mhurhangee/patent-ind-claim-en huggingface dataset:
A control device comprising: a switch interface configured to communicate with one or more hardware switches ; a data plane interface configured to communicate with one or more data plane processors ; and processing circuitry configured to: detect characteristics of a plurality of packet streams received at the switch interface , and distribute the plurality of packet streams between the one or more hardware switches and software data plane components of the one or more data plane processors based on the detected characteristics of the plurality of packet streams, wherein at least one packet stream of the plurality of packet streams is distributed to the one or more hardware switches , wherein the detection of the characteristics includes to determine whether a packet stream of a plurality of packet streams is a simple packet stream based on processing power expected to be used by the respective packet stream, wherein a simple packet stream requires no central processing unit, CPU, machine cycles to be processed. a switch interface configured to communicate with one or more hardware switches ; a data plane interface configured to communicate with one or more data plane processors ; and processing circuitry configured to: detect characteristics of a plurality of packet streams received at the switch interface , and distribute the plurality of packet streams between the one or more hardware switches and software data plane components of the one or more data plane processors based on the detected characteristics of the plurality of packet streams, wherein at least one packet stream of the plurality of packet streams is distributed to the one or more hardware switches , wherein the detection of the characteristics includes to determine whether a packet stream of a plurality of packet streams is a simple packet stream based on processing power expected to be used by the respective packet stream, wherein a simple packet stream requires no central processing unit, CPU, machine cycles to be processed. detect characteristics of a plurality of packet streams received at the switch interface , and distribute the plurality of packet streams between the one or more hardware switches and software data plane components of the one or more data plane processors based on the detected characteristics of the plurality of packet streams, wherein at least one packet stream of the plurality of packet streams is distributed to the one or more hardware switches , wherein the detection of the characteristics includes to determine whether a packet stream of a plurality of packet streams is a simple packet stream based on processing power expected to be used by the respective packet stream, wherein a simple packet stream requires no central processing unit, CPU, machine cycles to be processed.
A thermoelectric element comprising: a first metal substrate ; a first resin layer disposed on the first metal substrate , and in direct contact with the first metal substrate ; a plurality of first electrodes disposed on the first resin layer ; a plurality of thermoelectric legs disposed on the plurality of first electrodes , a plurality of second electrodes disposed on the plurality of thermoelectric legs ; a second resin layer disposed on the plurality of second electrodes ; and the second metal substrate disposed on the second resin layer , wherein the first resin layer includes a polymer resin and an inorganic filler, wherein at least some side surfaces of the plurality of first electrodes are embedded in the first resin layer , wherein a thickness of the first resin layer disposed between two neighboring first electrodes in the plurality of first electrodes decreases from each of the side surfaces of the first electrodes to a center region between the two neighboring first electrodes. a first metal substrate ; a first resin layer disposed on the first metal substrate , and in direct contact with the first metal substrate ; a plurality of first electrodes disposed on the first resin layer ; a plurality of thermoelectric legs disposed on the plurality of first electrodes , a plurality of second electrodes disposed on the plurality of thermoelectric legs ; a second resin layer disposed on the plurality of second electrodes ; and the second metal substrate disposed on the second resin layer , wherein the first resin layer includes a polymer resin and an inorganic filler, wherein at least some side surfaces of the plurality of first electrodes are embedded in the first resin layer , wherein a thickness of the first resin layer disposed between two neighboring first electrodes in the plurality of first electrodes decreases from each of the side surfaces of the first electrodes to a center region between the two neighboring first electrodes.
A bundling device with a winding device for wrapping an elongated bundled material with an adhesive tape , with a rotatably mounted winding head , with two resiliently pre-tensioned pivoting jaws of the winding head for guiding the bundled material into the center of the winding head and for supporting the bundled material during the wrapping, wherein the pivoting jaws are designed as opposing pressure-exerting jaws in an opening of the winding head for introducing the bundled material , characterized in that the pressure-exerting jaws are mounted on one another and that the pressure-exerting jaws are mounted via a lever arrangement on the winding head .
