mhurhangee/ep-ind-claims huggingface dataset:
A method for a wireless device of reporting a channel quality indicator, CQI, the method comprising: receiving, in a wireless network comprising a carrier bandwidth of a first number of physical resource blocks, PRBs, a physical channel comprising a first PRB set with a bandwidth of a second number of PRBs, wherein the bandwidth of the second number of PRBs is less than the bandwidth of the first number of PRBs, wherein receiving the physical channel comprises receiving the physical channel via frequency hopping; determining a CQI that indicates a modulation and code rate of the physical channel that is used to transmit the physical channel with a transport block error probability not exceeding 0.1 when the physical channel is transmitted in the second number of PRBs of the first PRB set in a sub frame and at least part of a transport block is transmitted in the subframe; and transmitting (616, 716) a report to a network node, the report comprising the determined CQI. receiving, in a wireless network comprising a carrier bandwidth of a first number of physical resource blocks, PRBs, a physical channel comprising a first PRB set with a bandwidth of a second number of PRBs, wherein the bandwidth of the second number of PRBs is less than the bandwidth of the first number of PRBs, wherein receiving the physical channel comprises receiving the physical channel via frequency hopping; determining a CQI that indicates a modulation and code rate of the physical channel that is used to transmit the physical channel with a transport block error probability not exceeding 0.1 when the physical channel is transmitted in the second number of PRBs of the first PRB set in a sub frame and at least part of a transport block is transmitted in the subframe; and transmitting (616, 716) a report to a network node, the report comprising the determined CQI.
A connector (20, 20') comprising: a housing, the housing having a cavity formed along an insertion direction, the cavity having a pair of spaced apart slots and a shoulder formed in each slot, wherein a protrusion is defined between the slots of the housing; a terminal, the terminal configured to be inserted into the cavity, the terminal having a body portion, the body portion having a contacting portion extending along the insertion direction and a terminal securing portion extending along the insertion direction, the body portion having a pair of spaced apart rails extending at an angle from the body portion and configured to be aligned with the pair of slots formed in the cavity and to slide along the pair of slots upon insertion of the terminal into the cavity; a terminal position assurance, TPA, the TPA configured to be fixably attached to the housing, the TPA having a locking arm, the locking arm having a pair of spaced apart projections that are configured to be inserted into the pair of slots formed in the cavity of the housing; and wherein the rails formed on the terminal are positioned between the shoulder formed in the slots in the housing and the projections formed on the TPA along the insertion direction. a housing, the housing having a cavity formed along an insertion direction, the cavity having a pair of spaced apart slots and a shoulder formed in each slot, wherein a protrusion is defined between the slots of the housing; a terminal, the terminal configured to be inserted into the cavity, the terminal having a body portion, the body portion having a contacting portion extending along the insertion direction and a terminal securing portion extending along the insertion direction, the body portion having a pair of spaced apart rails extending at an angle from the body portion and configured to be aligned with the pair of slots formed in the cavity and to slide along the pair of slots upon insertion of the terminal into the cavity; a terminal position assurance, TPA, the TPA configured to be fixably attached to the housing, the TPA having a locking arm, the locking arm having a pair of spaced apart projections that are configured to be inserted into the pair of slots formed in the cavity of the housing; and wherein the rails formed on the terminal are positioned between the shoulder formed in the slots in the housing and the projections formed on the TPA along the insertion direction.
A machine that is self-propelled on a solid ground surface, comprising a hydraulic unit built on a chassis for operating the machine using a pumped hydraulic fluid as a power transmission medium, wherein the hydraulic unit consists of: a fluid tank provided for receiving the hydraulic fluid, and at least one connected feed pump (11, 12), preferably electrically driven, for withdrawing the hydraulic fluid therefrom and returning it via a fluid return line to the fluid tank, as well as a switching valve arrangement controllable between the feed pump (11, 12) and at least one rotationally and/or linearly driven consumer of the machine, which are arranged on the fluid tank, wherein the fluid tank is formed from a container which is open at the top, and wherein the feed pump (11, 12), the switching valve arrangement connected to it by means of a line, the connecting lines of the hydraulic unit components and a fluid filling opening are arranged as a unit on a closure plate which closes the container opening, wherein the closure plate is formed from a metallic material, preferably from structural steel and the container is formed as a single piece, characterised in that the container is manufactured from plastic using the rotary moulding or injection moulding process and the container is box-shaped and has a container end shaped according to a partial section of a wheel housing of the propelled machine.
