mhurhangee/ep-ind-claims huggingface dataset:
A method for automatic segmentation of intra-cochlear anatomy of a patient having an implanted ear and a normal contralateral ear, comprising: obtaining at least one computed tomography, CT, image to generate a first image corresponding to the normal contralateral ear and a second image corresponding to the implanted ear; segmenting intra-cochlear surfaces of at least one first structure of interest, SOI, of the normal contralateral ear in the first image; and projecting the segmented intra-cochlear surfaces in the first image to the second image using a transformation function, thereby obtaining projected segmented intracochlear surfaces for the implanted ear in the second image. obtaining at least one computed tomography, CT, image to generate a first image corresponding to the normal contralateral ear and a second image corresponding to the implanted ear; segmenting intra-cochlear surfaces of at least one first structure of interest, SOI, of the normal contralateral ear in the first image; and projecting the segmented intra-cochlear surfaces in the first image to the second image using a transformation function, thereby obtaining projected segmented intracochlear surfaces for the implanted ear in the second image.
A virtual machine migration method performed by a switch, comprising: receiving (101, 201, 301, 401) a message sent by a server, wherein the message is used to enable a switch to discover a connected virtual machine interface; wherein the message is a Virtual Station Interface Discovery and Configuration Protocol, VDP, message, characterized in that the VDP message comprises a flag bit, wherein the flag bit is an added bit in the Reason field of a type length value, TLV, information string of the message; obtaining (101, 201, 301, 401), from the message, the flag bit; and determining, according to the flag bit, whether the virtual machine is a virtual machine that is newly migrating to the server or is newly created. receiving (101, 201, 301, 401) a message sent by a server, wherein the message is used to enable a switch to discover a connected virtual machine interface; wherein the message is a Virtual Station Interface Discovery and Configuration Protocol, VDP, message, characterized in that the VDP message comprises a flag bit, wherein the flag bit is an added bit in the Reason field of a type length value, TLV, information string of the message; obtaining (101, 201, 301, 401), from the message, the flag bit; and determining, according to the flag bit, whether the virtual machine is a virtual machine that is newly migrating to the server or is newly created.
A cyclic peptide of formula I: wherein X 0, X 1, X 2 and X 3 each independently represents an amino acid residue, each amino acid residue in the ring being joined by a peptide bond; the sequence X 1 -X 2 -X 3 is present in an integrin-binding loop of a disintegrin domain of an ADAM protease; and n is 0 to 4; wherein X 1, X 2 and X 3 are selected such that the cyclic peptide comprises one of the following amino acid sequences: KDK, KDM, TSE, KDE, SNS, ARQ, MGD, DSD, RGD, NAT, VRQ, ATD & TDD; or a pharmaceutically acceptable salt thereof; for use in treating a disease or condition associated with ADAM protease activity selected from cancer, an inflammatory condition or allergy. wherein X 0, X 1, X 2 and X 3 each independently represents an amino acid residue, each amino acid residue in the ring being joined by a peptide bond; the sequence X 1 -X 2 -X 3 is present in an integrin-binding loop of a disintegrin domain of an ADAM protease; and n is 0 to 4; wherein X 1, X 2 and X 3 are selected such that the cyclic peptide comprises one of the following amino acid sequences: KDK, KDM, TSE, KDE, SNS, ARQ, MGD, DSD, RGD, NAT, VRQ, ATD & TDD; or a pharmaceutically acceptable salt thereof; for use in treating a disease or condition associated with ADAM protease activity selected from cancer, an inflammatory condition or allergy.
A transmitter for receiving feedback information in a MIMO system, comprising: a channel state detector for receiving channel setting information from a receiver (200, 300) after transmitting a reference channel quality information, CQI, to the receiver, and detecting a channel state of the receiver depending on information on the received channel setting information; and a controller for controlling beam forming of a plurality of antennas using the detected channel state, wherein the reference CQI is a threshold used for setting channels of the receivers to an Activation or Inactivation state, and the channel setting information comprises Activation/Inactivation signals indicating Activation and/or Inactivation states of the channels. a channel state detector for receiving channel setting information from a receiver (200, 300) after transmitting a reference channel quality information, CQI, to the receiver, and detecting a channel state of the receiver depending on information on the received channel setting information; and a controller for controlling beam forming of a plurality of antennas using the detected channel state, wherein the reference CQI is a threshold used for setting channels of the receivers to an Activation or Inactivation state, and the channel setting information comprises Activation/Inactivation signals indicating Activation and/or Inactivation states of the channels.
