mhurhangee/ep-ind-claims huggingface dataset:
A method (500, 700) for wireless communications, comprising: generating a frame comprising a group identifier, ID, wherein the group ID specifies IDs assigned to the apparatuses such that the numbers of spatial streams are allocated to the apparatuses in a defined order; transmitting the frame to the apparatuses; generating a preamble comprising a signal, SIG, field, wherein the SIG field comprises a plurality of bits that indicate a number and allocation of spatial streams for a plurality of apparatuses without explicitly identifying each apparatus, wherein the plurality of bits represent a code; different values of the code map to different combinations of numbers of spatial streams allocated to different numbers of apparatuses, wherein the numbers of spatial streams in each of the different combinations are in said defined order; and transmitting the preamble to the apparatuses. generating a frame comprising a group identifier, ID, wherein the group ID specifies IDs assigned to the apparatuses such that the numbers of spatial streams are allocated to the apparatuses in a defined order; transmitting the frame to the apparatuses; generating a preamble comprising a signal, SIG, field, wherein the SIG field comprises a plurality of bits that indicate a number and allocation of spatial streams for a plurality of apparatuses without explicitly identifying each apparatus, wherein the plurality of bits represent a code; different values of the code map to different combinations of numbers of spatial streams allocated to different numbers of apparatuses, wherein the numbers of spatial streams in each of the different combinations are in said defined order; and transmitting the preamble to the apparatuses.
An information display apparatus for irradiating a transmissive reflection member with light for forming an image so as to make a virtual image of the image visible on the transmissive reflection member, comprising an information input unit configured to receive object information that is information related to a real object existing around a moving object on which the apparatus is installed, wherein the information display apparatus is configured to control, upon a change in depth of a scene position at which to superimpose the virtual image over the real object from a viewpoint of a viewer, a degree of change in a part or an entirety of the virtual image to be displayed, characterized in that if the degree of the change in depth is within a predetermined range, the degree of the change in the part or the entirety of the virtual image to be displayed is controlled in accordance with the degree of the change in depth, and if the degree of the change in depth is outside the predetermined range, a degree of change in a dimension in a vertical direction of the virtual image is controlled so as to be larger than the degree of the change in depth, and a degree of change in a dimension in a horizontal direction of the virtual image is controlled in accordance with the degree of the change in depth.
An animal halter comprising, a nose band having two ends, and a lead attachment loop slidably attached to each of the ends of the nose band, a muzzle which is attached to the nose band and in use, tension on the lead attachment loop causes the two ends of the nose band to come together and constrict around the nose of an animal, characterised in that the muzzle is attached to the nose band by means of straps, buckles, clips, rings or fastenings (42, 44, 46) which are moveable slideably around the nose band.
A compressor comprising: a motor including a rotor (32; 132; 232) having a first end surface and a second end surface; a balance weight (33a; 133a; 233a) disposed on the first end surface or the second end surface; and a partition (33b; 133b, 133s; 233s) disposed on the first end surface or the second end surface, wherein the rotor has a through hole (32p; 132p; 232p) extending from the first end surface to the second end surface, and the partition divides, from the through hole, both a front region located in front of a front edge of the balance weight in a rotational direction of the rotor and a rear region located behind a rear edge of the balance weight in the rotational direction of the rotor, characterized in that, the rotor includes a first cylindrical portion and a second cylindrical portion, the second cylindrical portion being located on an outer side with respect to the first cylindrical portion, the through hole is disposed at the first cylindrical portion, the partition covers the first cylindrical portion at either the first end surface or the second end surface, the balance weight is disposed on the second cylindrical portion, and one of the following conditions is verified: i) the partition is as thick as the balance weight is, or ii) the compressor further comprises a partition wall 133s) provided at the periphery of the partition, and the partition wall is as thick as the balance weight is. a motor including a rotor (32; 132; 232) having a first end surface and a second end surface; a balance weight (33a; 133a; 233a) disposed on the first end surface or the second end surface; and a partition (33b; 133b, 133s; 233s) disposed on the first end surface or the second end surface, wherein the rotor has a through hole (32p; 132p; 232p) extending from the first end surface to the second end surface, and the partition divides, from the through hole, both a front region located in front of a front edge of the balance weight in a rotational direction of the rotor and a rear region located behind a rear edge of the balance weight in the rotational direction of the rotor, the rotor includes a first cylindrical portion and a second cylindrical portion, the second cylindrical portion being located on an outer side with respect to the first cylindrical portion, the through hole is disposed at the first cylindrical portion, the partition covers the first cylindrical portion at either the first end surface or the second end surface, the balance weight is disposed on the second cylindrical portion, and one of the following conditions is verified: i) the partition is as thick as the balance weight is, or ii) the compressor further comprises a partition wall 133s) provided at the periphery of the partition, and the partition wall is as thick as the balance weight is. i) the partition is as thick as the balance weight is, or ii) the compressor further comprises a partition wall 133s) provided at the periphery of the partition, and the partition wall is as thick as the balance weight is.
