mhurhangee/patent-ind-claim-en huggingface dataset:
A method for handling radio link failure, comprising: requesting , by a device at network side, a terminal device to send an uplink signal according to a predefined first period, and detecting first signal quality of the uplink signal; characterized in that the method further comprises: if the device at the network side determines for continuous M1 times that the first signal quality is lower than a predefined first threshold, determining that the radio link of the terminal device is abnormal, and requesting the terminal device to send the uplink signal according to a predefined second period, and detecting second signal quality of the uplink signal, wherein M1 is a predefined first value; determining according to the second signal quality whether the radio link of the terminal device has been restored; when determining that restoration of the radio link of the terminal device is failed, releasing network resources corresponding to the radio link of the terminal device. requesting , by a device at network side, a terminal device to send an uplink signal according to a predefined first period, and detecting first signal quality of the uplink signal; characterized in that the method further comprises: if the device at the network side determines for continuous M1 times that the first signal quality is lower than a predefined first threshold, determining that the radio link of the terminal device is abnormal, and requesting the terminal device to send the uplink signal according to a predefined second period, and detecting second signal quality of the uplink signal, wherein M1 is a predefined first value; determining according to the second signal quality whether the radio link of the terminal device has been restored; when determining that restoration of the radio link of the terminal device is failed, releasing network resources corresponding to the radio link of the terminal device. if the device at the network side determines for continuous M1 times that the first signal quality is lower than a predefined first threshold, determining that the radio link of the terminal device is abnormal, and requesting the terminal device to send the uplink signal according to a predefined second period, and detecting second signal quality of the uplink signal, wherein M1 is a predefined first value; determining according to the second signal quality whether the radio link of the terminal device has been restored; when determining that restoration of the radio link of the terminal device is failed, releasing network resources corresponding to the radio link of the terminal device.
A method for sanitizing with heated purified water an external heat tolerant device coupled to an outlet of a heat sanitizable reverse osmosis (RO) system, the RO system having an inlet for receiving potable water from an external potable feed water supply and an internal storage tank for storing purified water, at least one RO membrane unit adapted to receive water from the potable feed water supply and configured to purify the water and deliver the purified water through a delivery conduit, the method comprising: (a) activating a heating power application system including a heating device configured to apply heat to the purified water flow and configured to deliver a heat sanitizing purified water flow continuously through to the external heat tolerant device; (b) initiating a variable frequency drive (VFD) pump coupled to the RO membrane unit inlet to operate at a first pumping rate until an average feed water supply temperature and a purified water flow rate is determined and then transitioning to a second pumping rate; and (c) providing a regulated flow of heated purified water by increasing or decreasing the VFD pumping rate as a function of water temperature fluctuations in the external potable water supply. (a) activating a heating power application system including a heating device configured to apply heat to the purified water flow and configured to deliver a heat sanitizing purified water flow continuously through to the external heat tolerant device; (b) initiating a variable frequency drive (VFD) pump coupled to the RO membrane unit inlet to operate at a first pumping rate until an average feed water supply temperature and a purified water flow rate is determined and then transitioning to a second pumping rate; and (c) providing a regulated flow of heated purified water by increasing or decreasing the VFD pumping rate as a function of water temperature fluctuations in the external potable water supply.
Lowerable sealing device, comprising a profiled guide rail , a lowerable and raisable sealing strip held in the profiled guide rail , a first force transmission bar which extends in the longitudinal direction of the profiled guide rail and is held so as to be displaceable therein in its longitudinal direction, at least one lowering element which comprises a spring, which lowering element is arranged in the profiled guide rail , is connected to the sealing strip and can be actuated by means of the first force transmission bar for the purpose of lowering the sealing strip , characterized in that means (4'; 4, 7, 10, 12, 62, 70, 91) are present, by means of which the sealing strip can be lowered by pulling the first force transmission bar .