A medical device comprising: a therapy delivery circuit configured to generate cardiac pacing pulses; a sensing circuit configured to receive a first cardiac signal from a patient's heart via sensing electrodes and sense intrinsic cardiac electrical events from the first cardiac signal; and a control circuit coupled to the sensing circuit and the therapy delivery circuit and configured to: start a pacing interval; detect an event interval that is greater than a P-wave oversensing threshold interval, the event interval extending from an intrinsic cardiac electrical event sensed from the first cardiac signal by the sensing circuit to a most recent preceding cardiac event; determine a first amplitude of the first cardiac signal in response to detecting the event interval greater than the P-wave oversensing threshold interval; withhold restarting of the pacing interval in response to at least the first amplitude satisfying P-wave oversensing criteria; and control the therapy delivery circuit to generate a pacing pulse in response to the pacing interval expiring. a therapy delivery circuit configured to generate cardiac pacing pulses; a sensing circuit configured to receive a first cardiac signal from a patient's heart via sensing electrodes and sense intrinsic cardiac electrical events from the first cardiac signal; and a control circuit coupled to the sensing circuit and the therapy delivery circuit and configured to: start a pacing interval; detect an event interval that is greater than a P-wave oversensing threshold interval, the event interval extending from an intrinsic cardiac electrical event sensed from the first cardiac signal by the sensing circuit to a most recent preceding cardiac event; determine a first amplitude of the first cardiac signal in response to detecting the event interval greater than the P-wave oversensing threshold interval; withhold restarting of the pacing interval in response to at least the first amplitude satisfying P-wave oversensing criteria; and control the therapy delivery circuit to generate a pacing pulse in response to the pacing interval expiring. start a pacing interval; detect an event interval that is greater than a P-wave oversensing threshold interval, the event interval extending from an intrinsic cardiac electrical event sensed from the first cardiac signal by the sensing circuit to a most recent preceding cardiac event; determine a first amplitude of the first cardiac signal in response to detecting the event interval greater than the P-wave oversensing threshold interval; withhold restarting of the pacing interval in response to at least the first amplitude satisfying P-wave oversensing criteria; and control the therapy delivery circuit to generate a pacing pulse in response to the pacing interval expiring.
Multi-pass digital printing machine for plate glass with minimization of print travel of the kind that comprises a support structure to hold the glass by means of automatic positioning for the positioning and bracing of a sheet of glass during the digital printing, means of expelling the sheet of glass, and means of transporting the glass when no printing is happening, a print bridge wherein the print bridge can move in a X direction or longitudinal axis of the machine, a print carriage supported on the print bridge and movable along the length of said print bridge in a Y direction or longitudinal axis of the bridge wherein the print carriage is, and a central device for data processing and control configured to order the printing with multiple passes along the X or Y direction corresponding to the longest X' or Y' reference dimension wherein X' and y' are the maximum print reference or movement dimensions in the X and Y directions, wherein: said print carriage comprises a main support with at least one print module (32, 42) configured with print heads (33,43) orientated to print during the print bridge's movement along the X direction, wherein said print module (32,42) is fed by a colored ink; said machine also comprises two motors, each motor including a micrometric encoder, said motors configured to control the movement of said print bridge in the X direction; and said central unit configured to simultaneously order the movement of the print bridge in the X direction, and the printing by said print heads (33, 43). said machine also comprises two motors, each motor including a micrometric encoder, said motors configured to control the movement of said print bridge in the X direction; and said central unit configured to simultaneously order the movement of the print bridge in the X direction, and the printing by said print heads (33, 43).
A pipe clamp comprising: an annular clamp housing having an opening for inserting therein a pipe; opposing clamp members located near ends of said annular clamp housing; one or more tightening elements for fastening and tightening said clamp members towards each other in a direction transverse to an axial length of said annular clamp housing; and an annular seal placed in an inner perimeter of said annular clamp housing; wherein one portion of said annular seal is attached to said annular clamp housing with one or more mechanical fasteners characterised in that another portion of said annular seal is slidingly attached to said annular clamp housing with one or more mechanical fasteners so that said annular seal is permitted to move and expand radially about as said pipe clamp is tightened by one or more tightening elements. an annular clamp housing having an opening for inserting therein a pipe; opposing clamp members located near ends of said annular clamp housing; one or more tightening elements for fastening and tightening said clamp members towards each other in a direction transverse to an axial length of said annular clamp housing; and an annular seal placed in an inner perimeter of said annular clamp housing; wherein one portion of said annular seal is attached to said annular clamp housing with one or more mechanical fasteners characterised in that another portion of said annular seal is slidingly attached to said annular clamp housing with one or more mechanical fasteners so that said annular seal is permitted to move and expand radially about as said pipe clamp is tightened by one or more tightening elements.
