mhurhangee/ep-ind-claims huggingface dataset:
A weed seed devitalization arrangement for receiving air and material entrained with weed seeds, the arrangement including: one or more stationary substantially circular array of weed seed impact members (20, 22, 23), the weed seed impact members of the stationary array having an intended impact surface arranged so as to impact weed seeds passing into the stationary substantially circular array; and one or more rotatable substantially circular array of weed seed impact members (34, 36, 37), the rotatable array movable about a common axis with respect to a stationary substantially circular array of weed seed impact members (20, 22, 23), characterised in that the intended impact surface, of an impact member of the stationary array, is orientated to the reverse direction in which the rotor array (34, 36, 37) rotates, so as to either impact and direct a weed seed to pass through the stationary array (20, 22, 23) or to impact and direct a weed seed radially inward of the stationary array (20, 22, 23) regardless of the width and length of the weed seed. one or more stationary substantially circular array of weed seed impact members (20, 22, 23), the weed seed impact members of the stationary array having an intended impact surface arranged so as to impact weed seeds passing into the stationary substantially circular array; and one or more rotatable substantially circular array of weed seed impact members (34, 36, 37), the rotatable array movable about a common axis with respect to a stationary substantially circular array of weed seed impact members (20, 22, 23), characterised in that the intended impact surface, of an impact member of the stationary array, is orientated to the reverse direction in which the rotor array (34, 36, 37) rotates, so as to either impact and direct a weed seed to pass through the stationary array (20, 22, 23) or to impact and direct a weed seed radially inward of the stationary array (20, 22, 23) regardless of the width and length of the weed seed.
A composition comprising a primer pair and probe selected from the group consisting of: (a) SEQ ID NO: 7, 8 and 9; and (b) SEQ ID NO: 10, 11 and 12. (a) SEQ ID NO: 7, 8 and 9; and (b) SEQ ID NO: 10, 11 and 12.
A method of transmitting a physical uplink control channel, PUCCH, by a user equipment, UE, in a wireless communication system, the method comprising: transmitting, to a base station, BS, a message A; receiving, from the BS, a message B including a success random access response, RAR, in response to the message A, wherein the success RAR includes a PUCCH resource indication field of 4 bits representing a PUCCH resource from a PUCCH resource set including a plurality of PUCCH resources, and a physical downlink shared channel, PDSCH, -to-hybrid automatic repeat request-acknowledgement, HARQ, feedback timing indication field of 3 bits representing a slot in which the PUCCH is transmitted; and transmitting, to the BS, the PUCCH with a HARQ-ACK feedback for the message B based on the PUCCH resource indication field and the PDSCH-to-HARQ feedback timing indication field. transmitting, to a base station, BS, a message A; receiving, from the BS, a message B including a success random access response, RAR, in response to the message A, wherein the success RAR includes a PUCCH resource indication field of 4 bits representing a PUCCH resource from a PUCCH resource set including a plurality of PUCCH resources, and a physical downlink shared channel, PDSCH, -to-hybrid automatic repeat request-acknowledgement, HARQ, feedback timing indication field of 3 bits representing a slot in which the PUCCH is transmitted; and transmitting, to the BS, the PUCCH with a HARQ-ACK feedback for the message B based on the PUCCH resource indication field and the PDSCH-to-HARQ feedback timing indication field.
A fusion protein for use as a medicament comprising: a protein transduction domain and a Smad7 domain, wherein the Smad7 domain is selected from the group consisting of: (i) amino acids 2-258 of the amino acid sequence as set forth in SEQ ID NO: 12, or a variant thereof wherein Met 216 is modified to Leu 216; (ii) amino acids 259-426 of the amino acid sequence as set forth in SEQ ID NO: 12; or (iii) amino acids 203-217 of the amino acid as set forth in SEQ ID NO: 12, or a variant thereof wherein Met 216 is modified to Leu 216; and wherein the Smad7 domain has one or more Smad7 biological activities. a protein transduction domain and a Smad7 domain, wherein the Smad7 domain is selected from the group consisting of: (i) amino acids 2-258 of the amino acid sequence as set forth in SEQ ID NO: 12, or a variant thereof wherein Met 216 is modified to Leu 216; (ii) amino acids 259-426 of the amino acid sequence as set forth in SEQ ID NO: 12; or (iii) amino acids 203-217 of the amino acid as set forth in SEQ ID NO: 12, or a variant thereof wherein Met 216 is modified to Leu 216; (i) amino acids 2-258 of the amino acid sequence as set forth in SEQ ID NO: 12, or a variant thereof wherein Met 216 is modified to Leu 216; (ii) amino acids 259-426 of the amino acid sequence as set forth in SEQ ID NO: 12; or (iii) amino acids 203-217 of the amino acid as set forth in SEQ ID NO: 12, or a variant thereof wherein Met 216 is modified to Leu 216; and wherein the Smad7 domain has one or more Smad7 biological activities.