Turbine blade comprising: - a blade tip , - a cooling structure comprising cooling ducts which are configured to have a cooling fluid flowing through them during operation in order to cool the turbine blade , - an end portion that is recessed with respect to the blade tip , and - an outer wall portion which extends as far as the blade tip , wherein the cooling structure is formed between the end portion and the blade tip such that the cooling structure extends from the end portion as far as the blade tip , characterized in that the cooling structure comprises a lattice structure, which forms the cooling ducts . - a blade tip , - a cooling structure comprising cooling ducts which are configured to have a cooling fluid flowing through them during operation in order to cool the turbine blade , - an end portion that is recessed with respect to the blade tip , and - an outer wall portion which extends as far as the blade tip , wherein the cooling structure is formed between the end portion and the blade tip such that the cooling structure extends from the end portion as far as the blade tip , characterized in that the cooling structure comprises a lattice structure, which forms the cooling ducts .
A washing machine comprising: a main body ; a drum which is rotatably provided inside the main body for receiving laundry; a plurality of patterns formed on a circumferential inner surface of the drum ; and a plurality of lifters disposed on the inner surface of the drum ; wherein each of the patterns comprises: a plurality of protrusion portions protruding towards one side of the drum , the protrusion portions being arranged concentrically so that the plurality of the protrusion portions have a concentric structure in which the same shapes are repeated about a centre (C1); and; a recessed portion between the protrusion portions which is recessed into the other side of the drum ; and a plurality of drain holes disposed at the recessed portion , wherein each of the lifters is disposed between adjacent ones of the plurality of patterns , wherein the washing machine is characterized in that the protrusion portions protrude in an asymmetric shape. a main body ; a drum which is rotatably provided inside the main body for receiving laundry; a plurality of patterns formed on a circumferential inner surface of the drum ; and a plurality of lifters disposed on the inner surface of the drum ; wherein each of the patterns comprises: a plurality of protrusion portions protruding towards one side of the drum , the protrusion portions being arranged concentrically so that the plurality of the protrusion portions have a concentric structure in which the same shapes are repeated about a centre (C1); and; a recessed portion between the protrusion portions which is recessed into the other side of the drum ; and a plurality of drain holes disposed at the recessed portion , wherein each of the lifters is disposed between adjacent ones of the plurality of patterns , wherein the washing machine is characterized in that the protrusion portions protrude in an asymmetric shape. a plurality of protrusion portions protruding towards one side of the drum , the protrusion portions being arranged concentrically so that the plurality of the protrusion portions have a concentric structure in which the same shapes are repeated about a centre (C1); and; a recessed portion between the protrusion portions which is recessed into the other side of the drum ; and a plurality of drain holes disposed at the recessed portion , wherein each of the lifters is disposed between adjacent ones of the plurality of patterns , wherein the washing machine is characterized in that the protrusion portions protrude in an asymmetric shape.
A user equipment, UE, in a wireless communication system, the UE comprising: a transceiver ; and at least one processor coupled to the transceiver, and configured to: receive a transmission of reference signals and a downlink data burst in subframes 0 and 5 within a discovery signals measurement timing configuration, DMTC, period, from an eNodeB, eNB, operating in a cell over an unlicensed spectrum band; and transmit, to the eNB, a channel state information, CSI, measurement report obtained based on the reference signals , wherein the reference signals are transmitted based on a channel sensing on the unlicensed spectrum band, wherein each of the reference signals comprises at least one of a cell-specific reference signal, CRS, or a CSI-RS, wherein the reference signals are received at a first detected occasion in a subframe containing a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a CRS. a transceiver ; and at least one processor coupled to the transceiver, and configured to: receive a transmission of reference signals and a downlink data burst in subframes 0 and 5 within a discovery signals measurement timing configuration, DMTC, period, from an eNodeB, eNB, operating in a cell over an unlicensed spectrum band; and transmit, to the eNB, a channel state information, CSI, measurement report obtained based on the reference signals , wherein the reference signals are transmitted based on a channel sensing on the unlicensed spectrum band, wherein each of the reference signals comprises at least one of a cell-specific reference signal, CRS, or a CSI-RS, wherein the reference signals are received at a first detected occasion in a subframe containing a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a CRS. receive a transmission of reference signals and a downlink data burst in subframes 0 and 5 within a discovery signals measurement timing configuration, DMTC, period, from an eNodeB, eNB, operating in a cell over an unlicensed spectrum band; and transmit, to the eNB, a channel state information, CSI, measurement report obtained based on the reference signals , wherein the reference signals are transmitted based on a channel sensing on the unlicensed spectrum band, wherein each of the reference signals comprises at least one of a cell-specific reference signal, CRS, or a CSI-RS, wherein the reference signals are received at a first detected occasion in a subframe containing a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a CRS.
