mhurhangee/ep-ind-claims huggingface dataset:
A sole structure, comprising: at least one substantially incompressible plate (150, 152), the at least one plate having a first portion located in a forefoot region of the sole structure and a second portion located in a rearfoot region of the sole structure; at least one compressible midsole component (140a, 140b) coupled to the at least one plate; and at least one linkage rod (180a, 180b) coupling the first and second portions, the at least one linkage rod configured to bias the first and second portions away from one another during bending of the sole structure that moves the tops of the first and second portions toward one another, wherein the at least one plate comprises: a single plate, the first portion is located in the forefoot region of the plate, the second portion is located in the rearfoot region of the plate, and a third portion connects the first and second portion; or first and second plates, the first plate comprises the first portion, the second plate comprises the second portion, and the first plate further comprises an extension extending into the rearfoot region of the sole structure. at least one substantially incompressible plate (150, 152), the at least one plate having a first portion located in a forefoot region of the sole structure and a second portion located in a rearfoot region of the sole structure; at least one compressible midsole component (140a, 140b) coupled to the at least one plate; and at least one linkage rod (180a, 180b) coupling the first and second portions, the at least one linkage rod configured to bias the first and second portions away from one another during bending of the sole structure that moves the tops of the first and second portions toward one another, a single plate, the first portion is located in the forefoot region of the plate, the second portion is located in the rearfoot region of the plate, and a third portion connects the first and second portion; or first and second plates, the first plate comprises the first portion, the second plate comprises the second portion, and the first plate further comprises an extension extending into the rearfoot region of the sole structure.
A method for the production of a reinforced thermoplastic container, the method comprising providing a mould having at least two mould parts (26a, 26b), each mould part having an inner side and an outer side, characterized in that the method comprises: releasably securing at least one attachment element to the inner side of at least one of the mould parts (26a, 26b), subsequently connecting a tension member to the at least one attachment element, adding a thermoplastic material onto the inner side of at least one of the at least two mould parts (26a, 26b), closing the at least two mould parts (26a, 26b) to produce a mould cavity, heating the thermoplastic material and distributing the thermoplastic material at the inner side of the at least two mould parts to create a moulded body of the reinforced container in which the at least one attachment element is fixedly integrated into a wall of the container body. releasably securing at least one attachment element to the inner side of at least one of the mould parts (26a, 26b), subsequently connecting a tension member to the at least one attachment element, adding a thermoplastic material onto the inner side of at least one of the at least two mould parts (26a, 26b), closing the at least two mould parts (26a, 26b) to produce a mould cavity, heating the thermoplastic material and distributing the thermoplastic material at the inner side of the at least two mould parts to create a moulded body of the reinforced container in which the at least one attachment element is fixedly integrated into a wall of the container body.
A surgical mapping system for locating a structure under tissue comprising: at least one magnet that is configured to be emplaced under tissue at a location; and a mapping device (100, 200) comprising one or more sensors (102, 202a-d) configured to detect the strength of the magnetic field of the at least one magnet, thereby finding the location of the at least one magnet characterized in that the one or more sensors (102, 202a-d) are configured to detect the strength of the magnetic field of the at least one magnet along at least two axes, wherein the mapping device (100, 200) provides an indication when the strength of the magnetic field is substantially equal along the at least two axes to indicate that the mapping device (100, 200) and the at least one magnet are coterminous with respect to the at least two axes,. at least one magnet that is configured to be emplaced under tissue at a location; and a mapping device (100, 200) comprising one or more sensors (102, 202a-d) configured to detect the strength of the magnetic field of the at least one magnet, thereby finding the location of the at least one magnet characterized in that the one or more sensors (102, 202a-d) are configured to detect the strength of the magnetic field of the at least one magnet along at least two axes, wherein the mapping device (100, 200) provides an indication when the strength of the magnetic field is substantially equal along the at least two axes to indicate that the mapping device (100, 200) and the at least one magnet are coterminous with respect to the at least two axes,.
A computer-implemented method for use in video anti-shaking, comprising: dividing (S101; S301) at least one part of a current frame of a video into a plurality of regions; performing (S102; S302, S303), for each of the plurality of regions, a progressive local motion detection in a coarse-to-fine manner to determine a local motion vector for the region; determining a global motion vector for the current frame based on the local motion vectors for the plurality of regions; characterized by filtering the global motion vector to remove a high-frequency component of the global motion vector using a smooth wavelet soft threshold filter; determining a jitter vector for the current frame based on the global motion vector and filtered global motion vector; and compensating the current frame based on the jitter vector. dividing (S101; S301) at least one part of a current frame of a video into a plurality of regions; performing (S102; S302, S303), for each of the plurality of regions, a progressive local motion detection in a coarse-to-fine manner to determine a local motion vector for the region; determining a global motion vector for the current frame based on the local motion vectors for the plurality of regions; characterized by filtering the global motion vector to remove a high-frequency component of the global motion vector using a smooth wavelet soft threshold filter; determining a jitter vector for the current frame based on the global motion vector and filtered global motion vector; and compensating the current frame based on the jitter vector.