Networking device for forwarding network packets (131, 132, 133) over a network by segment routing; the networking device comprising: - a routing module configured to receive a network packet comprising a segment list; - a logging module configured to construct one or more first information segments (423-425, 523-525, 115) comprising context information; and to insert the one or more first information segments into the segment list; and wherein a first information segment of the one or more first information segments comprises a first segment identifier identifying the following information segments as segments comprising the context information and/or wherein the one or more first information segments comprise a segment identifier selected from a set of segment identifiers indicative for logging of context information; and wherein the context information comprises a packet colour defining a block of consecutive network packets to which the network packet belongs; and wherein the routing module is further configured to: - retrieve the segment list from the network packet; - identify one or more segments in the segment list as information segments comprising context information; - skip the one or more identified segments and proceed to a next routing segment in the segment list; - forward the network packet over the network according to the next routing segment in the segment list. - a routing module configured to receive a network packet comprising a segment list; - a logging module configured to construct one or more first information segments (423-425, 523-525, 115) comprising context information; and to insert the one or more first information segments into the segment list; and wherein a first information segment of the one or more first information segments comprises a first segment identifier identifying the following information segments as segments comprising the context information and/or wherein the one or more first information segments comprise a segment identifier selected from a set of segment identifiers indicative for logging of context information; and wherein the context information comprises a packet colour defining a block of consecutive network packets to which the network packet belongs; - retrieve the segment list from the network packet; - identify one or more segments in the segment list as information segments comprising context information; - skip the one or more identified segments and proceed to a next routing segment in the segment list; - forward the network packet over the network according to the next routing segment in the segment list.
The nutrient media for cultivating bacteria including pancreatic digest of casein, pepsin digest of meat, pancreatic digest of a heart, yeast extract, starch and water, characterized in that it additionally contains violuric acid and beef infusion, with the following ratio of components (wt%): - pancreatic digest of casein: 0,3-1,0; - pepsin digest of meat: 0.1-1.5; - pancreatic digest of a heart: 0,1-0,9; - yeast extract: 0.1-2.0; - starch: 0,3-0,8; - infusion of beef: 2.0 - 15; - violuric acid: 0.001 - 0.05; - water: the rest. - pancreatic digest of casein: 0,3-1,0; - pepsin digest of meat: 0.1-1.5; - pancreatic digest of a heart: 0,1-0,9; - yeast extract: 0.1-2.0; - starch: 0,3-0,8; - infusion of beef: 2.0 - 15; - violuric acid: 0.001 - 0.05; - water: the rest.
A joint assembly comprising: a composite body having a first fastener opening extending therethrough; wherein the composite body comprises a rotational axis; a first load body having a second fastener opening extending therethrough; and a first fastener (120, 220, 320, 520) extending along an insertion axis through the first fastener opening and the second fastener opening to connect the composite body and the first load body together, the first fastener configured to transmit forces therebetween; wherein the first fastener (120, 220, 320, 520) has an elongated, elliptical, oblong or oval cross-section orthogonal to the insertion axis; and wherein the first fastener (120, 220, 320, 520) is oriented such that the major axis of the first fastener is transverse to the rotational axis of the composite body. a composite body having a first fastener opening extending therethrough; wherein the composite body comprises a rotational axis; a first load body having a second fastener opening extending therethrough; and a first fastener (120, 220, 320, 520) extending along an insertion axis through the first fastener opening and the second fastener opening to connect the composite body and the first load body together, the first fastener configured to transmit forces therebetween; wherein the first fastener (120, 220, 320, 520) has an elongated, elliptical, oblong or oval cross-section orthogonal to the insertion axis; and wherein the first fastener (120, 220, 320, 520) is oriented such that the major axis of the first fastener is transverse to the rotational axis of the composite body.
Three-dimensional dummy object, in particular for functionally testing of driver assistance systems in motor vehicles, the dummy object having: a skeleton as well as movable arms and movable legs, wherein the skeleton has a torso skeleton having hollow spaces and having a central column, wherein the legs and the arms are hingedly connected to the torso skeleton, wherein the legs each have a thigh und a shank hingedly connected thereto, wherein a drive unit (18, 18') and a receiver/control unit are built-in in the torso skeleton, which receiver/control unit receives, as an input quantity, signals correlating with the relative velocity (V rel) of the moved dummy object, characterized in that the movement patterns of the thighs and the shanks (6a, 12) are changeable as a function of the relative velocity (V rel) of the moved dummy object by means of a built-in movement mechanism, wherein the movement patterns include changes of the leg limit angles (α g, α' g) between the thigh and the central column of the torso skeleton as well as of the knee limit angles (β g, β' g) between the thigh and the shank.
