mhurhangee/ep-ind-claims huggingface dataset:
A surgical training device comprising: a base; and a top cover connected to and spaced apart from the base by at least one leg (130, 132) to define an internal cavity between the top cover and the base, the top cover having an opening and an insert sized and configured to be removably fitted into the opening of the top cover and connected thereto; characterised in that the at least one leg (130, 132) is configured to allow angulation of the top cover with respect to the base, wherein an angle between respective planes of the top cover and the base is selectably adjustable so as to simulate a patient in a Trendelenburg position or a reverse Trendelenburg position, the selectable angle between the top cover and the base being adjustable within a range of 0 ° to 60 °. a base; and a top cover connected to and spaced apart from the base by at least one leg (130, 132) to define an internal cavity between the top cover and the base, the top cover having an opening and an insert sized and configured to be removably fitted into the opening of the top cover and connected thereto; characterised in that the at least one leg (130, 132) is configured to allow angulation of the top cover with respect to the base, wherein an angle between respective planes of the top cover and the base is selectably adjustable so as to simulate a patient in a Trendelenburg position or a reverse Trendelenburg position, the selectable angle between the top cover and the base being adjustable within a range of 0 ° to 60 °.
A method for managing a job request at a document processing system that has been issued a private key and a public key, comprising: receiving the job request including a first part specifying job information that is encrypted using a symmetric key, a second part specifying a first encryption of the symmetric key that uses a public key of a mobile recipient device that has been issued a private and public key, and a third part specifying a mobile recipient identifier device; locating the mobile recipient device after issuing discovery requests and matching identifiers of responding mobile devices with the mobile recipient device identifier; transmitting the second part to the located mobile recipient device, wherein the first encryption of the symmetric key is decrypted using the private key of the mobile recipient device; receiving a second encryption of the decrypted symmetric key, the second encryption using the public key of the document processing system; using the private key of the document processing system to decrypt the second encryption of the symmetric key; using the symmetric key decrypted from the second encryption to decrypt the first part of the job request; and initiating performance of the decrypted job request. receiving the job request including a first part specifying job information that is encrypted using a symmetric key, a second part specifying a first encryption of the symmetric key that uses a public key of a mobile recipient device that has been issued a private and public key, and a third part specifying a mobile recipient identifier device; locating the mobile recipient device after issuing discovery requests and matching identifiers of responding mobile devices with the mobile recipient device identifier; transmitting the second part to the located mobile recipient device, wherein the first encryption of the symmetric key is decrypted using the private key of the mobile recipient device; receiving a second encryption of the decrypted symmetric key, the second encryption using the public key of the document processing system; using the private key of the document processing system to decrypt the second encryption of the symmetric key; using the symmetric key decrypted from the second encryption to decrypt the first part of the job request; and initiating performance of the decrypted job request.
Ball roller bearing, essentially comprising an outer bearing ring, an inner bearing ring and a multiplicity of ball rollers arranged between said bearing rings (2, 3), which ball rollers roll on the running surfaces thereof in two groove-shaped races (8, 9) machined into the inner side of the outer bearing ring and into the outer side of the inner bearing ring and are held at uniform distances from one another in the circumferential direction by a bearing cage, characterized in that the bearing cage is designed as a window cage having two lateral cage flanges (14, 15), which are bent around two encircling flanging edges (11, 12) toward the inner bearing ring, are interconnected by a plurality of pocket webs and serve to guide the ball rollers axially, and the individual cage pockets thereof, which are separated from one another by the pocket webs, each have a cross hole shape, which is formed from a cross-sectional contour of a ball roller, said contour being arranged longitudinally with respect to the circumferential direction, and from a free contour, which is integrated therein, is arranged transversely to the circumferential direction and serves for the insertion of a ball roller into the bearing cage, wherein the free contour in each cage pocket of the bearing cage is designed so as to be enlarged to the geometric shape of a rectangle and in that the flanging edges (11, 12) of the cage flanges (14, 15) are each designed to have a material thickness which is reduced compared to the remaining material thickness of the bearing cage by an encircling linear rolled profile (19, 20).
A method of generating a non-human organism that is heterozygous for a modification at a gene locus having at least first and second alleles, the method comprising (a) introducing a reporter or a selectable marker sequence into a cell of the organism using a nuclease that mediates targeted integration of the reporter or marker sequence into a selected target locus of the genome of the cell, the selected target locus comprising at least first and second alleles; (b) identifying cells comprising (i) the reporter or selectable marker in the first allele of the selected target locus and (ii) a non-homologous end-joining (NHEJ) modification in the second allele of the target locus; (c) allowing cells identified in step (b) to develop into reproductively mature non-human organisms. (a) introducing a reporter or a selectable marker sequence into a cell of the organism using a nuclease that mediates targeted integration of the reporter or marker sequence into a selected target locus of the genome of the cell, the selected target locus comprising at least first and second alleles; (b) identifying cells comprising (i) the reporter or selectable marker in the first allele of the selected target locus and (ii) a non-homologous end-joining (NHEJ) modification in the second allele of the target locus; (c) allowing cells identified in step (b) to develop into reproductively mature non-human organisms.
