mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling connections that pass through at least one serving gateway of a radio telecommunications network at a serving gateway support node, the method comprising the steps of: receiving at the serving gateway support node (140, 142) a first message from an operator requesting that at least some connections be offloaded from a first serving gateway upon failure of communications to the first serving gateway; responding to the first message by the serving gateway support node (140, 142) relocating at least some of the connections from the first serving gateway to a second serving gateway, characterized by ceasing relocation of at least some of the existing connections that have not yet been relocated when the serving gateway support node (140, 142) detects recovery of communications to the first serving gateway; and restoring at least some of the existing connections to the first serving gateway by communicating bearer context information to the first serving gateway for each of the existing connections that is to be restored to the first serving gateway. receiving at the serving gateway support node (140, 142) a first message from an operator requesting that at least some connections be offloaded from a first serving gateway upon failure of communications to the first serving gateway; responding to the first message by the serving gateway support node (140, 142) relocating at least some of the connections from the first serving gateway to a second serving gateway, characterized by ceasing relocation of at least some of the existing connections that have not yet been relocated when the serving gateway support node (140, 142) detects recovery of communications to the first serving gateway; and restoring at least some of the existing connections to the first serving gateway by communicating bearer context information to the first serving gateway for each of the existing connections that is to be restored to the first serving gateway.
An electromechanical manipulandum device, comprising: a backdrivable drive system comprising a plurality of electrical motors; an arm driveable by the drive system and having three degrees-of-freedom of motion; a capstan transmission for transmitting actuating force from the drive system to the arm; an end-effector only coupled to the arm at a single point, the end-effector configured to engage a user and having at least three degrees-of-freedom of rotational motion; and a control system configured to control the drive system such as to provide a force to the end-effector in a selected direction and to enable backdrivability of the electrical motors. a backdrivable drive system comprising a plurality of electrical motors; an arm driveable by the drive system and having three degrees-of-freedom of motion; a capstan transmission for transmitting actuating force from the drive system to the arm; an end-effector only coupled to the arm at a single point, the end-effector configured to engage a user and having at least three degrees-of-freedom of rotational motion; and a control system configured to control the drive system such as to provide a force to the end-effector in a selected direction and to enable backdrivability of the electrical motors.
An apparatus (100, 300, 400, 500), comprising: one or more tactile cues (105, 185, 305, 310, 340, 435, 510) configured to facilitate user actuation of one or more features associated with respective tactile cues; and a touch sensitive area (120, 315, 405, 520) configured to identify one or more user actuations facilitated by one or more of the tactile cues; and wherein the apparatus (100, 300, 400, 500) is configured to: execute the one or more features associated with the one or more identified user actuations; the apparatus being characterised by being further configured to modify a parameter of the executed one or more features in response to movement of the one or more user actuations, the one or more user actuations based on user contact starting at the one or more of the tactile cues, and the movement of the one or more user actuations based at least in part on the user contact on the touch sensitive area moving away from the one or more tactile cues. one or more tactile cues (105, 185, 305, 310, 340, 435, 510) configured to facilitate user actuation of one or more features associated with respective tactile cues; and a touch sensitive area (120, 315, 405, 520) configured to identify one or more user actuations facilitated by one or more of the tactile cues; and wherein the apparatus (100, 300, 400, 500) is configured to: execute the one or more features associated with the one or more identified user actuations; the apparatus being characterised by being further configured to modify a parameter of the executed one or more features in response to movement of the one or more user actuations, the one or more user actuations based on user contact starting at the one or more of the tactile cues, and the movement of the one or more user actuations based at least in part on the user contact on the touch sensitive area moving away from the one or more tactile cues. execute the one or more features associated with the one or more identified user actuations; the apparatus being characterised by being further configured to modify a parameter of the executed one or more features in response to movement of the one or more user actuations, the one or more user actuations based on user contact starting at the one or more of the tactile cues, and the movement of the one or more user actuations based at least in part on the user contact on the touch sensitive area moving away from the one or more tactile cues. the one or more user actuations based on user contact starting at the one or more of the tactile cues, and the movement of the one or more user actuations based at least in part on the user contact on the touch sensitive area moving away from the one or more tactile cues.
