mhurhangee/ep-ind-claims huggingface dataset:
A light source device comprising a plurality of aligned light sources and a lens being configured to output light, emitted by the plurality of aligned light sources (211 - 214), with uniform light distribution, the lens comprising: a lens body having a first surface which is flat and has an incident hole formed therein, and a second surface which is convex and opposite the first surface; and a plurality of incident surfaces (330; 331, 332) which are recessed from the incident hole toward the convex surface; the lens characterized in that each of the plurality of incident surfaces (330; 331, 332) is formed corresponding to a respective light source of the plurality of aligned light sources (211 - 214) with a predetermined concave surface profile having a vertex, wherein the number of incident surfaces (330; 331, 332) is equal to the number of light sources (211 - 214), wherein an optical axis of each of the plurality of aligned light sources (211 - 214) passes through the vertex of a corresponding incident surface of the plurality of incident surfaces (330; 331, 332). a lens body having a first surface which is flat and has an incident hole formed therein, and a second surface which is convex and opposite the first surface; and a plurality of incident surfaces (330; 331, 332) which are recessed from the incident hole toward the convex surface; the lens characterized in that each of the plurality of incident surfaces (330; 331, 332) is formed corresponding to a respective light source of the plurality of aligned light sources (211 - 214) with a predetermined concave surface profile having a vertex, wherein the number of incident surfaces (330; 331, 332) is equal to the number of light sources (211 - 214), wherein an optical axis of each of the plurality of aligned light sources (211 - 214) passes through the vertex of a corresponding incident surface of the plurality of incident surfaces (330; 331, 332).
An upright refrigerated merchandising cabinet comprising an insulated casing forming a product display chamber, refrigeration apparatus for generating and delivering a cold airstream through the product display chamber for cooling the product display chamber, at least one access door mounted at a front of the casing to provide access to an interior of the product display chamber, each access door being mounted on the casing by means of an inner frame forming an integral part of the casing and defining an access opening at the front of the casing, and a complementary outer frame which is demountably engaged with the inner frame, the or each access door being mounted on the outer frame wherein the inner frame includes at least one mullion sub-dividing the access opening at the front of the casing into two or more door openings, characterised in that each mullion comprises an insulation foam filled plastics outer shell with metal reinforcement (43,44), and wherein the metal reinforcement comprises a steel stiffener (43, 44) mounted at an inner wall of the mullion, wherein the steel stiffener (43, 44) has a T-shape, having a flat head portion mounted against the inner wall and a forwardly extending flange on the head portion
Isolated nucleic acids which code for a polypeptide with delta-4 desaturase activity, selected from the group of a) a nucleic acid sequence with the sequence shown in SEQ ID NO: 1, b) nucleic acid sequences which, as the result of the degenerate genetic code, can be derived from the coding sequence present in SEQ ID NO: 1 or c) derivatives of the nucleic acid sequence shown in SEQ ID NO: 1 which code for polypeptides with the amino acid sequences shown in SEQ ID NO: 2 and which have at least 70% identity with SEQ ID NO: 2 at the amino acid level and which can bring about the conversion of the following fatty acids into their delta-4 desaturated products; 22:5 delta-7, 10, 13, 16, 19 22:4 delta-7, 10, 13, 16 16:3 delta-7, 10, 13 16:1 delta 7. a) a nucleic acid sequence with the sequence shown in SEQ ID NO: 1, b) nucleic acid sequences which, as the result of the degenerate genetic code, can be derived from the coding sequence present in SEQ ID NO: 1 or c) derivatives of the nucleic acid sequence shown in SEQ ID NO: 1 which code for polypeptides with the amino acid sequences shown in SEQ ID NO: 2 and which have at least 70% identity with SEQ ID NO: 2 at the amino acid level and which can bring about the conversion of the following fatty acids into their delta-4 desaturated products; 22:5 delta-7, 10, 13, 16, 19 22:4 delta-7, 10, 13, 16 16:3 delta-7, 10, 13 16:1 delta 7. 22:5 delta-7, 10, 13, 16, 19 22:4 delta-7, 10, 13, 16 16:3 delta-7, 10, 13 16:1 delta 7.
A storage unit for biological samples, with a horizontal main footprint and a plurality of storage compartments, which are at least partially separated from one another by partitions and are enclosed by a peripheral frame, wherein the partitions and the peripheral frame are part of the storage unit and are disposed perpendicular to the main footprint, and wherein the storage compartments have both a first opening as well as a second opening, wherein the storage compartments comprise retention means and a biopsy cassette or a glass slide can be inserted into each compartment against a sliding resistance of the retention means through the first opening and through the second opening into such a storage compartment, characterized in that the storage compartments are tailored to the shape of a biopsy cassette or to the shape of a glass slide and at least one of the storage compartments comprises such a biopsy cassette or such a glass slide and the retention means are configured in a manner so as to prevent the vertically standing biopsy cassettes or glass slides from falling out through the first opening and from falling out through the second opening, wherein the retention means are configured in a manner such that the first opening and the second opening are kept open.
