucleotide encoding a HPPD polypeptide having HPPD enzymatic activity, wherein said polynucleotide is derived from a plant and wherein said plant HPPD polypeptide encoded by said polynucleotide has at least 80% sequence identity to SEQ ID NO: 27 and comprises the amino acid sequence G(I,V)LVD(R,K)D (SEQ ID NO: 30), wherein L is replaced with M.
Torsional vibration damper in a friction clutch having an input-side driver plate which carries friction linings and an output-side, internally toothed hub which receives a flange part in a rotationally locking manner, a preliminary damper which is arranged between them in the circumferential direction, is active during a rotational play between the hub and the flange part, having a spring cage which is configured from plastic, is arranged axially between the flange part and the driver plate, and contains helical springs of low stiffness which can be braced on the input side and on the output side, and a main damper which is active after the rotational play has been used up, having helical springs (33, 34) of greater stiffness which can be braced on the input side and on the output side, and a frictional device which is formed at least from mutually facing and axially prestressed frictional faces (28, 29) of the spring cage and the driver plate, the frictional face of the spring cage being formed from a steel part which is connected to the latter, characterized in that the steel part is latched on the spring cage by means of brackets which are placed radially on the outside around the spring cage.
A sludge treatment plant comprising a sludge hygienization system, comprising: - an extended floor with a work surface for receiving a mass of spread-out sludge, - a movable carriage positioned transversely on top of the work surface and comprising a drive system for moving the movable carriage in a longitudinal translation above the floor, with said movable carriage comprising a displacement tool so designed as to continuously convey said sludge towards an end part of said work surface, - a sludge collecting tool (500, 502) provided at the end part of said work surface, for transferring the sludge towards an outlet channel, characterized in that the outlet channel comprises a screw conveyor provided to interact with the sludge collecting tool (500, 502), with said screw being provided with heating means specifically of a type including the circulation of a heat-transfer fluid or of a type including at least one heating resistance, and associated with a rotational drive system, and a controller jointly so arranged as to adjust the temperature in the screw conveyor so as to obtain a sludge temperature between 90°C and 100°C, while adjusting the rotational drive of the screw conveyor so as to obtain a residence time of the sludge within the screw conveyor substantially of a predetermined value above 4 hours, with the screw conveyor comprising stirring paddles. - an extended floor with a work surface for receiving a mass of spread-out sludge, - a movable carriage positioned transversely on top of the work surface and comprising a drive system for moving the movable carriage in a longitudinal translation above the floor, with said movable carriage comprising a displacement tool so designed as to continuously convey said sludge towards an end part of said work surface, - a sludge collecting tool (500, 502) provided at the end part of said work surface, for transferring the sludge towards an outlet channel,
A method for conditional handover, CHO, performed by a terminal device, the method comprising: receiving CHO configuration information and measurement configuration information of a source cell; performing CHO processing according to the CHO configuration information; wherein the measurement configuration information of the source cell comprises a measurement configuration identification, ID, of the source cell; and characterized in that performing CHO processing according to the CHO configuration information comprises: determining all measurement configuration parameters of the source cell corresponding to the measurement configuration ID of the source cell; performing a measurement according to the all measurement configuration parameters of the source cell to obtain a measurement result; and performing or not performing cell handover according to a CHO execution condition in the CHO configuration information corresponding to the measurement configuration ID and the measurement result. receiving CHO configuration information and measurement configuration information of a source cell; performing CHO processing according to the CHO configuration information; wherein the measurement configuration information of the source cell comprises a measurement configuration identification, ID, of the source cell; and characterized in that performing CHO processing according to the CHO configuration information comprises: determining all measurement configuration parameters of the source cell corresponding to the measurement configuration ID of the source cell; performing a measurement according to the all measurement configuration parameters of the source cell to obtain a measurement result; and performing or not performing cell handover according to a CHO execution condition in the CHO configuration information corresponding to the measurement configuration ID and the measurement result. determining all measurement configuration parameters of the source cell corresponding to the measurement configuration ID of the source cell; performing a measurement according to the all measurement configuration parameters of the source cell to obtain a measurement result; and performing or not performing cell handover according to a CHO execution condition in the CHO configuration information corresponding to the measurement configuration ID and the measurement result.
A method of wireless communication at a client device, the method comprising: establishing a secure radio resource control, RRC, channel with a base station; receiving an encoded message from the base station using the secure RRC channel, wherein the encoded message comprises one or more time varying allocations of resources for one or more client devices; obtaining, from the encoded message, a time varying allocation of resources for the client device comprising a shared pattern of resources allocated for uplink control information; and transmitting uplink control information based at least in part on the shared pattern of resources. establishing a secure radio resource control, RRC, channel with a base station; receiving an encoded message from the base station using the secure RRC channel, wherein the encoded message comprises one or more time varying allocations of resources for one or more client devices; obtaining, from the encoded message, a time varying allocation of resources for the client device comprising a shared pattern of resources allocated for uplink control information; and transmitting uplink control information based at least in part on the shared pattern of resources.
A method of protecting a micro-electro-mechanical system having an ultrasonic transducer comprising the step of disposing adjacent to said ultrasonic transducer an expanded PTFE membrane, characterized in that said expanded PTFE membrane has a mass/area ratio of less than 1 g/m 2, and provides transmission loss of less than 3dB at a frequency of 50 to 92.5 kHz.
Method for producing an adapted liner for placement on a stump, particularly an amputation stump, comprising the following step: - selecting a prefabricated liner as a function of the size of the stump; characterized by the steps - applying a filling compound to regions of the stump that deviate from the inside contour of the prefabricated liner; - connecting the filling compound to the prefabricated liner. - selecting a prefabricated liner as a function of the size of the stump; - applying a filling compound to regions of the stump that deviate from the inside contour of the prefabricated liner; - connecting the filling compound to the prefabricated liner.