Motor lamination for producing a laminated core for a linear motor primary part, wherein the motor lamination has a securing element and main projections arranged distributed evenly on the securing element, wherein an auxiliary projection, whose longitudinal axis of symmetry runs parallel to the longitudinal axis of symmetry of the main projections, is arranged on the securing element centrally between the main projections, characterized in that the auxiliary projection has a shorter length than the main projections, wherein the securing element comprises cutouts for implementing cooling ducts and cutouts for implementing securing grooves for receiving groove blocks which facilitate the attachment of the primary part to a primary part carrier, and recesses on the main projections for implementing guide grooves, holding covering means, in the laminated core, wherein the motor lamination also has recesses for guide grooves in the auxiliary projections of the laminated core for mounting additional parts.
A method of anchoring a strand subject to static and dynamic deflection in a cable anchorage, the cable anchorage comprising an anchor block, a strand channel through the anchor block, extending between an anchoring end and an exit end, and a strand-anchoring conical wedge at said anchoring end of the anchor block, for transferring an axial tension load in the strand to the anchor block, the length of the strand channel being less than 10 times the smallest diameter of the strand channel, the method comprising: - a filling step, in which a space surrounding the strand in the strand-channel is at least partially filled with a bedding cushion extending substantially around the strand in the strand-channel and axially along a bedding region of the axial length of the strand-channel,, the method being characterised in that said bedding cushion is formed by a a flexural and/or elastic bedding material having a durometer at 23°C in the range 10 to 70 Shore and in that it further comprises - a sealing step, in which a seal is provided between the outer surface of the strand and the inner surface of the strand-channel, and at a predetermined axial position along the strand-channel, in an annular or cylindrical recessed region of the inner wall of the channel, so as to prevent an axial movement of the bedding material, at least while the bedding material is being introduced into the strand-channel, beyond the predetermined axial position in the direction of a main running portion of the strand.. - a filling step, in which a space surrounding the strand in the strand-channel is at least partially filled with a bedding cushion extending substantially around the strand in the strand-channel and axially along a bedding region of the axial length of the strand-channel,, the method being characterised in that said bedding cushion is formed by a a flexural and/or elastic bedding material having a durometer at 23°C in the range 10 to 70 Shore and in that it further comprises - a sealing step, in which a seal is provided between the outer surface of the strand and the inner surface of the strand-channel, and at a predetermined axial position along the strand-channel, in an annular or cylindrical recessed region of the inner wall of the channel, so as to prevent an axial movement of the bedding material, at least while the bedding material is being introduced into the strand-channel, beyond the predetermined axial position in the direction of a main running portion of the strand..
An apparatus for the depletion of at least one component of a fluid medium, wherein the apparatus comprises a concentration increasing unit for increasing the concentration of the component of the fluid medium to be depleted by means of ultrafiltration, with the concentration increasing unit being configured such that the concentration of the component in the fluid medium to be depleted is increased before being depleted, wherein the apparatus comprises a depletion unit, configured as adsorber, disposed downstream of the concentration increasing unit and in fluid communication therewith for the subsequent reduction in the concentration of the component to be depleted, wherein the apparatus further comprises an extracorporeal circuit for the conducting of blood or one or more blood components in which the concentration increasing unit and the depletion unit are arranged, characterized in that a line opens into the extracorporeal circuit downstream of the depletion unit, which is in fluid communication with a source of a substitution medium.