A device, DEV, for dispensing a droplet of a fluid, FLU, onto the inner surface of a cap or onto the inner surface of a body of a capsule; the device, DEV, comprises a cannula, a fluid dispensing cavity and a valve; the cannula is a tube with two ends which are both open; one of the two ends of the cannula dispenses the droplet of the fluid, FLU; the other end of the two ends of the cannula opens into the fluid dispensing cavity, the valve thereby is fluid connection via its outlet channel and then via the fluid dispensing cavity and then via the cannula with the open end of the cannula, and the fluid, FLU, flows from the valve via said fluid connection to the open end of the cannula; characterized in that the valve comprises an outlet channel which ends with an open end; the open end of the outlet channel of the valve opens into the fluid dispensing cavity. the device, DEV, comprises a cannula, a fluid dispensing cavity and a valve; the cannula is a tube with two ends which are both open; one of the two ends of the cannula dispenses the droplet of the fluid, FLU; the other end of the two ends of the cannula opens into the fluid dispensing cavity, the valve thereby is fluid connection via its outlet channel and then via the fluid dispensing cavity and then via the cannula with the open end of the cannula, and the fluid, FLU, flows from the valve via said fluid connection to the open end of the cannula; characterized in that the valve comprises an outlet channel which ends with an open end; the open end of the outlet channel of the valve opens into the fluid dispensing cavity.
Method for operating a resonance-measuring system, in particular a Coriolis mass flowmeter, wherein the resonance measuring system comprises at least one oscillation element (2a, 2b), at least one oscillation driver (3a, 3b, 3c) and at least one oscillation sensor (4a, 4b, 4c), wherein, in at least one control in at least one control loop (5a, 5b, 5c), the oscillation element (2a, 2b) is excited to oscillation in at least one eigenform by the oscillation driver (3a, 3b, 3c) excited by at least one excitation signal F i (t) and the excited oscillation of the oscillation element (2a, 2b) is detected by the oscillation sensor (4a, 4b, 4c) as at least one response signal y i (t), characterized in that at least one set variable of the closed loop (5a, 5b, 5c) is varied in a predetermined manner and at least one parameter of the excited eigenform is selectively identified by evaluating at least one resulting excitation signal F;(t) and/or at least one resulting response signal y i (t) with the help of a mathematical model of the resonance-measuring system, wherein the phase φ i between the excitation signal F i (t) and the response signal y i (t) of the respective eigenform is used as set variable of the closed control loop.
A device mount of a camera, the device mount comprising: a base including: a coupling portion configured to couple to the camera; and a hinge portion protruding from the coupling portion; and first and second finger members with opposed planar surfaces and apertures extending therethrough in a normal direction to the opposed planar surfaces, wherein the first and second finger members are rotatably coupled to the base about axes extending perpendicular to a direction that the apertures extend through the first and second fingers members, the first and second finger members corresponding to slots of a support mount on an external support such that the device mount and the support mount couple to each other. a base including: a coupling portion configured to couple to the camera; and a hinge portion protruding from the coupling portion; and a coupling portion configured to couple to the camera; and a hinge portion protruding from the coupling portion; and first and second finger members with opposed planar surfaces and apertures extending therethrough in a normal direction to the opposed planar surfaces, wherein the first and second finger members are rotatably coupled to the base about axes extending perpendicular to a direction that the apertures extend through the first and second fingers members, the first and second finger members corresponding to slots of a support mount on an external support such that the device mount and the support mount couple to each other.
A method performed by a base station in a wireless communication system, the method comprising: receiving, from a user equipment, a signal having a signal strength that is higher than a threshold value; identifying whether decoding of the signal fails; and characterised in that the method further comprises: identifying whether resources on which a portion of the signal is received are in an overlapped portion of a first resource region and a second resource region; skipping storage of the portion of the signal in a buffer in case that decoding of the signal fails and that the resources on which the portion of the signal is received are in the overlapped portion. receiving, from a user equipment, a signal having a signal strength that is higher than a threshold value; identifying whether decoding of the signal fails; and characterised in that the method further comprises: identifying whether resources on which a portion of the signal is received are in an overlapped portion of a first resource region and a second resource region; skipping storage of the portion of the signal in a buffer in case that decoding of the signal fails and that the resources on which the portion of the signal is received are in the overlapped portion. identifying whether resources on which a portion of the signal is received are in an overlapped portion of a first resource region and a second resource region; skipping storage of the portion of the signal in a buffer in case that decoding of the signal fails and that the resources on which the portion of the signal is received are in the overlapped portion.