A coated paperboard product comprising: - a paperboard substrate; and - a barrier coating, wherein the barrier coating comprises talc and a polyolefin-based binder and wherein the amount of talc in the barrier coating is 15-40 wt-% based on the dry weight of the barrier coating, and the polyolefin-based binder is a polyethylene -based binder, wherein the coat weight of the barrier coating is 4-15 g/m 2; - a pre-coating arranged between the paperboard substrate and the barrier coating, the pre-coating is arranged on the paperboard substrate and the barrier coating is arranged on the pre-coating. - a paperboard substrate; and - a barrier coating, wherein the barrier coating comprises talc and a polyolefin-based binder and wherein the amount of talc in the barrier coating is 15-40 wt-% based on the dry weight of the barrier coating, and the polyolefin-based binder is a polyethylene -based binder, wherein the coat weight of the barrier coating is 4-15 g/m 2; - a pre-coating arranged between the paperboard substrate and the barrier coating, the pre-coating is arranged on the paperboard substrate and the barrier coating is arranged on the pre-coating.
An adjustment device for aligning awning arms comprising an articulation shaft that constitutes a connecting link articulated to an end section of each arm, and a fixed support; wherein the direction of the articulation shaft (5, 6) is adjusted by means of the adjustment device; and wherein the articulation shaft is introduced into holes facing each other located in the fixed support and in the end section of the arm, wherein the articulation shaft comprises an eccentric recess, which is located in an intermediate area of the articulation shaft, that is in contact with a contact surface situated in correspondence with a widened area of the outline of a central hole of the fixed support in which a central part of the articulation shaft is adjusted; wherein the articulation shaft is configured to be able to rotate in order to position said articulation shaft in one of the different stable directions along a plane; characterized in that the central hole has two curved portions facing each other that diverge downwards; wherein the contact surface that is in contact with the eccentric recess of the articulation shaft is located on one of said curved portions; and wherein one part of the fixed support is located inside a mortise end of the arm; and wherein opposite tabs of the arm have first end holes in which end sections of the articulation shaft are adjusted, which protrude above and below the fixed support.
Pockels cell that contains two similar electro-optical crystals (10a, 10b) oriented to achieve temperature compensation on a horizontal metal base common to the two crystals, a carrier structure, and further containing, between the base and the carrier structure, a thermally conductive element, characterized in that the thermally conductive element has a configuration that is symmetric about a vertical plane passing between the two crystals, in order to distribute symmetrically towards the base, a heat flux generated in the carrier structure asymmetrically with respect to the vertical plane.
A method of managing a computer memory by selectively admitting new objects into the memory, comprising: receiving a request for an object not stored in the memory; storing the object in the memory if it has previously been requested a designated number of times or if the size of the object satisfies a size criterion; and evicting, as may be necessary in connection with storing the requested object, one or more currently stored objects. receiving a request for an object not stored in the memory; storing the object in the memory if it has previously been requested a designated number of times or if the size of the object satisfies a size criterion; and evicting, as may be necessary in connection with storing the requested object, one or more currently stored objects.
A method for producing a hybrid material component having a metallic hollow profile and a casing arranged thereon, the method comprising the steps: - producing the metallic hollow profile having a predetermined cross-sectional shape and a predetermined profile course, wherein the metallic hollow profile is produced by an internal high-pressure forming process - producing a casing at least on one portion of an outer surface of the metallic hollow profile, wherein the casing is formed from a plastics material reinforced with continuous fibres (16, 19), wherein the continuous fibres (16, 19) are especially carbon, aramid and/or glass fibres, and after the production of the metallic hollow profile, the continuous fibres (16, 19) are applied at least to a predetermined portion of the outer surface of the metallic hollow profile, and the metallic hollow profile with the continuous fibres (16, 19) arranged thereon is introduced into a transfer mould, especially into a resin transfer moulding tool, and a plastics material matrix, especially a resin is applied at least in the portion in which the continuous fibres (16, 19) are arranged, and the plastics material matrix is then cured into a moulding, characterised in that - the continuous fibres (16, 19) are applied to the predetermined portion of the metallic hollow profile in that the continuous fibres (16, 19) are braided and/or wound around said portion, wherein at least during the application of the plastics material matrix, an internal pressure (P I) which counteracts an external transfer moulding pressure (P A) is generated in an inner cavity of the metallic hollow profile. - producing the metallic hollow profile having a predetermined cross-sectional shape and a predetermined profile course, wherein the metallic hollow profile is produced by an internal high-pressure forming process - producing a casing at least on one portion of an outer surface of the metallic hollow profile, wherein the casing is formed from a plastics material reinforced with continuous fibres (16, 19), wherein the continuous fibres (16, 19) are especially carbon, aramid and/or glass fibres, and after the production of the metallic hollow profile, the continuous fibres (16, 19) are applied at least to a predetermined portion of the outer surface of the metallic hollow profile, and the metallic hollow profile with the continuous fibres (16, 19) arranged thereon is introduced into a transfer mould, especially into a resin transfer moulding tool, and a plastics material matrix, especially a resin is applied at least in the portion in which the continuous fibres (16, 19) are arranged, and the plastics material matrix is then cured into a moulding, characterised in that - the continuous fibres (16, 19) are applied to the predetermined portion of the metallic hollow profile in that the continuous fibres (16, 19) are braided and/or wound around said portion, wherein at least during the application of the plastics material matrix, an internal pressure (P I) which counteracts an external transfer moulding pressure (P A) is generated in an inner cavity of the metallic hollow profile.