A node comprising: a packet network interface adapted to receive a plurality of packets, at least a first packet having a first destination address and a first bit and a second bit, and a second packet having a second destination address and a third bit and a fourth bit; wherein the term "bit" refers to a single bit or a plurality of bits transmitted and/or received as a cluster of bits representing a codeword, characterized by an ethernet switch to assign and store packets into a virtual queue based on destination; and a distribution engine (36a-n) to separate the packets into bits, and then provide the bits to a virtual concatenation group comprising a predetermined group of optical channel data unit,ODU, containers (46a-n) associated with a particular destination, wherein, when the plurality of packets are received by a node, a first packet having a first destination address and a first bit and a second bit may be stored into a first virtual queue and the bits are transmitted to a first predetermined group of ODU containers (46a-n), and a second packet having a second destination address and a third bit and a fourth bit may be stored into a second virtual queue and the bits are transmitted to a second predetermined group of ODU containers (46a-n), wherein the distribution engine (36a-n) is further configured to provide a first set of deskewing markers to an optical port (28, 54) indicating a first sequence of the first bit and the second bit, and to provide a second set of deskewing markers to the optical port indicative of a second sequence of the third bit and the fourth bit. a packet network interface adapted to receive a plurality of packets, at least a first packet having a first destination address and a first bit and a second bit, and a second packet having a second destination address and a third bit and a fourth bit; wherein the term "bit" refers to a single bit or a plurality of bits transmitted and/or received as a cluster of bits representing a codeword, characterized by an ethernet switch to assign and store packets into a virtual queue based on destination; and a distribution engine (36a-n) to separate the packets into bits, and then provide the bits to a virtual concatenation group comprising a predetermined group of optical channel data unit,ODU, containers (46a-n) associated with a particular destination, wherein, when the plurality of packets are received by a node, a first packet having a first destination address and a first bit and a second bit may be stored into a first virtual queue and the bits are transmitted to a first predetermined group of ODU containers (46a-n), and a second packet having a second destination address and a third bit and a fourth bit may be stored into a second virtual queue and the bits are transmitted to a second predetermined group of ODU containers (46a-n), wherein the distribution engine (36a-n) is further configured to provide a first set of deskewing markers to an optical port (28, 54) indicating a first sequence of the first bit and the second bit, and to provide a second set of deskewing markers to the optical port indicative of a second sequence of the third bit and the fourth bit.
A computer enabled method of communicating between a client and a server over a computer network, the method comprising: generating a first token (R1, R2, Device Certificate) at the client; transmitting the first token to the server; receiving at the client in response a second token (WS/Sauth) which is a function of the first token; decrypting a first portion of the second token at the client, wherein a second portion (Sauth) of the second token represents a state of the server, wherein only the server is capable of fully retrieving the state; verifying from the decrypted first portion that the server received the first token; extracting a session key from the decrypted first portion of the second token; establishing a communication session with the server; and transmitting from the client a communications request (HTTP GET) to the server, the request accompanied by the second portion (Sauth) of the second token and a proof (HMAC) based on the session key. generating a first token (R1, R2, Device Certificate) at the client; transmitting the first token to the server; receiving at the client in response a second token (WS/Sauth) which is a function of the first token; decrypting a first portion of the second token at the client, wherein a second portion (Sauth) of the second token represents a state of the server, wherein only the server is capable of fully retrieving the state; verifying from the decrypted first portion that the server received the first token; extracting a session key from the decrypted first portion of the second token; establishing a communication session with the server; and transmitting from the client a communications request (HTTP GET) to the server, the request accompanied by the second portion (Sauth) of the second token and a proof (HMAC) based on the session key.
An ultrasonic surgical instrument, comprising: a housing having an elongated shaft extending therefrom, the shaft defining a longitudinal axis therethrough and having a jaw member disposed at a distal end thereof, the jaw member movable between an open configuration and a clamping configuration, the jaw member including a tissue contacting surface (315, 415) having a laminate liner (319, 419) disposed thereon, and a cutting blade (317, 417) extending from a distal end of the shaft and operably coupled to the housing and adjacent the jaw member to treat tissue characterized in that there are a plurality of, laminate liners stacked upon one another and selectively removable from one another; a housing having an elongated shaft extending therefrom, the shaft defining a longitudinal axis therethrough and having a jaw member disposed at a distal end thereof, the jaw member movable between an open configuration and a clamping configuration, the jaw member including a tissue contacting surface (315, 415) having a laminate liner (319, 419) disposed thereon, and a cutting blade (317, 417) extending from a distal end of the shaft and operably coupled to the housing and adjacent the jaw member to treat tissue characterized in that there are a plurality of, laminate liners stacked upon one another and selectively removable from one another;
A tower, in particular for a wind turbine, comprising an upper tubular tower portion and a lower lattice-like tower portion having at least three support members, and comprising a transition piece connecting the upper tower portion to the lower tower portion, wherein the support members in an upper support member portion have connection profiles for connecting the support members to the transition piece, and the support members are arranged substantially around a vertical tower longitudinal axis, preferably rotationally symmetrically, wherein each of the support members has at least two portions inclined relative to the perpendicular and in a first, upper of the portions encloses an angle α with the perpendicular, in a second, lower of the portions encloses an angle β with the perpendicular, and the angle β is smaller than the angle α, and wherein the transition piece for connection of the upper tower portion to the lower tower portion has an upper connection element for connecting the transition piece to the upper tower portion, characterized in that the transition piece for connection of the upper tower portion to the lower tower portion has an inner lateral surface widening upwardly in the form of a frustum of a cone and comprises at least three outer connection faces, which are arranged on an outer side of the transition piece substantially rotationally symmetrically about a cone frustum longitudinal axis and at which the transition piece is connected to one each of the support members, wherein a cross-section of each of the connection profiles changes continuously along an elongate extent along a connection profile longitudinal axis of the connection profile. characterized in that the transition piece for connection of the upper tower portion to the lower tower portion has an inner lateral surface widening upwardly in the form of a frustum of a cone and comprises at least three outer connection faces, which are arranged on an outer side of the transition piece substantially rotationally symmetrically about a cone frustum longitudinal axis and at which the transition piece is connected to one each of the support members, wherein a cross-section of each of the connection profiles changes continuously along an elongate extent along a connection profile longitudinal axis of the connection profile.