Motor vehicle comprising a plurality of vehicle wheels which can be or are mounted by means of wheel suspensions on the vehicle body side, wherein a wheel suspension comprises at least one suspension arm that connects a vehicle wheel to a vehicle body and is supported so as to be pivotable about an axis, and at least one rotation damper having at least one damper element for damping relative movement between a first mass arranged on the wheel suspension side and a second mass arranged on the vehicle body side, the rotation damper being integrated directly in the seat of the suspension arm, wherein pivoting movements of the suspension arm induced by the mass movement may be transmitted to a rotatable damper part of the damper element that is motion-coupled to said suspension arm, the damper element comprising a hollow cylindrical housing in which the rotatable damper part and a fixed damper part are accommodated or integrated, the rotatable damper part being mounted to be rotatable relative to the fixed damper part, producing a damping force, characterised in that the rotatable damper bar and the fixed damper part are each embodied as hollow-cylindrical bodies, with either the rotatable damper part being accommodated inside the fixed damper part or the fixed damper part being accommodated inside the rotatable damper part.
A vehicle trim component (140, 150) configured to support an airbag module providing an airbag, characterized by said vehicle trim component (140, 150) comprising: - a fiber panel having a recess (62, 158) formed within a rear surface (88, 125) of the fiber panel; and - a resin mounting structure injection molded onto the rear surface (88, 125) of the fiber panel; wherein the fiber panel is compression formed into a desired shape; wherein the resin mounting structure is configured to support the airbag module; and wherein the recess (62, 158) is configured to facilitate deployment of the airbag from the airbag module. - a fiber panel having a recess (62, 158) formed within a rear surface (88, 125) of the fiber panel; and - a resin mounting structure injection molded onto the rear surface (88, 125) of the fiber panel;
Brake pad retaining arrangement for a brake caliper arrangement, in particular for a commercial vehicle brake caliper arrangement, comprising a retaining element and a sensor element, wherein the retaining element extends in a longitudinal direction, wherein the sensor element is fixed or can be fixed directly and/or indirectly to the retaining element, characterized in that the sensor element is a temperature measuring sensor. wherein the retaining element extends in a longitudinal direction, wherein the sensor element is fixed or can be fixed directly and/or indirectly to the retaining element, characterized in that the sensor element is a temperature measuring sensor.
A method for transferring packet data in a wireless network, comprising: a mobile station moving from a first cell to a second cell; a base station controller locally searching for a temporary block flow of the mobile station and the first cell according to a temporary logical link identifier that a serving general packet radio service support node pre-allocates for the mobile station, and acquiring packet data of the first cell to be originally sent to the mobile station via the temporary block flow of the mobile station and the first cell; locally searching for a temporary block flow of the mobile station and a second cell according to the temporary logical link identifier, and transferring the packet data to the temporary block flow of the mobile station and the second cell; sending the packet data to a base transceiver station of the second cell via the temporary block flow of the mobile station and the second cell before receiving message sent by the serving general packet radio service support node for requesting an acknowledgement of cell update in the mobile station; the base transceiver station of the second cell transferring the packet data to the mobile station. a mobile station moving from a first cell to a second cell; a base station controller locally searching for a temporary block flow of the mobile station and the first cell according to a temporary logical link identifier that a serving general packet radio service support node pre-allocates for the mobile station, and acquiring packet data of the first cell to be originally sent to the mobile station via the temporary block flow of the mobile station and the first cell; locally searching for a temporary block flow of the mobile station and a second cell according to the temporary logical link identifier, and transferring the packet data to the temporary block flow of the mobile station and the second cell; sending the packet data to a base transceiver station of the second cell via the temporary block flow of the mobile station and the second cell before receiving message sent by the serving general packet radio service support node for requesting an acknowledgement of cell update in the mobile station; the base transceiver station of the second cell transferring the packet data to the mobile station.
