mhurhangee/ep-ind-claims huggingface dataset:
Support assembly for a rotating shaft, comprising a bearing unit adapted to receive the rotating shaft, a casing and a cover for fluid sealing an opening of an internal seat of the casing; the bearing unit comprising a radially outer ring, a radially inner ring and a row of rolling bodies between the radially outer ring and the radially inner ring; the support assembly also being provided with: - a rear sealing device, placed on the opposite side of the bearing unit with respect to the cover, and comprising a metal screen and a vulcanized rubber liner equipped with a first sealing lip axially outer and with a second sealing lip, axially inner; - a sealing device axially internal in direction towards the rear sealing device, with respect to the row of rolling bodies comprising a single screen provided with a vulcanized rubber liner having a plurality of sealing lips; the support assembly being characterized in that, from the opposite side of the bearing unit with respect to the cover, the radially inner ring is provided with a step reducing the thickness of the inner ring on its inner peripheral surface, the step extending with an overall length L1 in an axially internal direction towards the rear sealing device and on which it is accommodated a further shield, provided with a vulcanized rubber liner having a plurality of sealing lips. the bearing unit comprising a radially outer ring, a radially inner ring and a row of rolling bodies between the radially outer ring and the radially inner ring; the support assembly also being provided with: - a rear sealing device, placed on the opposite side of the bearing unit with respect to the cover, and comprising a metal screen and a vulcanized rubber liner equipped with a first sealing lip axially outer and with a second sealing lip, axially inner; - a sealing device axially internal in direction towards the rear sealing device, with respect to the row of rolling bodies comprising a single screen provided with a vulcanized rubber liner having a plurality of sealing lips; - a rear sealing device, placed on the opposite side of the bearing unit with respect to the cover, and comprising a metal screen and a vulcanized rubber liner equipped with a first sealing lip axially outer and with a second sealing lip, axially inner; - a sealing device axially internal in direction towards the rear sealing device, with respect to the row of rolling bodies comprising a single screen provided with a vulcanized rubber liner having a plurality of sealing lips; the support assembly being characterized in that, from the opposite side of the bearing unit with respect to the cover, the radially inner ring is provided with a step reducing the thickness of the inner ring on its inner peripheral surface, the step extending with an overall length L1 in an axially internal direction towards the rear sealing device and on which it is accommodated a further shield, provided with a vulcanized rubber liner having a plurality of sealing lips.
Built-in refrigeration appliance, in particular built-in household refrigeration appliance, having a thermally insulated inner container which forms a coolable storage compartment for items to be cooled, a door leaf provided for closing off the inner container and at least one fitting component, in particular for fastening a door front or a furniture front to the door leaf, wherein the fitting component has an accessory component and at least one holder for the accessory part, characterised in that the accessory part is a screw, with which the fitting component can either be connected to a door front or a furniture unit and which is secured to the holder to prevent loss, is assigned to the fitting component and is connected to the holder in a preinstalled manner.
A portable wireless charging module (100, 200, 300) for a vehicle comprising: a housing comprising a wireless charger unit and a charging surface for placing a device to be charged; an electrical connection plug fixedly connected to the housing on a side of the housing opposite the charging surface; wherein the plug is extending in a direction away from the charging surface; and wherein the charging module is configured such that the charging surface is horizontally aligned when in use, the charging module further comprising a holding element configured to hold an electronic device in place on the charging surface, wherein the holding element is a flexible element having a first portion protruding in a direction from the charging surface and a second portion, protruding from the first portion in parallel with and located at a distance from the charging surface for clamping an electronic device to the charging surface, wherein the charging module is characterized in that the flexibility of the holding element acts to provide a downwards force on the device when placed between the charging surface and the holding element, thereby clamping the device to the charging surface, and in that the holding element is provided with a high friction material of a lower side of the second portion which is in contact with the device when the device is clamped by the holding element. a housing comprising a wireless charger unit and a charging surface for placing a device to be charged; an electrical connection plug fixedly connected to the housing on a side of the housing opposite the charging surface; wherein the plug is extending in a direction away from the charging surface; and wherein the charging module is configured such that the charging surface is horizontally aligned when in use, the charging module further comprising a holding element configured to hold an electronic device in place on the charging surface, wherein the holding element is a flexible element having a first portion protruding in a direction from the charging surface and a second portion, protruding from the first portion in parallel with and located at a distance from the charging surface for clamping an electronic device to the charging surface, wherein the charging module is characterized in that the flexibility of the holding element acts to provide a downwards force on the device when placed between the charging surface and the holding element, thereby clamping the device to the charging surface, and in that the holding element is provided with a high friction material of a lower side of the second portion which is in contact with the device when the device is clamped by the holding element.