A polyester resin composition comprising: 97.0% by mass or more and 99.9% by mass or less of a polyester resin; and 0.1% by mass or more and 3.0% by mass or less of a polycarbodiimide, wherein a dicarboxylic acid constituent unit in the polyester resin comprises a terephthalic acid unit and/or a 2,6-naphthalenedicarboxylic acid unit, 5% by mol or more and 90% by mol or less of a diol constituent unit in the polyester resin is a unit derived from a diol having a cyclic acetal skeleton represented by the following formula or formula, and 0% by mol or more and 90% by mol or less of the diol constituent unit is a unit derived from an alicyclic diol, and the polycarbodiimide has two or more carbodiimide groups in one molecule thereof: wherein R 1 and R 2 each independently represent an aliphatic group having 1 to 10 carbon atoms, an alicyclic group having 3 or more and 10 or less carbon atoms, or an aromatic group having 6 or more and 10 or less carbon atoms, and wherein R 1 is as defined above; and R 3 represents an aliphatic group having 1 or more and 10 or less carbon atoms, an alicyclic group having 3 or more and 10 or less carbon atoms, or an aromatic group having 6 or more and 10 or less carbon atoms. wherein a dicarboxylic acid constituent unit in the polyester resin comprises a terephthalic acid unit and/or a 2,6-naphthalenedicarboxylic acid unit, 5% by mol or more and 90% by mol or less of a diol constituent unit in the polyester resin is a unit derived from a diol having a cyclic acetal skeleton represented by the following formula or formula, and 0% by mol or more and 90% by mol or less of the diol constituent unit is a unit derived from an alicyclic diol, and the polycarbodiimide has two or more carbodiimide groups in one molecule thereof: wherein R 1 and R 2 each independently represent an aliphatic group having 1 to 10 carbon atoms, an alicyclic group having 3 or more and 10 or less carbon atoms, or an aromatic group having 6 or more and 10 or less carbon atoms, and wherein R 1 is as defined above; and R 3 represents an aliphatic group having 1 or more and 10 or less carbon atoms, an alicyclic group having 3 or more and 10 or less carbon atoms, or an aromatic group having 6 or more and 10 or less carbon atoms.
A system, comprising: a first inlet providing bleed air from a source which in turn is provided to a chamber; a compressing device in communication with the first inlet, wherein the compressing device comprises: a compressor configured to receive the bleed air a first turbine downstream of the compressor, a second turbine configured to receive the bleed air; and at least one heat exchanger, wherein the at least one heat exchanger comprises a plurality of passes by which the bleed air flows, wherein an outlet of a first pass of the plurality of passes is in fluid communication with an inlet of the compressor, wherein an outlet of a final pass of the plurality of passes is in fluid communication with an inlet of the first turbine, wherein the system is configured to operate in at least two modes comprising a first mode and a second mode, wherein, in the first mode, the bleed air is mixed with a recirculation air recirculated from the chamber at a first mixing point, and wherein, in the second mode, the bleed air is mixed with the recirculation air at a second mixing point, characterized in that the first mixing point is located downstream of the compressor of the compressing device, wherein the first mixing point is downstream of the first pass of the plurality of passes, and wherein the second mixing point is downstream of the first turbine. a first inlet providing bleed air from a source which in turn is provided to a chamber; a compressing device in communication with the first inlet, wherein the compressing device comprises: a compressor configured to receive the bleed air a first turbine downstream of the compressor, a second turbine configured to receive the bleed air; and a compressor configured to receive the bleed air a first turbine downstream of the compressor, a second turbine configured to receive the bleed air; and at least one heat exchanger, wherein the at least one heat exchanger comprises a plurality of passes by which the bleed air flows, wherein an outlet of a first pass of the plurality of passes is in fluid communication with an inlet of the compressor, wherein an outlet of a final pass of the plurality of passes is in fluid communication with an inlet of the first turbine, wherein the system is configured to operate in at least two modes comprising a first mode and a second mode, wherein, in the first mode, the bleed air is mixed with a recirculation air recirculated from the chamber at a first mixing point, and wherein, in the second mode, the bleed air is mixed with the recirculation air at a second mixing point,
A material represented by the following formula (M') 8 (M"M''') 6 O 24 (X,S) 2:M'''' formula wherein M' represents a combination of at least two monoatomic cations of different alkali metals selected from a group consisting of Li, Na, K, and Rb; M" represents a trivalent monoatomic cation of an element selected from Group 13 of the IUPAC periodic table of the elements, or of a transition element selected from any of Groups 3 - 12 of the IUPAC periodic table of the elements, or any combination of such cations; M''' represents a monoatomic cation of an element selected from Group 14 of the IUPAC periodic table of the elements, or any combination of such cations; X represents an anion of an element selected from Group 16 of the IUPAC periodic table of the elements, or any combination of such anions, or X represents an anion of an element selected from a group consisting of F, Cl, Br, and I, or any combination of such anions; and M'''' represents a dopant cation of an element selected from rare earth metals of the IUPAC periodic table of the elements, or from transition metals of the IUPAC periodic table of the elements, or any combination of such cations, or wherein M'''' is absent. M' represents a combination of at least two monoatomic cations of different alkali metals selected from a group consisting of Li, Na, K, and Rb; M" represents a trivalent monoatomic cation of an element selected from Group 13 of the IUPAC periodic table of the elements, or of a transition element selected from any of Groups 3 - 12 of the IUPAC periodic table of the elements, or any combination of such cations; M''' represents a monoatomic cation of an element selected from Group 14 of the IUPAC periodic table of the elements, or any combination of such cations; X represents an anion of an element selected from Group 16 of the IUPAC periodic table of the elements, or any combination of such anions, or X represents an anion of an element selected from a group consisting of F, Cl, Br, and I, or any combination of such anions; and M'''' represents a dopant cation of an element selected from rare earth metals of the IUPAC periodic table of the elements, or from transition metals of the IUPAC periodic table of the elements, or any combination of such cations, or wherein M'''' is absent.