A gas turbine combustor comprising: an external cylinder; an inner cylinder provided inside the external cylinder to form an air passage between the external cylinder and the inner cylinder; a pilot nozzle provided in a center part of the inner cylinder along a direction of a combustor axis; a plurality of main nozzles provided on an inner peripheral surface of the inner cylinder along a circumferential direction (D1-D2) thereof so as to surround the pilot nozzle, wherein the plurality of main nozzles are arranged to premix fuel with combustion air introduced to the air passage and eject the fuel into the inner cylinder; and a plurality of top hat nozzles provided inside the air passage across a circumferential direction (D1-D2) to mix fuel with the combustion air prior to reaching the plurality of main nozzles, wherein the top hat nozzles comprise a plurality of fuel ejection ports from which the fuel is ejected and wherein the positions, from which the fuel is ejected, are varied in the direction to which the combustor axis extends, and wherein the top hat nozzles are disposed such that the positions thereof, as seen in a schematic view expanded along the circumferential direction (D1-D2) over a range (B1-B2) in the direction to which the combustor axis extends, are aligned on a quadratic curve along the circumferential direction (D1-D2). an external cylinder; an inner cylinder provided inside the external cylinder to form an air passage between the external cylinder and the inner cylinder; a pilot nozzle provided in a center part of the inner cylinder along a direction of a combustor axis; a plurality of main nozzles provided on an inner peripheral surface of the inner cylinder along a circumferential direction (D1-D2) thereof so as to surround the pilot nozzle, wherein the plurality of main nozzles are arranged to premix fuel with combustion air introduced to the air passage and eject the fuel into the inner cylinder; and a plurality of top hat nozzles provided inside the air passage across a circumferential direction (D1-D2) to mix fuel with the combustion air prior to reaching the plurality of main nozzles, wherein the top hat nozzles comprise a plurality of fuel ejection ports from which the fuel is ejected and wherein the positions, from which the fuel is ejected, are varied in the direction to which the combustor axis extends, and wherein the top hat nozzles are disposed such that the positions thereof, as seen in a schematic view expanded along the circumferential direction (D1-D2) over a range (B1-B2) in the direction to which the combustor axis extends, are aligned on a quadratic curve along the circumferential direction (D1-D2).