An apparatus for producing a filter element , comprising a picker arm , a slide , and at least one heated metal pin , characterized in that the picker arm has a plurality of grooves , each groove being configured to hold a hollow fiber membrane having an outer diameter which is larger than 3 mm and smaller than 4.5 mm, and being in fluid connection with a suction device; the picker arm is mounted on a moveable block and is rotatable around its longitudinal axis (C), around a horizontal axis (A) of the moveable block which is perpendicular to the longitudinal axis (C) of the picker arm , and moved in a vertical direction (Z) with the moveable block ; the slide is moveable in a horizontal direction (X) and is configured to receive a fiber cartridge holding a plurality of hollow fiber membranes having an outer diameter which is larger than 3 mm and smaller than 4.5 mm arranged in parallel and oriented in a direction perpendicular to the horizontal direction (X); the at least one heated metal pin has a conical shape, the maximum diameter of the heated metal pin being larger than the inner diameter of the hollow fiber membranes having an outer diameter which is larger than 3 mm and smaller than 4.5 mm, the at least one heated metal pin being moveable in a vertical direction (Z1) and, optionally, in a horizontal direction (X1). the picker arm has a plurality of grooves , each groove being configured to hold a hollow fiber membrane having an outer diameter which is larger than 3 mm and smaller than 4.5 mm, and being in fluid connection with a suction device; the picker arm is mounted on a moveable block and is rotatable around its longitudinal axis (C), around a horizontal axis (A) of the moveable block which is perpendicular to the longitudinal axis (C) of the picker arm , and moved in a vertical direction (Z) with the moveable block ; the slide is moveable in a horizontal direction (X) and is configured to receive a fiber cartridge holding a plurality of hollow fiber membranes having an outer diameter which is larger than 3 mm and smaller than 4.5 mm arranged in parallel and oriented in a direction perpendicular to the horizontal direction (X); the at least one heated metal pin has a conical shape, the maximum diameter of the heated metal pin being larger than the inner diameter of the hollow fiber membranes having an outer diameter which is larger than 3 mm and smaller than 4.5 mm, the at least one heated metal pin being moveable in a vertical direction (Z1) and, optionally, in a horizontal direction (X1).
Method of moulding a composite component, comprising: - a step of positioning a geotextile layer on a mould so that an underside of the geotextile layer is positioned against the mould; - a first step of coating with a biodegradable resin a top face of the geotextile layer positioned during the positioning step; - a step of bonding a layer of fibres, whose rigidity is higher than that of the geotextile layer, onto the coated geotextile layer; and - a second step of coating with a biodegradable resin a top face of the layer of fibres. - a step of positioning a geotextile layer on a mould so that an underside of the geotextile layer is positioned against the mould; - a first step of coating with a biodegradable resin a top face of the geotextile layer positioned during the positioning step; - a step of bonding a layer of fibres, whose rigidity is higher than that of the geotextile layer, onto the coated geotextile layer; and - a second step of coating with a biodegradable resin a top face of the layer of fibres.
A shoe comprising an upper, a blood flow stimulating element, and a sole element , the upper being operable to enable offloading of the foot, the sole retaining a fluid pump , a fluid reservoir operable to receive fluid at an elevated pressure from the pump via a first valve and a second valve operable to activate the blood flow stimulating element under control of a control processor , the control processor being operable to receive two or more input signals from two or more sensors, wherein the blood flow stimulating element operates following receipt of two or more signals from said sensors, and in dependence upon a period of time since the last operation of the blood flow stimulating element; wherein the blood flow stimulating element comprises a bladder and wherein the bladder operates to abut gently against a plantar plexus of the under-sole of a wearer of the shoe, whereby to assist in venous and arterial drainage of the foot.