A system comprising: a fracturing manifold; a fracturing tree coupled to the fracturing manifold to enable receipt of fracturing fluid from the fracturing manifold; an adjustment joint (62,64) including an inlet, an outlet, and a bore to transmit the fracturing fluid through the adjustment joint, wherein the adjustment joint is configured to be varied in length to facilitate coupling of the fracturing manifold to the fracturing tree; and a valve coupled between the fracturing manifold and the fracturing tree to control flow of fracturing fluid from the fracturing manifold to the fracturing tree, characterized in that the adjustment joint is disposed between the valve and the fracturing tree to enable variation in the length of a fluid connection between the valve and the fracturing tree, and the system further comprises an additional adjustment joint (62, 64) disposed between the valve and the fracturing tree to enable variation in the length of the fluid connection between the valve and the fracturing tree, wherein the adjustment joint (62, 64) and the additional adjustment joint (62, 64) enable variation in the length of the fluid connection in different directions from one another. a fracturing manifold; a fracturing tree coupled to the fracturing manifold to enable receipt of fracturing fluid from the fracturing manifold; an adjustment joint (62,64) including an inlet, an outlet, and a bore to transmit the fracturing fluid through the adjustment joint, wherein the adjustment joint is configured to be varied in length to facilitate coupling of the fracturing manifold to the fracturing tree; and a valve coupled between the fracturing manifold and the fracturing tree to control flow of fracturing fluid from the fracturing manifold to the fracturing tree, characterized in that the adjustment joint is disposed between the valve and the fracturing tree to enable variation in the length of a fluid connection between the valve and the fracturing tree, and the system further comprises an additional adjustment joint (62, 64) disposed between the valve and the fracturing tree to enable variation in the length of the fluid connection between the valve and the fracturing tree, wherein the adjustment joint (62, 64) and the additional adjustment joint (62, 64) enable variation in the length of the fluid connection in different directions from one another.
A tool for metal forming comprising a cemented carbide composition containing in wt % (weight%): 2.95 to 3.15 Ni; 0.1 to 2.5 Cr 3 C 2; 0.1 to 2.5 Mo; and a balance of WC; 2.95 to 3.15 Ni; 0.1 to 2.5 Cr 3 C 2; 0.1 to 2.5 Mo; and a balance of WC;
A method for positioning an electronic device, wherein the method comprises: obtaining (S131, 22), by a prediction server, a prediction request sent by a service server, wherein the prediction request is generated by the service server based on a positioning query request sent by a terminal device, and the positioning query request carries a device identifier of the electronic device, determining, by the prediction server, historical data of the electronic device based on the device identifier, and generating query prediction information; and outputting (S133, 23), by the prediction server, the query prediction information, wherein the query prediction information is output to the service server for forwarding of the query prediction information to the terminal device before the service server feeds back, to the terminal device, a positioning query result generated based on position information fed back by the electronic device in response to a positioning query instruction sent by the service server to the electronic device; wherein the query prediction information includes query waiting duration and/or a positioning success rate. obtaining (S131, 22), by a prediction server, a prediction request sent by a service server, wherein the prediction request is generated by the service server based on a positioning query request sent by a terminal device, and the positioning query request carries a device identifier of the electronic device, determining, by the prediction server, historical data of the electronic device based on the device identifier, and generating query prediction information; and outputting (S133, 23), by the prediction server, the query prediction information, wherein the query prediction information is output to the service server for forwarding of the query prediction information to the terminal device before the service server feeds back, to the terminal device, a positioning query result generated based on position information fed back by the electronic device in response to a positioning query instruction sent by the service server to the electronic device; wherein the query prediction information includes query waiting duration and/or a positioning success rate.