An operating arrangement for operating a tunnel boring machine for constructing a tunnel in a ground, comprising - a feed drive, by means of which the tunnel boring machine can be advanced in the ground, - a tool drive, by means of which a mining tool of the tunnel boring machine can be driven in such a way that a successive removal of the ground is possible, - at least one fluid tank for storing a driving fluid, - at least one filtering arrangement for filtering the driving fluid, - at least one cooling arrangement for cooling the driving fluid, and - at least one control arrangement, by means of which the feed drive and/or the tool drive can be controlled, wherein at least the feed drive and the tool drive can be jointly arranged in a container, characterized by a second fluid tank, wherein the one fluid tank is assigned to the feed drive and the other fluid tank is assigned to the tool drive such that the feed drive and the tool drive interact with separate fluid tanks (8, 13), and wherein the tool drive and at least the fluid tank assigned thereto jointly form a tool driving module, which can be removed from the container in such a way that a functional connection between the tool drive and the fluid tank assigned thereto persists continuously. - a feed drive, by means of which the tunnel boring machine can be advanced in the ground, - a tool drive, by means of which a mining tool of the tunnel boring machine can be driven in such a way that a successive removal of the ground is possible, - at least one fluid tank for storing a driving fluid, - at least one filtering arrangement for filtering the driving fluid, - at least one cooling arrangement for cooling the driving fluid, and - at least one control arrangement, by means of which the feed drive and/or the tool drive can be controlled,
An optical and electrical distribution apparatus for use in an undersea communications system, the apparatus comprising: a watertight pressure-resistant case containing an electrical unit, an optical unit and a control unit, first, second and third connectors (21, 22, 25) suitable for respectively attaching first, second and third cables (3, 24) to the apparatus, the first, second and third connectors being arranged for connecting a respective electrical conductor of the first, second and third cables to the electrical unit and for connecting a respective optical conductor of the first, second and third cables to the optical unit, wherein the optical unit comprises an optical path for passing optical signals between the first and second connectors, an amplification module for amplifying the optical signals in the optical path, and at least one of an add module arranged for directing optical signals from the third connector to at least one of the first and second connectors and a drop module arranged for directing optical signals from at least one of the first and second connectors to the third connector and, wherein the electrical unit comprises a power supply module for supplying electrical power to the amplification module and the control unit, and an electric converter adapted to extract power from the first or second connector and to supply power at a controlled current or voltage to the third connector, wherein the electric converter is adapted to supply power to the third connector at a lower absolute voltage than an absolute voltage received at the first or second connector. a watertight pressure-resistant case containing an electrical unit, an optical unit and a control unit, first, second and third connectors (21, 22, 25) suitable for respectively attaching first, second and third cables (3, 24) to the apparatus, the first, second and third connectors being arranged for connecting a respective electrical conductor of the first, second and third cables to the electrical unit and for connecting a respective optical conductor of the first, second and third cables to the optical unit, wherein the optical unit comprises an optical path for passing optical signals between the first and second connectors, an amplification module for amplifying the optical signals in the optical path, and at least one of an add module arranged for directing optical signals from the third connector to at least one of the first and second connectors and a drop module arranged for directing optical signals from at least one of the first and second connectors to the third connector and, wherein the electrical unit comprises a power supply module for supplying electrical power to the amplification module and the control unit, and an electric converter adapted to extract power from the first or second connector and to supply power at a controlled current or voltage to the third connector, wherein the electric converter is adapted to supply power to the third connector at a lower absolute voltage than an absolute voltage received at the first or second connector.
A heat exchanger for heat exchange between a first fluid and at least one second fluid, comprising: a stack of primary plates forming at least one first channel for the first fluid and at least one second channel for the second fluid, wherein the primary plates comprise primary openings (104, 106) having a first cross-section, the primary openings (104, 106A) being configured to form first manifolds for enabling first fluid circulation in the first channels and second manifolds for enabling second fluid circulation in the second channels, characterized in that, the heat exchanger further comprises at least one secondary plate disposed between the consecutive stacks of primary plates, wherein the secondary plate comprises secondary openings having a second cross-section, wherein the secondary openings are complementary to and fluidically connected to the primary openings (104, 106) forming the first and second manifolds (104A, 104B), wherein the first cross-section is different than the second cross-section. a stack of primary plates forming at least one first channel for the first fluid and at least one second channel for the second fluid, wherein the primary plates comprise primary openings (104, 106) having a first cross-section, the primary openings (104, 106A) being configured to form first manifolds for enabling first fluid circulation in the first channels and second manifolds for enabling second fluid circulation in the second channels, characterized in that, the heat exchanger further comprises at least one secondary plate disposed between the consecutive stacks of primary plates, wherein the secondary plate comprises secondary openings having a second cross-section, wherein the secondary openings are complementary to and fluidically connected to the primary openings (104, 106) forming the first and second manifolds (104A, 104B), wherein the first cross-section is different than the second cross-section.