Flat-roof support for permanently supporting on a flat roof an object to be mounted fixedly above the flat roof, such as for example technical building equipment or a roof terrace, wherein the flat-roof support has a foot for support on the flat roof, wherein the flat-roof support has a head for supporting the object, wherein the flat-roof support comprises a lower pipe element and an upper pipe element, which is formed separately from the lower pipe element, wherein the foot of the flat-roof support is arranged on the lower pipe element, wherein the head of the flat-roof support is arranged on the upper pipe element, wherein the lower pipe element has an upper pipe-element end which is directed away from the foot, wherein the upper pipe element has a lower pipe-element end which is directed away from the head, wherein the lower pipe element is open at its upper pipe-element end, wherein the upper pipe element is open at its lower pipe-element end, wherein the flat-roof support comprises a connecting device for connecting the lower pipe element to the upper pipe element, wherein the lower pipe element is connectable by means of the connecting device to the upper pipe element in such a way that the lower pipe element and the upper pipe element delimit a common cavity, wherein the flat-roof support has an inner insulation element for thermal insulation, and in that the inner insulation element is arranged both in the upper pipe element and in the lower pipe element, characterized in that the inner insulation element protrudes from the lower pipe element in such a way that, when the lower pipe element is connected to the upper pipe element, the upper pipe element can be fitted over the inner insulation element.
An installation system for a sanitary fitting, comprising a built-in box to be mounted in a wall for connecting the sanitary fitting to water pipes, which has a circumferential side wall defining an installation opening on a front side of the built-in box and which has a height, and a rosette carrier for later covering the installation opening, wherein the installation system comprises a mounting lid completely closing the installation opening of the built-in box and having a circumferential edge running parallel to the side wall, wherein the mounting lid, with a protective section of the edge, projects beyond the installation opening in a mounting position covering the installation opening, so that, when mounting the built-in box in the wall, the wall can be formed up to the protective section of the mounting lid, characterized in that the mounting lid can be removed from the built-in box prior to the installation of the sanitary fitting for releasing the installation opening and in that, after removal of the mounting lid, the rosette carrier can be brought into contact by means of a seal with the side wall of the installation box at a distance to the installation opening specified by an installation depth of the built-in box in the wall, and wherein the rosette carrier, with a circumferential wall section, covers the circumferential edge of the wall between wall surface and installation opening released by the removed mounting lid.
Arrangement with at least two peripheral units (1, 2) and with a sensor, wherein each of the peripheral units (1, 2) is provided with - a connection (5, 6) for connecting the sensor to a supply voltage, - a sensor input (10, 11) for connecting the sensor, - a measuring resistor (12, 13) for acquiring a sensor current that represents a signal state and - a switchover facility (14, 16; 15, 17) which is embodied to connect the sensor input (10, 11) with low or high impedance as a function of a switchover signal or a further switchover signal, characterised in that - the peripheral units (1, 2) are connected to one another by means of a communication line, - each of the peripheral units (1, 2) is embodied - to generate the switchover signal or receive the same from the other peripheral unit (1, 2) via the communication line and - to receive the further switchover signal from a control unit for presetting the respective peripheral unit (1, 2) as a master or as a slave unit, wherein the sensor input of the master unit is connected with low impedance and the sensor input of the slave unit is connected with high impedance. - a connection (5, 6) for connecting the sensor to a supply voltage, - a sensor input (10, 11) for connecting the sensor, - a measuring resistor (12, 13) for acquiring a sensor current that represents a signal state and - a switchover facility (14, 16; 15, 17) which is embodied to connect the sensor input (10, 11) with low or high impedance as a function of a switchover signal or a further switchover signal, characterised in that - the peripheral units (1, 2) are connected to one another by means of a communication line, - each of the peripheral units (1, 2) is embodied - to generate the switchover signal or receive the same from the other peripheral unit (1, 2) via the communication line and - to receive the further switchover signal from a control unit for presetting the respective peripheral unit (1, 2) as a master or as a slave unit, wherein the sensor input of the master unit is connected with low impedance and the sensor input of the slave unit is connected with high impedance. - to generate the switchover signal or receive the same from the other peripheral unit (1, 2) via the communication line and - to receive the further switchover signal from a control unit for presetting the respective peripheral unit (1, 2) as a master or as a slave unit, wherein the sensor input of the master unit is connected with low impedance and the sensor input of the slave unit is connected with high impedance.