Method for feeding electric energy into an electric power supply network by means of a wind turbine, wherein - the wind turbine generates electric power from wind having a variable wind speed by means of an aerodynamic rotor and a generator and feeds it at least partially into the electric power supply network and/or uses it at least partially for powering electric devices of the wind turbine, wherein - the generated electric real power is set as a function of an ambient temperature and/or wherein - the rotor has a variable rotational speed and the rotational speed, is set as a function of the ambient temperature, and wherein - the rotational speed and/or the generated electric real power is reduced when the temperature falls below a first limit temperature and is reduced more and more as the temperature falls further, characterized in that the wind turbine is shut down when a second limit temperature is reached, which is less than the first limit temperature, or is operated in an operating state in which only as much power is generated as is required for powering the electric devices or a portion thereof, and the total generated electric power is used for powering the electric devices, wherein the wind turbine is prepared to feed-in reactive power and controls the feed-in of the reactive power as a function of the ambient temperature in such a way that the feed-in reactive power is reduced after the first limit temperature has been reached as the temperature falls further. - the wind turbine generates electric power from wind having a variable wind speed by means of an aerodynamic rotor and a generator and feeds it at least partially into the electric power supply network and/or uses it at least partially for powering electric devices of the wind turbine, - the generated electric real power is set as a function of an ambient temperature and/or wherein - the rotor has a variable rotational speed and the rotational speed, is set as a function of the ambient temperature, and wherein - the rotational speed and/or the generated electric real power is reduced when the temperature falls below a first limit temperature and is reduced more and more as the temperature falls further,
Printed circuit board for a radar system, comprising - a wave termination with a termination line, - a signal line, connected to said termination line, for transmitting a high-frequency signal, - a first substrate lamination, which is manufactured from a first material with a first loss factor, - a first layer, which is applied to the first substrate lamination and comprises the signal line, - a second substrate lamination, which is manufactured from a second material with a second loss factor, - a second layer, which is applied to the second substrate lamination and comprises the termination line, wherein the second loss factor is greater than the first loss factor, such that attenuation, damping or absorption of the signal is achieved in the wave termination in that said wave termination guides or conducts the signal from the comparatively low-loss first layer into the comparatively high-loss second layer. - a wave termination with a termination line, - a signal line, connected to said termination line, for transmitting a high-frequency signal, - a first substrate lamination, which is manufactured from a first material with a first loss factor, - a first layer, which is applied to the first substrate lamination and comprises the signal line, - a second substrate lamination, which is manufactured from a second material with a second loss factor, - a second layer, which is applied to the second substrate lamination and comprises the termination line,
A method for separating N,N,N'-trimethylbisaminoethylether and/or N,N-dimethylbisaminoethylether from a mixture A comprising N,N,N'-trimethylbisaminoethylether, N,N-dimethylbisaminoethylether and N,N,N',N'-tetramethylbisaminoethylether, wherein said method comprises the steps of: (a) contacting said mixture A with an acylating agent, to form a mixture B comprising N,N,N',N'-tetramethylbisaminoethylether and the amides of N,N,N'-trimethylbisaminoethylether, and N,N-dimethylbisaminoethylether, respectively; separating the amide of N,N,N'-trimethylbisaminoethylether from mixture B; and/or separating the amide of N,N-dimethylbisaminoethylether from said mixture B; and recovering N,N,N'-trimethylbisaminoethylether from its amide by means of a transamidation reaction; and/or recovering N,N-dimethylbisaminoethylether from its amide by means of a transamidation reaction. (a) contacting said mixture A with an acylating agent, to form a mixture B comprising N,N,N',N'-tetramethylbisaminoethylether and the amides of N,N,N'-trimethylbisaminoethylether, and N,N-dimethylbisaminoethylether, respectively; separating the amide of N,N,N'-trimethylbisaminoethylether from mixture B; and/or separating the amide of N,N-dimethylbisaminoethylether from said mixture B; and recovering N,N,N'-trimethylbisaminoethylether from its amide by means of a transamidation reaction; and/or recovering N,N-dimethylbisaminoethylether from its amide by means of a transamidation reaction.
A sorption micro-array (1; 16; 17; 18; 19) for sorbing a substance off an assay sample, comprising a support (11; 116; 117; 118; 119) and a plurality of sorption elements (14; 146; 147; 148; 149) being arranged in a well defined geometry in connection with the support (11; 116; 117; 118; 119), wherein the distance between each sorption element (14; 146; 147; 148; 149) and its adjacent sorption element (14; 146; 147; 148; 149) is predefined, the sorption micro-array (1; 16; 17; 18; 19) further comprising a plurality of tips (13; 136; 137; 138; 139) being connected to the support (11; 116; 117; 118; 119), with each sorption element (14; 146; 147; 148; 149) being arranged at an apex (131; 1316; 1317) of one of the tips (13; 136; 137; 138; 139), characterized in that the sorption micro-array (1; 16; 17; 18; 19) further comprises a plurality of cantilevers (12; 126; 127; 128; 129) each having a first longitudinal end region (121; 1216; 1217) and a second longitudinal end region (122; 1226; 1227), wherein each of the first end regions (121; 1216; 1217) is connected to the support (11; 116; 117; 118; 119) and each of the second end regions (122; 1226; 1227) is connected to one of the sorption elements (14; 146; 147; 148; 149) arranged at the apexes (131; 1316; 1317) of the tips (13; 136; 137; 138; 139).
Process for coating a float glass strip subsequent to the production process thereof, wherein the float glass strip is transported from a float glass tank through a transport device in which the float glass strip cools and/or is cooled and a coating operation is carried out in at least two groups of coating devices (4.1 to 4.n) arranged in succession along the transport device, wherein each of the groups comprises at least one coating device (4.1 to 4.n), characterized in that a coating operation is carried out by means of each of the groups in a region of the float glass strip in which a temperature of the float glass strip is in a temperature range which is different from the temperature ranges of the float glass strip in the region of the other group or groups, wherein adjacent temperature ranges selected for the coating operations have a difference of 50°C or more.