An apparatus for crimping a band of material, the apparatus comprising: a crimping portion comprising a first crimping roller rotatable about a first rotational axis and a second crimping roller rotatable about a second rotational axis, wherein the first and second crimping rollers (2, 3) are configured to allow the band of material to pass therebetween and towards an adjacent apparatus; and an adjustment portion configured to adjust the positions of both of the first and second rotational axes (A, B) relative to the position of the adjacent apparatus to thereby adjust the tension in the band of material between the crimping portion and the adjacent apparatus, wherein the adjustment portion is configured to translate both of the first and second rotational axes (A, B) relative to the adjacent apparatus to thereby adjust the tension in the band of material. a crimping portion comprising a first crimping roller rotatable about a first rotational axis and a second crimping roller rotatable about a second rotational axis, wherein the first and second crimping rollers (2, 3) are configured to allow the band of material to pass therebetween and towards an adjacent apparatus; and an adjustment portion configured to adjust the positions of both of the first and second rotational axes (A, B) relative to the position of the adjacent apparatus to thereby adjust the tension in the band of material between the crimping portion and the adjacent apparatus, wherein the adjustment portion is configured to translate both of the first and second rotational axes (A, B) relative to the adjacent apparatus to thereby adjust the tension in the band of material.
A method for acquiring control information, performed by a terminal, the method comprises: receiving control information corresponding to the terminal sent by a base station in a bandwidth part, BWP, at which the terminal works currently; the method being characterized in that it further comprises: receiving indication information sent by the base station, wherein the indication information is configured to indicate a standby bandwidth part, BWP, that is used when a BWP switching failure occurs, and the standby BWP indicated by the indication information is any of the BWP at which a terminal works currently, a BWP at which the terminal worked previously, and a preset BWP; switching to the standby BWP indicated by the indication information when detecting that the BWP switching failure occurs; and receiving control information corresponding to the terminal that is sent by the base station at the standby BWP indicated by the indication information, wherein the switching to the standby BWP indicated by the indication information when detecting that the BWP switching failure occurs comprises: switching to the standby BWP indicated by the indication information when a duration since last successful demodulation to the control information corresponding to the terminal reaches a first duration, wherein the method further comprises: receiving configuration information of the first duration that is sent by the base station via a broadcast signaling, an upper-layer signaling, or a physical-layer signaling. receiving indication information sent by the base station, wherein the indication information is configured to indicate a standby bandwidth part, BWP, that is used when a BWP switching failure occurs, and the standby BWP indicated by the indication information is any of the BWP at which a terminal works currently, a BWP at which the terminal worked previously, and a preset BWP; switching to the standby BWP indicated by the indication information when detecting that the BWP switching failure occurs; and receiving control information corresponding to the terminal that is sent by the base station at the standby BWP indicated by the indication information, wherein the switching to the standby BWP indicated by the indication information when detecting that the BWP switching failure occurs comprises: switching to the standby BWP indicated by the indication information when a duration since last successful demodulation to the control information corresponding to the terminal reaches a first duration, wherein the method further comprises: receiving configuration information of the first duration that is sent by the base station via a broadcast signaling, an upper-layer signaling, or a physical-layer signaling. switching to the standby BWP indicated by the indication information when a duration since last successful demodulation to the control information corresponding to the terminal reaches a first duration, wherein the method further comprises: receiving configuration information of the first duration that is sent by the base station via a broadcast signaling, an upper-layer signaling, or a physical-layer signaling.
Superconducting rotating machine comprising: - a stator comprising at least one electromagnetic coil or a permanent magnet, the stator not comprising any superconducting elements, - a rotor rotatable relative to the stator, supporting a superconducting element arranged opposite the coil or the permanent magnet of the stator, characterized by - a cryostat fixed with respect to the stator, comprising a vacuum-tight enclosure containing the rotor for maintaining the superconducting element at a cryogenic temperature, said enclosure comprising two shells (32, 33) extending radially with respect to the axis of rotation (XX') of the rotor and joined together along a surface parallel to the axis (XX') of rotation of the rotor, said shells being maintained in sealed contact by the pressure external to the cryostat when the cryostat is under vacuum. - a stator comprising at least one electromagnetic coil or a permanent magnet, the stator not comprising any superconducting elements, - a rotor rotatable relative to the stator, supporting a superconducting element arranged opposite the coil or the permanent magnet of the stator, - a cryostat fixed with respect to the stator, comprising a vacuum-tight enclosure containing the rotor for maintaining the superconducting element at a cryogenic temperature, said enclosure comprising two shells (32, 33) extending radially with respect to the axis of rotation (XX') of the rotor and joined together along a surface parallel to the axis (XX') of rotation of the rotor, said shells being maintained in sealed contact by the pressure external to the cryostat when the cryostat is under vacuum.