A method for wireless communication, comprising: obtaining a data stream comprising data to be transmitted on one or more uplink channels (230, 240, 250), each of the one or more uplink channels (230, 240, 250) comprising a number of allocated interlaces (315, 320, 325, 715, 720, 725, 915, 920, 925, 1115, 1120, 1125) for an uplink transmission over a shared radio frequency spectrum band, wherein each of the number of allocated interlaces (315, 320, 325, 715, 720, 725, 915, 920, 925, 1115, 1120, 1125) comprises one or more resource blocks (330, 730, 930, 1130) of the shared radio frequency spectrum band; selecting the one or more resource blocks (330, 730, 930, 1130) of the number of interlaces (315, 320, 325, 715, 720, 725, 915, 920, 925, 1115, 1120, 1125) so that the selected resource blocks (330, 730, 930, 1130) span at least a desired percentage of an available bandwidth of the shared radio frequency spectrum band; separating the data stream to provide one or more separated data streams for the number of allocated interlaces (315, 320, 325, 715, 720, 725, 915, 920, 925, 1115, 1120, 1125); and mapping at least one of the one or more separated data streams onto a plurality of resource elements (335, 735, 935, 1135) of the selected resource blocks (330, 730, 930, 1130) associated with the number of allocated interlaces (315, 320, 325, 715, 720, 725, 915, 920, 925, 1115, 1120, 1125). obtaining a data stream comprising data to be transmitted on one or more uplink channels (230, 240, 250), each of the one or more uplink channels (230, 240, 250) comprising a number of allocated interlaces (315, 320, 325, 715, 720, 725, 915, 920, 925, 1115, 1120, 1125) for an uplink transmission over a shared radio frequency spectrum band, wherein each of the number of allocated interlaces (315, 320, 325, 715, 720, 725, 915, 920, 925, 1115, 1120, 1125) comprises one or more resource blocks (330, 730, 930, 1130) of the shared radio frequency spectrum band; selecting the one or more resource blocks (330, 730, 930, 1130) of the number of interlaces (315, 320, 325, 715, 720, 725, 915, 920, 925, 1115, 1120, 1125) so that the selected resource blocks (330, 730, 930, 1130) span at least a desired percentage of an available bandwidth of the shared radio frequency spectrum band; separating the data stream to provide one or more separated data streams for the number of allocated interlaces (315, 320, 325, 715, 720, 725, 915, 920, 925, 1115, 1120, 1125); and mapping at least one of the one or more separated data streams onto a plurality of resource elements (335, 735, 935, 1135) of the selected resource blocks (330, 730, 930, 1130) associated with the number of allocated interlaces (315, 320, 325, 715, 720, 725, 915, 920, 925, 1115, 1120, 1125).
A method, comprising: generating a test signal in a downlink band; radiating, by a first remote unit in a distributed antenna system, the test signal; receiving, by a second remote unit in the distributed antenna system, the test signal; determining an isolation level based on the test signal; and determining a network resource allocation plan for the first remote unit and the second remote unit based on the isolation level, the network resource allocation plan including an allocation of network resources among the first remote unit and the second remote unit; determining whether the isolation level exceeds an isolation threshold indicating a minimum isolation level between the first remote unit and the second remote unit; receive copies of a first same signal using the same network resources at the first remote unit and the second remote unit when the isolation level exceeds the isolation threshold; and radiate copies of a second same signal from the first remote unit and the second remote unit when the isolation level does not exceed the isolation threshold. generating a test signal in a downlink band; radiating, by a first remote unit in a distributed antenna system, the test signal; receiving, by a second remote unit in the distributed antenna system, the test signal; determining an isolation level based on the test signal; and determining a network resource allocation plan for the first remote unit and the second remote unit based on the isolation level, the network resource allocation plan including an allocation of network resources among the first remote unit and the second remote unit; determining whether the isolation level exceeds an isolation threshold indicating a minimum isolation level between the first remote unit and the second remote unit; receive copies of a first same signal using the same network resources at the first remote unit and the second remote unit when the isolation level exceeds the isolation threshold; and radiate copies of a second same signal from the first remote unit and the second remote unit when the isolation level does not exceed the isolation threshold.
A body state detecting apparatus for detecting a body state of a subject on a bed, the apparatus comprising: a plurality of load detectors arranged to be placed in the bed or under feet of the bed and configured to detect a load variation depending on a respiration of the subject; and a body state detecting unit (32, 33) configured to determine a head placement of the subject based on the detected load variation depending on the respiration of the subject, wherein the body state detecting unit (32, 33) is configured to determine the head placement of the subject based on a shape of a wave corresponding to one respiration cycle included in a waveform exhibiting the detected load variation depending on the respiration of the subject. a plurality of load detectors arranged to be placed in the bed or under feet of the bed and configured to detect a load variation depending on a respiration of the subject; and a body state detecting unit (32, 33) configured to determine a head placement of the subject based on the detected load variation depending on the respiration of the subject, wherein the body state detecting unit (32, 33) is configured to determine the head placement of the subject based on a shape of a wave corresponding to one respiration cycle included in a waveform exhibiting the detected load variation depending on the respiration of the subject.