Fire-resistant profile component for producing frame elements for windows, doors, walls or facades, comprising two substantially U-shaped part profiles, in particular of extruded aluminium, which form an inner supporting shell and an outer supporting shell, wherein each of the U-shaped part profiles (2, 3) comprises a transverse leg and two U-legs which are connected at their free leg ends by means of thermally separating insulating webs to form a composite profile surrounding a hollow chamber, and the hollow chamber is at least partially filled with a filling body profile made of a fire protection insulating material, wherein the filling body profile is arranged both in the outer supporting shell and the inner supporting shell, with the result that the outer supporting shell and the inner supporting shell are filled, in a plane parallel to their transverse leg, by the filling body profile with shielding portions extending over their clear width, wherein one or more clearances (14, 14a, 14b, 14c) is or are formed in the filling body profile in such a way that fitting elements (15, 15a), for example lock cases, lock cylinders or door handles, can be inserted therein, characterized in that the shielding portions are connected by in each case a core portion, and the filling body profile is produced from the shielding portions and the core portion as a one-part profile, or the filling body profile with the shielding portions consists of a plurality of prefabricated profile parts (13, 13a, 13b, 13c) put together, wherein the clearance or the clearances (14, 14a, 14b, 14c) is or are formed in the region of the core portion between the shielding portions, wherein the one-part profile or the individual profile parts (13, 13a, 13b, 13c) is or are dimensioned in their cross section under the influence of the clearances (14, 14a, 14b, 14c) in such a way that the required thermal insulation for the in each case required fire resistance times of 30 min, 60 min, 90 min or 120 min measured according to DIN EN 1634-1: 2009-01 and DIN EN 1364-1: 2011-11 are achieved.
A mold for producing molded articles, the mold comprising a first mold and a second mold releasingly engageable between an open position and a closed position, the closed position defining a mold cavity, a surface of the mold cavity comprising a plurality of grooves arranged to form a network of grooves and connected to at least one vent; wherein the vent comprises a passageway and an obstruction in the passageway, wherein the obstruction and the passageway combine to form at least one opening, Characterized in that the obstruction is movable with respect to the passageway between a retracted first position and an extended second position where the vent is not sealed off, the vent having a greater capacity to allow gas to escape from the mold cavity in the first position than in the second position.
A pairing computation device, wherein an elliptic curve is given with F p being a finite field having a characteristic p as y 2 =x 3 +ax+b, a∈F p, b∈F p, letting k be an embedding degree, E be an additive group constituted of rational points on the pairing enabled elliptic curve defined over an extension field F p k, E[r] be a set of rational points having a prime order r, and φ p be a Frobenius endomorphism, a pairing e is defined using G 1 = E r ∩ Ker φ p − 1, G 2 = E r ∩ Ker φ p − p, as a non-degenerate bilinear map e: G 1 × G 2 → F * p k / F * p k r, characterized in that the pairing computation device comprises a CPU which computes the pairing e(S,Q), by letting S∈G 1, Q∈G 2, χ be a given integer variable, and f be a rational function which is calculated using Miller's algorithm, wherein the order r and a trace t of the Frobenius endomorphism φ p are specified preliminarily according to the embedding degree k using the integer variable χ, and the CPU includes: an input unit which inputs the integer variable χ, the rational point S, and the rational point Q into respective predetermined registers; a computation unit which computes f; a computation unit which computes a value of a straight line passing through given rational points with respect to the rational point Q; a computation unit which computes f' χ,S using said f and said value; and a computation unit which computes the pairing e(S,Q) using said f' χ,S as e S Q = f ′ χ, S Q p k − 1 / r. an input unit which inputs the integer variable χ, the rational point S, and the rational point Q into respective predetermined registers; a computation unit which computes f; a computation unit which computes a value of a straight line passing through given rational points with respect to the rational point Q; a computation unit which computes f' χ,S using said f and said value; and a computation unit which computes the pairing e(S,Q) using said f' χ,S as e S Q = f ′ χ, S Q p k − 1 / r.