A segment routing-based data transmission method performed by a first network device, wherein the method comprises: • receiving (S 301) a first packet from a second network device, wherein the first packet comprises a first segment identifier, SID; • obtaining (S 302), based on the first SID, a first network slice identifier corresponding to the first network device; • generating (S 303) a second packet based on the first packet, wherein the second packet comprises the first network slice identifier, wherein ∘ in a first alternative, a flow label field in an internet protocol version 6, IPv6, packet header of the second packet comprises the first network slice identifier, or ∘ in a second alternative instead of the first alternative, a hop-by-hop, HBH, extension header of the second packet comprises the first network slice identifier; and • sending (S 304) the second packet. • receiving (S 301) a first packet from a second network device, wherein the first packet comprises a first segment identifier, SID; • obtaining (S 302), based on the first SID, a first network slice identifier corresponding to the first network device; • generating (S 303) a second packet based on the first packet, wherein the second packet comprises the first network slice identifier, wherein ∘ in a first alternative, a flow label field in an internet protocol version 6, IPv6, packet header of the second packet comprises the first network slice identifier, or ∘ in a second alternative instead of the first alternative, a hop-by-hop, HBH, extension header of the second packet comprises the first network slice identifier; and ∘ in a first alternative, a flow label field in an internet protocol version 6, IPv6, packet header of the second packet comprises the first network slice identifier, or ∘ in a second alternative instead of the first alternative, a hop-by-hop, HBH, extension header of the second packet comprises the first network slice identifier; and • sending (S 304) the second packet.
A mooring system for a photovoltaic floating platform comprising: - An outer floating structure comprising at least four connection ports; - An inner floating structure placed inside of the outer floating structure; - A rotating floating platform, supporting a photovoltaic system, connected to and placed inside of the inner floating structure, - A set of at least eight anchors attached to the at the least four connection ports of the outer floating structure by means of a flexible connection element; characterized by comprising: - The rotating floating platform comprises at least four rotation mechanism, causing the inner floating structure to rotate in solidarity with the rotating floating platform; - A central floating component placed in the center of the rotating floating platform, comprising an anchor to attach said component to the bottom of a basin; Wherein, the inner floating structure comprises at least four stabilizer tubes, installed underwater in its bottom surface, at equidistant points in said structure, said stabilizer tubes protruding outwards the outer floating structure. - An outer floating structure comprising at least four connection ports; - An inner floating structure placed inside of the outer floating structure; - A rotating floating platform, supporting a photovoltaic system, connected to and placed inside of the inner floating structure, - A set of at least eight anchors attached to the at the least four connection ports of the outer floating structure by means of a flexible connection element; - The rotating floating platform comprises at least four rotation mechanism, causing the inner floating structure to rotate in solidarity with the rotating floating platform; - A central floating component placed in the center of the rotating floating platform, comprising an anchor to attach said component to the bottom of a basin;
A method of altering the wettability of a subterranean formation comprising the steps of: providing a fracturing pad fluid that does not contain a proppant with a flowback enhancing agent; and introducing the fracturing pad fluid into a subterranean formation whereby the wettability of the formation is altered, wherein the FEA is selected from a group consisting of organosiloxane, organosilane, fluoro-organosiloxane, fluoro-organosilane, and fluorocarbon compounds. providing a fracturing pad fluid that does not contain a proppant with a flowback enhancing agent; and introducing the fracturing pad fluid into a subterranean formation whereby the wettability of the formation is altered, wherein the FEA is selected from a group consisting of organosiloxane, organosilane, fluoro-organosiloxane, fluoro-organosilane, and fluorocarbon compounds.