Self-propelled construction machine, in particular slipform paving machine, comprising a machine frame, at least three travelling devices, wherein the travelling devices are each connected to the machine frame by means of lifting columns, wherein at least one of the at least three travelling devices is steerable by means of one each steering drive, wherein the respective steering drive comprises at least one first part, which is connected to the respective travelling device, and one second part, which is connected to the respective lifting column. characterized in that the steering drive comprises at least one first toothed rack, wherein the first toothed rack is movable by means of at least one first linear drive means, wherein teeth of the at least one toothed rack engage with teeth of at least one toothed wheel, and the toothed wheel is thus rotatable by means of the movement of the toothed rack. a machine frame, at least three travelling devices, wherein the travelling devices are each connected to the machine frame by means of lifting columns, wherein at least one of the at least three travelling devices is steerable by means of one each steering drive, wherein the respective steering drive comprises at least one first part, which is connected to the respective travelling device, and one second part, which is connected to the respective lifting column. characterized in that the steering drive comprises at least one first toothed rack, wherein the first toothed rack is movable by means of at least one first linear drive means, wherein teeth of the at least one toothed rack engage with teeth of at least one toothed wheel, and the toothed wheel is thus rotatable by means of the movement of the toothed rack.
A cyclic peptide comprising the amino acid sequence of Xaa m - (Arg) n - Glu o wherein Xaa is selected from Lys, ornithine (2,5-diaminopentanoic acid), 2,4-diaminobutanoic acid, 2,3-diaminopropanoic acid, m is at least 1, n is selected from 2 to 8, o is 0 or 1, and a hydrophobic modification, wherein said hydrophobic modification is an acylation with C12 to C22 fatty acids, an acylation with C12 to C22 dicarboxylic acids or an acylation with a fatty acid containing phenyl group, wherein the peptide is cyclized via (a) head-to-side chain cyclization, preferably the side chain of the C-terminal Glu, (b) head-to-tail cyclization, (c) backbone cyclization, (d) amide condensation of two amino acid side chains (lactam), (e) thioether formation, (f) hydrogen bond formation, and/or (g) side chain-to-tail cyclization. wherein Xaa is selected from Lys, ornithine (2,5-diaminopentanoic acid), 2,4-diaminobutanoic acid, 2,3-diaminopropanoic acid, m is at least 1, n is selected from 2 to 8, o is 0 or 1, and a hydrophobic modification, wherein said hydrophobic modification is an acylation with C12 to C22 fatty acids, an acylation with C12 to C22 dicarboxylic acids or an acylation with a fatty acid containing phenyl group, wherein the peptide is cyclized via (a) head-to-side chain cyclization, preferably the side chain of the C-terminal Glu, (b) head-to-tail cyclization, (c) backbone cyclization, (d) amide condensation of two amino acid side chains (lactam), (e) thioether formation, (f) hydrogen bond formation, and/or (g) side chain-to-tail cyclization. and a hydrophobic modification, wherein said hydrophobic modification is an acylation with C12 to C22 fatty acids, an acylation with C12 to C22 dicarboxylic acids or an acylation with a fatty acid containing phenyl group, wherein the peptide is cyclized via (a) head-to-side chain cyclization, preferably the side chain of the C-terminal Glu, (b) head-to-tail cyclization, (c) backbone cyclization, (d) amide condensation of two amino acid side chains (lactam), (e) thioether formation, (f) hydrogen bond formation, and/or (g) side chain-to-tail cyclization. (a) head-to-side chain cyclization, preferably the side chain of the C-terminal Glu, (b) head-to-tail cyclization, (c) backbone cyclization, (d) amide condensation of two amino acid side chains (lactam), (e) thioether formation, (f) hydrogen bond formation, and/or (g) side chain-to-tail cyclization.
A random access method comprising: a duplication step of duplicating a transmission packet; an assignment step of assigning the plurality of duplicated transmission packets to a random access channel; and a transmission step of transmitting the plurality of said transmission packets in accordance with an assignment result in said assignment step; wherein, in said assignment step, the plurality of duplicated transmission packets are assigned to subcarriers in the random access channel. a duplication step of duplicating a transmission packet; an assignment step of assigning the plurality of duplicated transmission packets to a random access channel; and a transmission step of transmitting the plurality of said transmission packets in accordance with an assignment result in said assignment step; wherein, in said assignment step, the plurality of duplicated transmission packets are assigned to subcarriers in the random access channel.