Cooling device for cooling intake air of an internal combustion engine of a vehicle, comprising a heat exchange bundle between a heat-transfer fluid and the intake air, the heat exchange bundle comprising at least one pair of plates and at least one heat sink device of longitudinal extension, a housing which surrounds the heat exchange bundle, and at least one of the plates of the heat exchange bundle comprises a longitudinal securing device for the heat sink device, characterized in that at least one of the plates of the heat exchange bundle comprises a fusible part configured to press the plate of the heat exchange bundle against the housing upon the assembly of the cooling device and allow a separation of the plate from the heat exchange bundle and from the housing upon the use of the cooling device.
A method of increasing the chemical and/or thermal stability of PHA (polyhydroxyalkanoate) in biomass to a decomposition temperature exceeding 260°C, where the biomass is contained within mixed liquor, the method comprising: a. solubilizing ions associated with the biomass in the mixed liquor by treating the mixed liquor by reducing the pH of the mixed liquor to below 6; and b. dewatering the mixed liquor and effectively separating at least some of the ions from the PHA in biomass which results in the increased chemical and/or thermal stability of the PHA in biomass. a. solubilizing ions associated with the biomass in the mixed liquor by treating the mixed liquor by reducing the pH of the mixed liquor to below 6; and b. dewatering the mixed liquor and effectively separating at least some of the ions from the PHA in biomass which results in the increased chemical and/or thermal stability of the PHA in biomass.
A system for monitoring an evoked response in a selected muscle due to stimulation of a nerve in a subject, comprising: a motion sensing system configured to sense motion, wherein the motion sensing system includes a motion sensor mounted on a tube assembly, wherein the motion sensor is configured to, in use, sense a motion of at least a first portion of the subject relating to the evoked response; and a monitoring system configured to, (i) receive a motion signal from the motion sensor associated with the tube; (ii) determine whether an evoked response at the selected muscle is occurring based on the motion signal received from the motion sensor. a motion sensing system configured to sense motion, wherein the motion sensing system includes a motion sensor mounted on a tube assembly, wherein the motion sensor is configured to, in use, sense a motion of at least a first portion of the subject relating to the evoked response; and a monitoring system configured to, (i) receive a motion signal from the motion sensor associated with the tube; (ii) determine whether an evoked response at the selected muscle is occurring based on the motion signal received from the motion sensor. (i) receive a motion signal from the motion sensor associated with the tube; (ii) determine whether an evoked response at the selected muscle is occurring based on the motion signal received from the motion sensor.
A medical probe device comprising: a probe; a probe guide; a monitor; a transducer housing comprising an ultrasound transducer for forming a sonogram of a subdermal location on the monitor, the transducer housing including a skin contacting surface; a motion detector for detecting motion of the probe in the probe guide, wherein signals from the motion detector create a data stream; a processor in communication with the motion detector, the monitor, and the ultrasound transducer, the processor configured for creating and displaying a real time image of a virtual probe, the processor being programmed to receive and analyze said data stream from the motion detector to calculate a relative position of the probe in relation to a reference point, the processor being capable of communicating the relative position to the monitor, said relative position being displayed on the monitor as the real time image of the virtual probe; and the processor being further configured for displaying on the monitor the real time image of the virtual probe in conjunction with the sonogram of the subdermal location, and information showing the approach of the probe towards an internal target; characterised in that the motion detector utilizes a magnetic motion detection mechanism to generate said signals and monitor the motion of the probe as it passes through the probe guide. a probe; a probe guide; a monitor; a transducer housing comprising an ultrasound transducer for forming a sonogram of a subdermal location on the monitor, the transducer housing including a skin contacting surface; a motion detector for detecting motion of the probe in the probe guide, wherein signals from the motion detector create a data stream; a processor in communication with the motion detector, the monitor, and the ultrasound transducer, the processor configured for creating and displaying a real time image of a virtual probe, the processor being programmed to receive and analyze said data stream from the motion detector to calculate a relative position of the probe in relation to a reference point, the processor being capable of communicating the relative position to the monitor, said relative position being displayed on the monitor as the real time image of the virtual probe; and the processor being further configured for displaying on the monitor the real time image of the virtual probe in conjunction with the sonogram of the subdermal location, and information showing the approach of the probe towards an internal target; characterised in that the motion detector utilizes a magnetic motion detection mechanism to generate said signals and monitor the motion of the probe as it passes through the probe guide.