A vehicular ad-hoc network, VANET, comprising: a first vehicle having a plurality of directional antennas adapted to form directional radio links with antennas of neighbor vehicles; a first neighbor vehicle configured to transmit a data packet that is received by said first vehicle via a first directional antenna out of the plurality of directional antennas; wherein the first vehicle is configured to forward the data packet via at least a second directional antenna out of the plurality of directional antennas; and a second neighbor vehicle configured to receive said data packet forwarded by said first vehicle, wherein said first vehicle further comprises a switching unit to transfer the data packet between said first and second directional antennas; said network characterized in that the first vehicle is configured to receive the data packet from the first neighbor vehicle on at least one directional radio link, and the data packet comprises metadata including an antenna identifier of the first neighbor vehicle, a neighbor vehicle identifier, an initial location of the first neighbor vehicle, a hop count, a sequence number, and vehicle safety application attributes; and the switching unit is configured to generate and maintain a Switched Packet List, SPL, said SPL comprising, for each data packet received, a source identifier, a sequence number for the data packet, an acknowledgement status, and a cached copy of the data packet, wherein the switching unit is adapted to discard an incoming data packet if a record for said incoming data packet exists in the SPL. a first vehicle having a plurality of directional antennas adapted to form directional radio links with antennas of neighbor vehicles; a first neighbor vehicle configured to transmit a data packet that is received by said first vehicle via a first directional antenna out of the plurality of directional antennas; wherein the first vehicle is configured to forward the data packet via at least a second directional antenna out of the plurality of directional antennas; and a second neighbor vehicle configured to receive said data packet forwarded by said first vehicle, wherein said first vehicle further comprises a switching unit to transfer the data packet between said first and second directional antennas; said network characterized in that the first vehicle is configured to receive the data packet from the first neighbor vehicle on at least one directional radio link, and the data packet comprises metadata including an antenna identifier of the first neighbor vehicle, a neighbor vehicle identifier, an initial location of the first neighbor vehicle, a hop count, a sequence number, and vehicle safety application attributes; and the switching unit is configured to generate and maintain a Switched Packet List, SPL, said SPL comprising, for each data packet received, a source identifier, a sequence number for the data packet, an acknowledgement status, and a cached copy of the data packet, wherein the switching unit is adapted to discard an incoming data packet if a record for said incoming data packet exists in the SPL.
A method for determining excavating efficiency of a drilling process, comprising the steps of: - transferring energy, via a tool member (232, 234), to a material in which drilling is to be performed by means of a drilling configuration; - detecting waves, which are propagating in said tool member (232, 234) of said drilling configuration during drilling, via a detection unit arranged about the tool member (232, 234), wherein detecting said waves comprises inductive and/or capacitive detection performed by at least two pairs of sensor means (310:1; 310:2; 310:3; 310:4) symmetrically arranged in the detection unit, wherein each pair of sensor means (310:1; 310:2; 310:3; 310:4) comprises two sensor means (310:1; 310:2; 310:3; 310:4) arranged on mutually opposite sides of said tool member (232, 234), adjacent to, and on a certain distance from, said tool member (232, 234), and wherein detecting said waves comprises pairwise processing of said detection from each pair of sensor means (310:1; 310:2; 310:3; 310:4) of the at least two pairs of sensor means (310:1; 310:2; 310:3; 310:4), and - determining said excavating efficiency of said drilling process based on comparisons between original pressure waves and reflecting tensile waves in said tool member (232, 234), or based on characteristics of a few reoccurring tensile waves in said tool member (232, 234), when no strikes are provided by the drilling configuration. - transferring energy, via a tool member (232, 234), to a material in which drilling is to be performed by means of a drilling configuration; - detecting waves, which are propagating in said tool member (232, 234) of said drilling configuration during drilling, via a detection unit arranged about the tool member (232, 234), wherein detecting said waves comprises inductive and/or capacitive detection performed by at least two pairs of sensor means (310:1; 310:2; 310:3; 310:4) symmetrically arranged in the detection unit, wherein each pair of sensor means (310:1; 310:2; 310:3; 310:4) comprises two sensor means (310:1; 310:2; 310:3; 310:4) arranged on mutually opposite sides of said tool member (232, 234), adjacent to, and on a certain distance from, said tool member (232, 234), and wherein detecting said waves comprises pairwise processing of said detection from each pair of sensor means (310:1; 310:2; 310:3; 310:4) of the at least two pairs of sensor means (310:1; 310:2; 310:3; 310:4), and - determining said excavating efficiency of said drilling process based on comparisons between original pressure waves and reflecting tensile waves in said tool member (232, 234), or based on characteristics of a few reoccurring tensile waves in said tool member (232, 234), when no strikes are provided by the drilling configuration.
A circuit breaker, comprising a base and a cover plate, a first counterbore is formed in the front surface of the end to be wired of the base, a ring-shaped second counterbore is formed in the bottom surface of the end to be wired of the base, the front surface and the bottom surface being opposite to each other; characterized in that the ring-shaped second counterbore surrounds the outside of the circumferential wall of the first counterbore, so that a hollow lug boss, which is removable by appliance of an external force, is formed between the first counterbore and the second counterbore; when the circuit breaker is used for front-panel wiring, a terminal screw is placed in the first counterbore; when the circuit breaker is used for back-panel wiring, a terminal screw is placed in the second counterbore after the hollow lug boss is removed.