An optoelectronic sensor for detecting objects in a monitoring area, comprising at least one light transmitter for transmitting a plurality of light beams separated from one another, each starting from a transmission point, common transmission optics for the transmitted light beams, at least one light receiver for generating a respective reception signal from the remitted light beams remitted by objects and impinging in a respective receiving point, common receiving optics for the remitted light beams, and an evaluation unit which is configured to determine a distance of the object from a light time of flight between transmission of the light beams and reception of the remitted light beams, characterized in that the transmission points are arranged on a first circular line and/or the receiving points are arranged on a second circular line, and in that the first circular line is centered with respect to the optical center axis of the transmission optics and/or the second circular line is centered with respect to the optical center axis of the receiving optics.
An unducted thrust producing system, said thrust producing system comprising a rotating element having an axis of rotation and a plurality of blades, a stationary element having a plurality of vanes disposed around the axis, a gas generator located aft of the rotating element, and an inlet for supplying air to the gas generator, the inlet being between said rotating element and said stationary element; characterised in that: wherein said inlet is radially inward of said stationary element.
A method of wireless communication, comprising: receiving a plurality of reference signal,RS, tones in a plurality reference signals from a first base station; modifying the plurality of RS tones to remove interference from at least one other base station; determining a quality of the plurality of RS tones as modified; obtaining at least one channel estimate of at least one data tone based on the quality of the plurality of RS tones as modified; and decoding a data channel of the first base station based on the at least one channel estimate. receiving a plurality of reference signal,RS, tones in a plurality reference signals from a first base station; modifying the plurality of RS tones to remove interference from at least one other base station; determining a quality of the plurality of RS tones as modified; obtaining at least one channel estimate of at least one data tone based on the quality of the plurality of RS tones as modified; and decoding a data channel of the first base station based on the at least one channel estimate.
A server system, comprising: a fabric interconnect to route messages during execution of software services; a plurality of compute nodes (101, 102) coupled to the fabric interconnect to execute software services for the server system, each of the plurality of compute nodes configured as a cell in a cellular automaton, and wherein a state of at least one configuration field for each of the plurality of compute nodes is set based on a state of a corresponding configuration field at a connected node in the plurality of compute nodes; and wherein each of the plurality of compute nodes is to: effect transitions in a set of state fields among predefined sets of states in response to transitions in states (502, 503) of corresponding state fields at connected compute nodes; receive routing information based on the transitions of the set of state fields; and route received messages to others of the plurality of compute nodes via the fabric interconnect based on the routing information. a fabric interconnect to route messages during execution of software services; a plurality of compute nodes (101, 102) coupled to the fabric interconnect to execute software services for the server system, each of the plurality of compute nodes configured as a cell in a cellular automaton, and wherein a state of at least one configuration field for each of the plurality of compute nodes is set based on a state of a corresponding configuration field at a connected node in the plurality of compute nodes; and wherein each of the plurality of compute nodes is to: effect transitions in a set of state fields among predefined sets of states in response to transitions in states (502, 503) of corresponding state fields at connected compute nodes; receive routing information based on the transitions of the set of state fields; and route received messages to others of the plurality of compute nodes via the fabric interconnect based on the routing information. effect transitions in a set of state fields among predefined sets of states in response to transitions in states (502, 503) of corresponding state fields at connected compute nodes; receive routing information based on the transitions of the set of state fields; and route received messages to others of the plurality of compute nodes via the fabric interconnect based on the routing information.
A 3D scanner for recording topographic characteristics of a surface of at least part of a body orifice, where the 3D scanner comprises: - a main body comprising a mounting portion; - a tip which can be mounted onto and un-mounted from said mounting portion, where said tip is configured for being brought into proximity of said body orifice surface when recording said topographic characteristics such that at least one optical element (103, 108) of the tip is at least partly exposed to the environment in the body orifice during said recording; and - a heater system for heating said optical element (103, 108), said heater system comprising a source of electromagnetic energy and a receptive element configured for receiving the electromagnetic energy and converting it into heat, where the generated heat is provided indirectly through a heat conducting element to said optical element (103, 108), where the heat conducting element is arranged at the tip such that it can transfer heat generated by the receptive element to said optical element (103, 108), where the heat conducting element comprises a multi-layer sheet comprising one or more heat conducting layers and a protective layer arranged such that it faces the mounting portion and provides mechanical protection to the heat conductive layers, the heat conductive layers having a relatively higher thermal conductivity than said protective layer, the one or more heat conductive layers being arranged in a recess defined in the protective layer. - a main body comprising a mounting portion; - a tip which can be mounted onto and un-mounted from said mounting portion, where said tip is configured for being brought into proximity of said body orifice surface when recording said topographic characteristics such that at least one optical element (103, 108) of the tip is at least partly exposed to the environment in the body orifice during said recording; and - a heater system for heating said optical element (103, 108), said heater system comprising a source of electromagnetic energy and a receptive element configured for receiving the electromagnetic energy and converting it into heat, where the generated heat is provided indirectly through a heat conducting element to said optical element (103, 108), where the heat conducting element is arranged at the tip such that it can transfer heat generated by the receptive element to said optical element (103, 108), where the heat conducting element comprises a multi-layer sheet comprising one or more heat conducting layers and a protective layer arranged such that it faces the mounting portion and provides mechanical protection to the heat conductive layers, the heat conductive layers having a relatively higher thermal conductivity than said protective layer, the one or more heat conductive layers being arranged in a recess defined in the protective layer.