A drying appliance including ∘ A treating chamber where items are introduced and treated with a process medium; ∘ a heat pump system having a refrigerant circuit in which a refrigerant can flow, said refrigerant circuit including a first heat exchanger where the refrigerant is cooled off, a second heat exchanger where the refrigerant is heated up, a compressor to pressurize and circulate the refrigerant through the refrigerant circuit, and a pressure-lowering device; said first and/or second heat exchanger being apt to perform heat exchange between said refrigerant flowing in said refrigerant circuit and said process medium; characterized in that it further includes ∘ a grid interposed between said first and said second heat exchanger (31, 32) so that said process medium flowing through the second heat exchanger is at least partially guided toward the first heat exchanger. ∘ A treating chamber where items are introduced and treated with a process medium; ∘ a heat pump system having a refrigerant circuit in which a refrigerant can flow, said refrigerant circuit including a first heat exchanger where the refrigerant is cooled off, a second heat exchanger where the refrigerant is heated up, a compressor to pressurize and circulate the refrigerant through the refrigerant circuit, and a pressure-lowering device; said first and/or second heat exchanger being apt to perform heat exchange between said refrigerant flowing in said refrigerant circuit and said process medium; characterized in that it further includes ∘ a grid interposed between said first and said second heat exchanger (31, 32) so that said process medium flowing through the second heat exchanger is at least partially guided toward the first heat exchanger.
A compound of formula I or a salt thereof: wherein, n 1 is 1, 2 or 3; n 2 is 3, 4 or 5; X is CH or N; Ar has formula II or formula III; wherein Q is O or S; R 1, R 2, R 3, R 4 and R 5 are each independently H, halogen, C1-C5alkyl, C1-C5alkyl substituted by halogen, C1-C5alkoxy or C1-C5alkoxy substituted by halogen. n 1 is 1, 2 or 3; n 2 is 3, 4 or 5; X is CH or N; Ar has formula II or formula III; Q is O or S; R 1, R 2, R 3, R 4 and R 5 are each independently H, halogen, C1-C5alkyl, C1-C5alkyl substituted by halogen, C1-C5alkoxy or C1-C5alkoxy substituted by halogen.
A method in a network node (105, 125, 130) for improving transmission control protocol, TCP, performance in a cellular network, which network node (105, 125, 130) handles TCP packet transferral between a user equipment and a server in the cellular network, which user equipment and which server are configured to adapt a retransmission timeout, RTO, setting based on round trip times, RTTs, for performed TCP packet transferrals, the method comprising: - when obtaining an indication of a handover outage (310, 410) being upcoming for the user equipment, deliberately delaying (211,704), in a time period (300, 400) preceding the indicated handover outage (310, 410), a transferal of a TCP packet between the server and the user equipment to increase the round trip time for the TCP packet, wherein the method further comprises obtaining an estimate of an expected round trip time for the TCP packet, wherein the estimate is based on a handover preparation time that includes a time duration between a time instant the network node (105, 125, 130) obtains an indication that a handover is upcoming to a time instant the upcoming handover outage (310, 410) starts, and wherein the delaying (211,704) is performed based on the expected round trip time. - when obtaining an indication of a handover outage (310, 410) being upcoming for the user equipment, deliberately delaying (211,704), in a time period (300, 400) preceding the indicated handover outage (310, 410), a transferal of a TCP packet between the server and the user equipment to increase the round trip time for the TCP packet, wherein the method further comprises obtaining an estimate of an expected round trip time for the TCP packet, wherein the estimate is based on a handover preparation time that includes a time duration between a time instant the network node (105, 125, 130) obtains an indication that a handover is upcoming to a time instant the upcoming handover outage (310, 410) starts, and wherein the delaying (211,704) is performed based on the expected round trip time.
A lanthanide complex according to the following formula: wherein M is chosen from the alkali cations Li +, Na +, K +, Rb + and Cs + and mixtures thereof and is present to neutralize charge of the complex; wherein Ln is chosen from the trivalent rare-earth cations of Ce, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, and Yb and mixtures thereof; wherein R is a C 5 to C 6 heteroaryl: wherein Y is an optionally substituted C 3 -C 8 heterocycloalkyl moiety linked to R by an N atom; wherein n is an integer of 3 or 5; and wherein x is an integer of 0 or 1. wherein M is chosen from the alkali cations Li +, Na +, K +, Rb + and Cs + and mixtures thereof and is present to neutralize charge of the complex; wherein Ln is chosen from the trivalent rare-earth cations of Ce, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, and Yb and mixtures thereof; wherein R is a C 5 to C 6 heteroaryl: wherein Y is an optionally substituted C 3 -C 8 heterocycloalkyl moiety linked to R by an N atom; wherein n is an integer of 3 or 5; and wherein x is an integer of 0 or 1. wherein Y is an optionally substituted C 3 -C 8 heterocycloalkyl moiety linked to R by an N atom; wherein n is an integer of 3 or 5; and wherein x is an integer of 0 or 1.