Method for operating an Ethernet on-board electrical system of a motor vehicle , characterized in that the following steps are carried out in said method: - determining a connection delay of a first signal on a first connection path between a first control unit of the Ethernet on-board electrical system and a second control unit of the Ethernet on-board electrical system ; - determining a maximum speed of the first connection path on the basis of the connection delay ; and - determining a transmission medium of the first connection path on the basis of the connection delay and the maximum speed . - determining a connection delay of a first signal on a first connection path between a first control unit of the Ethernet on-board electrical system and a second control unit of the Ethernet on-board electrical system ; - determining a maximum speed of the first connection path on the basis of the connection delay ; and - determining a transmission medium of the first connection path on the basis of the connection delay and the maximum speed .
Method of controlling a welding system comprising: - loading data from a memory circuitry relating to the input arc parameters and input system parameters; - controlling a weld current supplied to an electrode at a current ramp rate; - sensing the controlled weld current and the changing arc voltage; characterized by - determining a resistance of the electrode based at least in part on the sensed controlled weld current and a changing arc voltage; - determining a fall voltage based at least in part on said loaded data for a functional relationship between the arc length and a sum of the fall voltage and the arc voltage; - determining the arc voltage based at least in part on a sensed weld voltage, the resistance of the electrode , and the fall voltage; and - determining an arc length based at least in part or said loaded data for a functional relationship between the arc length and a sum of the fall voltage and the arc voltage, wherein the arc length comprises a distance between the electrode and a workpiece , and the arc voltage comprises a voltage between the electrode and the workpiece , wherein the arc voltage is directly related to the arc length and the fall voltage is approximated as the voltage value where the arc length value is approximately equal to zero;determining a difference between the determined arc length and an arc length setting to control a power supply and/ or wire feeder in a closed-loop control to adjust the arc length based at least in part on the arc length difference. - loading data from a memory circuitry relating to the input arc parameters and input system parameters; - controlling a weld current supplied to an electrode at a current ramp rate; - sensing the controlled weld current and the changing arc voltage; - determining a resistance of the electrode based at least in part on the sensed controlled weld current and a changing arc voltage; - determining a fall voltage based at least in part on said loaded data for a functional relationship between the arc length and a sum of the fall voltage and the arc voltage; - determining the arc voltage based at least in part on a sensed weld voltage, the resistance of the electrode , and the fall voltage; and - determining an arc length based at least in part or said loaded data for a functional relationship between the arc length and a sum of the fall voltage and the arc voltage, wherein the arc length comprises a distance between the electrode and a workpiece , and the arc voltage comprises a voltage between the electrode and the workpiece , wherein the arc voltage is directly related to the arc length and the fall voltage is approximated as the voltage value where the arc length value is approximately equal to zero;determining a difference between the determined arc length and an arc length setting to control a power supply and/ or wire feeder in a closed-loop control to adjust the arc length based at least in part on the arc length difference.
A thrombus treatment device, comprising: a support tube defining a longitudinal axis; a body frame portion that is disposed about the longitudinal axis defined by the support tube, the body frame portion including a proximal end and a distal end; a filter portion that extends from the distal end of the body frame portion; and multiple tethers each having a first end and a second end, wherein the first end of each of the multiple tethers extends out a proximal end of the support tube, the tethers extending through a lumen of the support tube and out a distal end of the support tube and engaging the body frame portion near the distal end of the body frame portion and extending to the proximal end of the body frame portion, the second end of each of the multiple tethers being attached to the body frame portion near the proximal end of the body frame portion; wherein each tether of the multiple tethers forms a loop around the body frame portion near the proximal end of the body frame portion. a support tube defining a longitudinal axis; a body frame portion that is disposed about the longitudinal axis defined by the support tube, the body frame portion including a proximal end and a distal end; a filter portion that extends from the distal end of the body frame portion; and multiple tethers each having a first end and a second end, wherein the first end of each of the multiple tethers extends out a proximal end of the support tube, the tethers extending through a lumen of the support tube and out a distal end of the support tube and engaging the body frame portion near the distal end of the body frame portion and extending to the proximal end of the body frame portion, the second end of each of the multiple tethers being attached to the body frame portion near the proximal end of the body frame portion; wherein each tether of the multiple tethers forms a loop around the body frame portion near the proximal end of the body frame portion.