A system for cooling a tower of a wind turbine, the system comprising: the tower of the wind turbine, at least one cooling fluid inlet for receiving a cooling fluid into the tower, the at least one cooling fluid inlet arranged in a tower wall of the tower of the wind turbine; and the at least one cooling fluid inlet comprising at least one opening defined by a tower door and an intake plenum coupled to an inner face of the tower door and surrounding the at least one opening defined by the tower door; at least one platform positioned within the tower at a predetermined height above a foundation of the wind turbine, configured to create a space within the tower between the platform and the foundation to provide a location for the installation of a filtration assembly; said filtration assembly arranged within the tower, the filtration assembly comprising a plurality of flow guiding structures that define a plurality of flow paths for providing a plurality of flow direction changes and/or flow velocity changes to the cooling fluid; and, at least one cooling fluid outlet for directing the filtered cooling fluid within the tower; wherein the filtration assembly is positioned between the at least one platform and the foundation of the wind turbine; and wherein the plurality of flow guiding structures define a plurality of 180-degree turns for the cooling fluid configured to slow the cooling fluid and configured to allow one or more particles in the cooling fluid to settle out. the tower of the wind turbine, at least one cooling fluid inlet for receiving a cooling fluid into the tower, the at least one cooling fluid inlet arranged in a tower wall of the tower of the wind turbine; and the at least one cooling fluid inlet comprising at least one opening defined by a tower door and an intake plenum coupled to an inner face of the tower door and surrounding the at least one opening defined by the tower door; at least one platform positioned within the tower at a predetermined height above a foundation of the wind turbine, configured to create a space within the tower between the platform and the foundation to provide a location for the installation of a filtration assembly; said filtration assembly arranged within the tower, the filtration assembly comprising a plurality of flow guiding structures that define a plurality of flow paths for providing a plurality of flow direction changes and/or flow velocity changes to the cooling fluid; and, at least one cooling fluid outlet for directing the filtered cooling fluid within the tower; wherein the filtration assembly is positioned between the at least one platform and the foundation of the wind turbine; and wherein the plurality of flow guiding structures define a plurality of 180-degree turns for the cooling fluid configured to slow the cooling fluid and configured to allow one or more particles in the cooling fluid to settle out.
Door fitting for a panic door lock, comprising an actuating rod for actuating the panic door lock, wherein the actuating rod being mounted pivotably about an actuating axis via pivot levers, characterized in that the pivot levers are formed to be adjustable in length.
An apparatus for a gas turbine engine, comprising: a first platform (50, 52) extending axially along and circumferentially about an axis; a second platform (50, 52) extending axially along and circumferentially about the axis; a plurality of vanes arranged circumferentially about the axis, each of the plurality of vanes extending radially across a gas path between the first platform (50, 52) and the second platform (50, 52), and the plurality of vanes comprising a first vane movably connected to the first platform (50, 52); and a plurality of beams arranged circumferentially about the axis, the plurality of beams fixedly connected to the first platform (50, 52) and the second platform (50, 52), and the plurality of beams comprising a first beam extending radially through the first vane; characterised in that the first beam is formed integral with the first platform (50, 52) and the second platform (50, 52). a first platform (50, 52) extending axially along and circumferentially about an axis; a second platform (50, 52) extending axially along and circumferentially about the axis; a plurality of vanes arranged circumferentially about the axis, each of the plurality of vanes extending radially across a gas path between the first platform (50, 52) and the second platform (50, 52), and the plurality of vanes comprising a first vane movably connected to the first platform (50, 52); and a plurality of beams arranged circumferentially about the axis, the plurality of beams fixedly connected to the first platform (50, 52) and the second platform (50, 52), and the plurality of beams comprising a first beam extending radially through the first vane; characterised in that the first beam is formed integral with the first platform (50, 52) and the second platform (50, 52).