A directory maintenance method, wherein the method comprises: sending, by a main memory according to a correspondence between a cache line and a cache, listening information to each cache corresponding to the cache line at a preset frequency; characterized in that: wherein said correspondence comprises: each cache line corresponds to at least one cache, and each cache in the at least one cache corresponds to the state of the cache line in the cache; receiving, by each cache corresponding to the cache line, the listening information, and sending, by each cache corresponding to the cache line, a listening response according to the listening information; and receiving, by the main memory, the listening responses sent by each cache, and updating a directory according to the listening responses, wherein each listening response comprises: a state of the cache line in the cache sending the listening response. sending, by a main memory according to a correspondence between a cache line and a cache, listening information to each cache corresponding to the cache line at a preset frequency; characterized in that: wherein said correspondence comprises: each cache line corresponds to at least one cache, and each cache in the at least one cache corresponds to the state of the cache line in the cache; receiving, by each cache corresponding to the cache line, the listening information, and sending, by each cache corresponding to the cache line, a listening response according to the listening information; and receiving, by the main memory, the listening responses sent by each cache, and updating a directory according to the listening responses, wherein each listening response comprises: a state of the cache line in the cache sending the listening response. wherein said correspondence comprises: each cache line corresponds to at least one cache, and each cache in the at least one cache corresponds to the state of the cache line in the cache; receiving, by each cache corresponding to the cache line, the listening information, and sending, by each cache corresponding to the cache line, a listening response according to the listening information; and receiving, by the main memory, the listening responses sent by each cache, and updating a directory according to the listening responses, wherein each listening response comprises: a state of the cache line in the cache sending the listening response.
An upper jaw fitting element for fitting to a human upper jaw, which is adapted as a dental arch-shaped upper jaw bite fork, which comprises, at least at the open end sections, receiving areas configured to reversibly receive, in particular with the aid of impression material, upper jaw tooth crowns in a manner as to be stable during manipulation, and which can be connected to at least one jaw relation element (6, 7, 8, 500) in the area of a vertex of the arch, which is a means for setting or detecting a jaw relation and/or a jaw relation movement of a patient, wherein the upper jaw bite fork comprises at least one opening for filling at least one intermediate space in the area of the anterior tooth crowns between the upper jaw bite fork and the upper jaw when worn by the patient, wherein the upper jaw bite fork comprises at least one spacer arranged on the surface facing the tooth crowns, which spacer is adapted for aligning the upper jaw bite fork such that between the anterior tooth crowns of the upper jaw and the upper jaw bite fork at least the intermediate space is formed when worn by the patient.
A structural seal with a structure sealing element for sealing against moisture and/or water for profiled structural bodies, in particular window connections, wherein the structural sealing element comprises a first pressing jaw and a second pressing jaw and at least one distance regulation means, wherein the first pressing jaw has a first pressing bracket and further preferably comprises a fixing bracket, wherein the second pressing jaw has a second pressing bracket, wherein the structural sealing element comprises a first state in which the first pressing bracket is spaced apart with a first average distance from the second pressing bracket, wherein the structural sealing element is, in particularly slidably, transferable, in particular movable, into a second state, in which the first pressing bracket is spaced apart at a second average distance from the second pressing bracket, wherein the second average distance is less than the first average distance, wherein the at least one distance regulation means is arranged and adapted to transfer the structural sealing element from the first into the second state, preferably wherein the at least one distance regulation means connects the first and second pressing jaw in the first and/or second state, characterized in that said structural seal comprises at least one sealing molded body, which is disposed between the first and second pressing brackets (5, 6).
An amine adduct, comprising the product obtainable by: (a) forming an addition intermediate by heating a mixture comprising at least one diene and at least one unsaturated fatty acyl compound, and (b) reacting the addition intermediate with a diamine to form the amine adduct, or (a) reacting at least one unsaturated fatty acyl compound with at least one diamine to form an amidoamine intermediate, and (b) heating a mixture of the amidoamine intermediate and at least one diene to form the amine adduct, or reacting at least one unsaturated fatty tertiary amine compound with at least at least one diene to form the amine adduct; wherein the diene is a (C 4 -C 30) conjugated diene selected from isoprene, butadiene, dimethylbutadiene and cyclic dienes, and wherein the diamine comprises one or more diamines according to structure: and wherein R 3 is a divalent hydrocarbon radical, optionally substituted on one or more carbon atoms with hydroxyl, and R 4 and R 5 are each independently alkyl, cycloalkyl, aryl, or aralkyl, or may be fused to form, together with the nitrogen atom to which they are each attached, a heterocyclic 4 to 8 membered ring. (a) forming an addition intermediate by heating a mixture comprising at least one diene and at least one unsaturated fatty acyl compound, and (b) reacting the addition intermediate with a diamine to form the amine adduct, or (a) forming an addition intermediate by heating a mixture comprising at least one diene and at least one unsaturated fatty acyl compound, and (b) reacting the addition intermediate with a diamine to form the amine adduct, or (a) reacting at least one unsaturated fatty acyl compound with at least one diamine to form an amidoamine intermediate, and (b) heating a mixture of the amidoamine intermediate and at least one diene to form the amine adduct, or (a) reacting at least one unsaturated fatty acyl compound with at least one diamine to form an amidoamine intermediate, and (b) heating a mixture of the amidoamine intermediate and at least one diene to form the amine adduct, or reacting at least one unsaturated fatty tertiary amine compound with at least at least one diene to form the amine adduct;