Casing for devices (2, 4, 6, 8, 12) mounted side by side on a rail, especially a series-manufactured electronic casing, wherein the casing comprises a first casing part (2A, 6A, 12A), by means of which the device (2, 4, 6, 8, 12) can be mounted on the rail, wherein the first casing part (2A, 6A, 12A) comprises at least two mounting devices for fixing each respective coupling module (20, 24, 70, 74) to the first casing part (2A, 6A, 12A), and wherein either a coupling module (20, 70) for coupling energy supply cables between two devices (2, 4, 6, 8, 12) arranged adjacent to each other on the rail or a coupling module (24, 74) for coupling signal cables between two devices (2, 4, 6, 8, 12) can be fixed to the at least two mounting devices, preferably spaced apart from one another in the first casing part (2A, 6A, 12A), wherein the second casing comprises a second casing part (2b, 6b), wherein the second casing part (2b, 6b) can be detachably connected to the first casing part (2a, 6a, 12a) by an elastically deflectable latching means, characterised in that deflection of the latching means can be blocked by a blocking element mounted on the second casing part (2b, 6b) such that it can move, thus securing the connected status of the second casing part (2b, 6b) to the first casing part (2a, 6a, 12a), and in that the blocking element is mounted in the second casing part such that it can be displaced.
A computing system comprising: a storage device to store a boot version number - SV - corresponding to a portion of a non-volatile memory; and NVM controller logic, coupled to the non-volatile memory, to cause an update of a current boot version number - CV- in response to each subsequent boot, wherein the NVM controller logic is to return a zero for data in response to a read operation directed at the portion of the non-volatile memory and a mismatch between the stored boot version number - SV - and the current boot version number, and wherein the stored boot version number is modified to the current boot version number in response to a write operation to the portion of the non-volatile memory. a storage device to store a boot version number - SV - corresponding to a portion of a non-volatile memory; and NVM controller logic, coupled to the non-volatile memory, to cause an update of a current boot version number - CV- in response to each subsequent boot, wherein the NVM controller logic is to return a zero for data in response to a read operation directed at the portion of the non-volatile memory and a mismatch between the stored boot version number - SV - and the current boot version number, and wherein the stored boot version number is modified to the current boot version number in response to a write operation to the portion of the non-volatile memory.
Insulation displacement contact device for electrically connecting a cable with a jacket and a conductor, which insulation displacement contact device comprises a blade element with opposite blades (4.1, 4.2; 6.1, 6.2), which blades (4.1, 4.2; 6.1, 6.2) each have a cutting edge, which cutting edges terminate into a contact slot (8, 10) defined between the blades (4.1, 4.2; 6.1, 6.2), a U-shaped biasing element which encompasses the blade element to enhance a contact force of the conductor received within the contact slot (8, 10) and which is slidably held by the blade element in a sliding direction essentially parallel to the contact slot (8, 10), wherein the biasing element comprises opposing legs encompassing the blade element and a base, which extends across the blade element and is projected by the legs, wherein a transition between the base and each leg defines an elastic deformation storing zone and wherein each leg defines a pressing zone (p), the elastic deformation storing zone being configured to store an elastic deformation caused by the cable being forced into the contact slot (8, 10) by the base of the biasing element when the biasing element is slid towards the contact slot (8, 10), characterized in that the insulation displacement contact device comprises spreading means adapted to cooperate with the outer circumference of the jacket of the cable, which spreading means are assigned to the blades (4.1, 4.2; 6.1, 6.2) for spreading a width of the contact slot (8,10).
Use of a device composed of a chain-stitch sewing machine with - an arm which includes the sewing needle drive for a sewing needle, - a reel with a thread whose end can be guided with the sewing needle, - a support for the material to be sewn, with a thread gripper which chain-stitches the thread after the material is pierced through with the needle, and - a feed device for the material, characterized in that the device comprises a support tube over which the vascular prosthesis in compressed form can be pushed, for generating a deliberate and permanent curvature on an artificial vascular prosthesis, wherein for generating the curvature at least one longitudinal seam gathers the prosthesis wall while preserving an accordion-like structure and in the compacted state of the pleating in the longitudinal direction. - an arm which includes the sewing needle drive for a sewing needle, - a reel with a thread whose end can be guided with the sewing needle, - a support for the material to be sewn, with a thread gripper which chain-stitches the thread after the material is pierced through with the needle, and - a feed device for the material,