A medical device, comprising: a sensing circuit configured to sense a first cardiac electrical signal; a control circuit configured to: determine, from the first cardiac electrical signal, at least one of a maximum peak amplitude (262, 272) of a positive slope of the first cardiac electrical signal and a maximum peak time interval (260, 270) from a pacing pulse to the maximum peak amplitude of the positive slope; and determine a capture type of the pacing pulse as being one of non-selective His-Purkinje system capture or ventricular myocardial capture based on at least one of the maximum peak amplitude and the maximum peak time interval. a sensing circuit configured to sense a first cardiac electrical signal; a control circuit configured to: determine, from the first cardiac electrical signal, at least one of a maximum peak amplitude (262, 272) of a positive slope of the first cardiac electrical signal and a maximum peak time interval (260, 270) from a pacing pulse to the maximum peak amplitude of the positive slope; and determine a capture type of the pacing pulse as being one of non-selective His-Purkinje system capture or ventricular myocardial capture based on at least one of the maximum peak amplitude and the maximum peak time interval. determine, from the first cardiac electrical signal, at least one of a maximum peak amplitude (262, 272) of a positive slope of the first cardiac electrical signal and a maximum peak time interval (260, 270) from a pacing pulse to the maximum peak amplitude of the positive slope; and determine a capture type of the pacing pulse as being one of non-selective His-Purkinje system capture or ventricular myocardial capture based on at least one of the maximum peak amplitude and the maximum peak time interval.
A damping device comprising: an arm that includes a longitudinally extending slot and a cylinder cut-out defined therein, and a damping assembly secured in the cylinder cut-out, wherein the damping assembly includes a cylinder housing with a chamber (50a, 50b) having a piston and fluid disposed therein, wherein the piston includes a rod with a head on a distal end thereof that extends outside the cylinder housing and into the slot, chracterized in that the damping assembly includes a biasing member extending between the cylinder housing and the head; wherein the head is configured to contact a pin for providing a damping of a door rotation and the pin is receivable in the longitudinally extending slot and in an aligned opening in the door. an arm that includes a longitudinally extending slot and a cylinder cut-out defined therein, and a damping assembly secured in the cylinder cut-out, wherein the damping assembly includes a cylinder housing with a chamber (50a, 50b) having a piston and fluid disposed therein, wherein the piston includes a rod with a head on a distal end thereof that extends outside the cylinder housing and into the slot, chracterized in that the damping assembly includes a biasing member extending between the cylinder housing and the head; wherein the head is configured to contact a pin for providing a damping of a door rotation and the pin is receivable in the longitudinally extending slot and in an aligned opening in the door.
A mobile relay node comprising a first connection unit configured to provide connection to a user equipment, and a processor configured to detect whether a handover of the user equipment from the mobile relay node to a target cell is required, and, if a handover is required, to establish mobility information regarding a mobility state of the mobile relay node as mobility information of the user equipment, and to send the mobility information to at least one network element involved in the handover of the user equipment.
Fracturing fluid comprising at least one aqueous phase, a proppant and at least one water-soluble polymer of 2-acrylamido-2-methylpropanesulphonic acid, 2-acrylamido-2-methylpropanesulfonic acid being, before polymerization, a crystalline form of the sodium salt of 2-acrylamido-2-methylpropanesulfonic acid having a powder X-ray diffraction pattern comprising peaks at 11.7°; 12.2°; 13.2°; 13.5°; 15.6°; 16.8°; 17.8°; 18.5°; 19.1°; 20.6°; 21.4°; 23.3°; 25.1°; 25.8°; 26.9°; 29.1°; 29.5°; 31.0°; 33.0°; 33.6°; 34.4°; 35.2°; 35.9°; 37.1°; 38.4°; 39.6°; 41.1°; 42.9°; 45.1°; 46.0°; 47.2°; 47.6° degrees 2-theta.