A method of allocating wireless resources to a multiple basic service set identifier, BSSID, set including a number of BSSIDs each associated with a corresponding one of a number of access points, APs, the method performed by a first AP and comprising: allocating random access resources for use by stations belonging to the multiple BSSID set based on a group AID mapping contained in a partial virtual bitmap of a traffic indication map, TIM, element; and transmitting a trigger frame containing a number of AID values to the stations belonging to the multiple BSSID set. allocating random access resources for use by stations belonging to the multiple BSSID set based on a group AID mapping contained in a partial virtual bitmap of a traffic indication map, TIM, element; and transmitting a trigger frame containing a number of AID values to the stations belonging to the multiple BSSID set.
An over-the-air measurement system for investigating a device under test with respect to its temperature behavior, the over-the air measurement system comprising: a positioning unit (16, 16a, 16b, 17, 31, 32, 33, 34) to which the device under test is attached, the positioning unit (16, 16a, 16b, 17, 31, 32, 33, 34) being configured to position the device under test, an enveloping material surrounding the device under test and creating a corresponding volume surrounding the device under test, at least one antenna (12, 12a, 12b), a temperature generating unit configured to generate heated or cooled air, and a piping system (15, 15a, 15b) comprising at least one pipe (15, 15a, 15b) connected to the temperature generating unit for passing the heated or cooled air generated by the temperature generating unit into at least one opening of the enveloping material, or through the positioning unit (16, 16a, 16b, 17, 31, 32, 33, 34), and/or for siphoning the heated or cooled air, wherein the positioning unit (16, 16a, 16b, 17, 31, 32, 33, 34) and the piping system (15, 15a, 15b) are configured to relatively move and/or rotate the device under test with respect to the at least one antenna (12, 12a, 12b), and wherein the device under test is surrounded by the enveloping material in order to hold the desired temperature with respect to the device under test, the over-the-air measuring system being characterised in that the enveloping material comprises at least one pressure valve being configured to balance air pressure outside and inside the volume of the enveloping material surrounding the device under test. a positioning unit (16, 16a, 16b, 17, 31, 32, 33, 34) to which the device under test is attached, the positioning unit (16, 16a, 16b, 17, 31, 32, 33, 34) being configured to position the device under test, an enveloping material surrounding the device under test and creating a corresponding volume surrounding the device under test, at least one antenna (12, 12a, 12b), a temperature generating unit configured to generate heated or cooled air, and a piping system (15, 15a, 15b) comprising at least one pipe (15, 15a, 15b) connected to the temperature generating unit for passing the heated or cooled air generated by the temperature generating unit into at least one opening of the enveloping material, or through the positioning unit (16, 16a, 16b, 17, 31, 32, 33, 34), and/or for siphoning the heated or cooled air, wherein the positioning unit (16, 16a, 16b, 17, 31, 32, 33, 34) and the piping system (15, 15a, 15b) are configured to relatively move and/or rotate the device under test with respect to the at least one antenna (12, 12a, 12b), and wherein the device under test is surrounded by the enveloping material in order to hold the desired temperature with respect to the device under test, the over-the-air measuring system being characterised in that the enveloping material comprises at least one pressure valve being configured to balance air pressure outside and inside the volume of the enveloping material surrounding the device under test.
A DNA targeting system that binds to a dystrophin gene, the DNA targeting system comprising Cas9 and at least one guide RNA (gRNA), wherein: the at least one gRNA targets a polynucleotide sequence selected from: SEQ ID NO: 70 (ggggctccaccctcacgagt), SEQ ID NO: 707 (gcacaaaagtcaaatcggaa), SEQ ID NO: 708 (gatttcaatataagattcgg), SEQ ID NO: 743 (gtgagggctccaccctcacga), SEQ ID NO: 744 (gaaggattgagggctccaccc), SEQ ID NO: 745 (ggctccaccctcacgagtggg), SEQ ID NO: 749 (gtgagggctccaccctcacga); SEQ ID NO: 704 (gtacacttttcaaaatgctt); SEQ ID NO: 702 (gtcgctcactcaccctgcaa); or SEQ ID NO: 683 (ggatctgtcaaatcgcctgc).
Energy storage device for storing energy, comprising: - a high-temperature regenerator containing a solid, in particular porous, storage material, - a working gas as heat transfer medium to transfer heat between the storage material and the flowing working gas, and - a charging circuit and a discharging circuit for the working gas, the charging circuit being designed such that, starting from a preheater, at least a first heat exchange channel of a recuperator, a first compressor, the high-temperature regenerator, a second heat exchange channel of the recuperator, and then a first expander are conductively connected to one another to form a circuit so as to conduct fluid, and wherein the first compressor is coupled to the first expander, and wherein the first compressor forms part of a first piston machine and the first expander forms part of a second piston machine, wherein the piston machines (K1, K2) are controllably operable either as a compressor or as an expander such that the first compressor of the charging circuit forms a second expander in the discharging circuit, and in that the first expander of the charging circuit forms a second compressor in the discharging circuit, and wherein the high-temperature regenerator can be operatively connected to either the charging circuit or the discharging circuit such that the high-temperature regenerator, the compressor and the expander form either a part of the charging circuit or a part of the discharging circuit, and wherein the charging circuit, the discharging circuit and the high temperature regenerator have the same working gas so that the working gas comes into direct contact with the storage material of the high temperature regenerator both in the charging circuit and in the discharging circuit. - a high-temperature regenerator containing a solid, in particular porous, storage material, - a working gas as heat transfer medium to transfer heat between the storage material and the flowing working gas, and - a charging circuit and a discharging circuit for the working gas,