A machine for laying cables helically on the outside surface of a unit pipe element for transporting fluids, the machine comprising: - a rotary frame for centering about an axis of symmetry (X-X) of the unit pipe element, the frame supporting a plurality of winding elements designed to receive cables for laying on the unit pipe element, each winding element being situated in a respective plane that is substantially longitudinal relative to the unit pipe element and the planes being spaced apart from one another around the axis of symmetry of the unit pipe element; - means (82, 86) for adjusting the angle of inclination of each winding element relative to the longitudinal plane in which it is situated; - a linear travel stepper motor for moving the frame along the unit pipe element; and - a rotary travel stepper motor for causing the frame to turn about that axis of symmetry of the unit pipe element; each winding element comprising: - a storage reel having the cable for laying on the unit pipe element wound thereon: - an unwinding reel for receiving one end of the cable unwound from the storage reel in order to take it to the outside surface of the unit pipe element; - a guide system for guiding the cable unwound from the storage reel to the outside surface of the unit pipe element; and - a compression system for applying a compression force on the cable that has just been laid on the outside surface of the unit pipe element. - a rotary frame for centering about an axis of symmetry (X-X) of the unit pipe element, the frame supporting a plurality of winding elements designed to receive cables for laying on the unit pipe element, each winding element being situated in a respective plane that is substantially longitudinal relative to the unit pipe element and the planes being spaced apart from one another around the axis of symmetry of the unit pipe element; - means (82, 86) for adjusting the angle of inclination of each winding element relative to the longitudinal plane in which it is situated; - a linear travel stepper motor for moving the frame along the unit pipe element; and - a rotary travel stepper motor for causing the frame to turn about that axis of symmetry of the unit pipe element; - a storage reel having the cable for laying on the unit pipe element wound thereon: - an unwinding reel for receiving one end of the cable unwound from the storage reel in order to take it to the outside surface of the unit pipe element; - a guide system for guiding the cable unwound from the storage reel to the outside surface of the unit pipe element; and - a compression system for applying a compression force on the cable that has just been laid on the outside surface of the unit pipe element.
A detection system, said system comprising: a radar-unit, the radar-unit configured to detect objects proximate a host-vehicle; and a controller-circuit in communication with the radar-unit, the controller-circuit configured to determine a detection-distribution based on the radar-unit; the detection-distribution having a longitudinal-distribution of zero-range-rate detections associated with a trailer towed by the host-vehicle; the controller-circuit further configured to determine a trailer-classification, characterized in that the trailer-classification is based on a comparison of the detection-distribution and longitudinal-distribution-models stored in the controller-circuit; the trailer-classification is indicative of a dimension of the trailer; and the controller-circuit is configured to determine a trailer-length of the trailer based on the detection-distribution and the trailer-classification. a radar-unit, the radar-unit configured to detect objects proximate a host-vehicle; and a controller-circuit in communication with the radar-unit, the controller-circuit configured to determine a detection-distribution based on the radar-unit; the detection-distribution having a longitudinal-distribution of zero-range-rate detections associated with a trailer towed by the host-vehicle; the controller-circuit further configured to determine a trailer-classification, characterized in that the trailer-classification is based on a comparison of the detection-distribution and longitudinal-distribution-models stored in the controller-circuit; the trailer-classification is indicative of a dimension of the trailer; and the controller-circuit is configured to determine a trailer-length of the trailer based on the detection-distribution and the trailer-classification.
A wind turbine tower configured to support a wind turbine nacelle and a rotor, said tower having a generally cylindrical tower wall and extending in a longitudinal direction along and about a central longitudinal axis; wherein said tower wall has an inner surface and an outer surface; and wherein a tower wall thickness extends between said inner surface and said outer surface in a radial direction from said central longitudinal axis; wherein said tower is tethered by a number of cables; wherein each cable extends between a first end anchored to an anchoring element and an opposite, second end attached to said tower at an attachment element; and wherein two cables extending from two different anchoring elements are attached to the tower such that longitudinal projection lines from said second ends of two said cables converge at a convergence point; and wherein said convergence point lies at a location at a height and inside the tower wall thickness or inside the tower within a distance of three wall thicknesses from the wall inner surface as measured at the height and in a direction perpendicular to said central longitudinal axis.