An MPC control method for an industrial boiler wherein at least a couple of variable output parameters (P, L) are controlled through a supervisory cascade MPC control architecture for optimizing the boiler operation, at least the level (L) sensed by level sensor of the fluid to be heated in the boiler and the value of the steam pressure (P) produced by the boiler 680 and sensed by pressure sensors, wherein said MPC control architecture is provided upstream of a couple of PI controllers , one for the pressure (P) control and one for the fluid level (L) control; wherein said MPC control architecture is implemented by an MPC block receiving as input at least the feedback value of the steam pressure (P); wherein said MPC control architecture is implemented by an MPC block receiving as input at least the feedback value of the steam pressure (P); wherein said MPC block receives as a further input at least the feedback value of the fluid level (L); and wherein said MPC control architecture provides at least a first output (O1) dedicated to the predictive pressure control level and at least a second output (O2) dedicated to the predictive fluid level control.
A message transmission method, wherein the method is performed by an access controller being an entity in an optical line termination, OLT, of a passive optical network, PON, or between the OLT and a relay server, wherein the method comprises: receiving , by the access controller, a first message sent by an access node, wherein the first message comprises a first identifier; obtaining, by the access controller, a line identifier according to the first identifier; generating, by the access controller, a second message, wherein the second message comprises the line identifier; and sending , by the access controller, the second message to a relay server. receiving , by the access controller, a first message sent by an access node, wherein the first message comprises a first identifier; obtaining, by the access controller, a line identifier according to the first identifier; generating, by the access controller, a second message, wherein the second message comprises the line identifier; and sending , by the access controller, the second message to a relay server.
Method for operating a network, wherein network devices in the network exchange useful data with one another via at least one transmission medium through the transmission of useful data packets and at least one redundancy protocol is applied in order to reduce a failure risk, wherein this at least one redundancy protocol performs a transmission of test data packets in order to detect failures in the network, characterized in that the transmission of a useful data packet is interrupted and, instead of the further transmission of this useful data packet, a test data packet is transmitted in order to detect failures in the network and only thereafter is the transmission of the remaining useful data packet carried out.
A method of determining whether a cell can guarantee at least one data transmission parameter, the method comprising: in response to a notification of an attach procedure of a User Equipment, UE, to attach to a cell, determining a traffic profile of the UE, wherein the traffic profile indicates the at least one data transmission parameter for data transmissions to and/or from the UE; and determining whether the cell can guarantee the at least one data transmission parameter for the UE based on the traffic profile of the UE, a traffic profile of at least one other UE attached to the cell, resource capabilities and available resources of the cell; wherein the at least one data transmission parameter comprises at least one of a maximum average latency of the data transmissions, a maximum latency of the data transmissions, a maximum packet loss fof the data transmissions, a minimum data rate of the data transmissions, and/or a minimum average data rate of the data transmissions the method further comprising: causing the UE to detach from the cell in response to determining that the cell cannot guarantee the at least one data transmission parameter for the UE; and/or allowing the UE to remain attached to the cell in response to determining that the cell can guarantee the at least one data transmission parameter for the UE. in response to a notification of an attach procedure of a User Equipment, UE, to attach to a cell, determining a traffic profile of the UE, wherein the traffic profile indicates the at least one data transmission parameter for data transmissions to and/or from the UE; and determining whether the cell can guarantee the at least one data transmission parameter for the UE based on the traffic profile of the UE, a traffic profile of at least one other UE attached to the cell, resource capabilities and available resources of the cell; wherein the at least one data transmission parameter comprises at least one of a maximum average latency of the data transmissions, a maximum latency of the data transmissions, a maximum packet loss fof the data transmissions, a minimum data rate of the data transmissions, and/or a minimum average data rate of the data transmissions the method further comprising: causing the UE to detach from the cell in response to determining that the cell cannot guarantee the at least one data transmission parameter for the UE; and/or allowing the UE to remain attached to the cell in response to determining that the cell can guarantee the at least one data transmission parameter for the UE.
Architectural element comprising a support body made of a high-density material, higher than 500 kg/m 3 , said support body being associable with a wall and provided at least with a surface portion , during use external with respect to said wall , said support body being provided with a cavity in which a light source is housed, characterized in that it comprises at least one layer (14; 15) applied at least on said surface portion and defined by a mixture of an acrylic resin and at least one inert material comprising at least one of either a silicon-based inert material, or gypsum.
A dental implant for insertion in the jaw bone of a patient, comprising an elongated body having a longitudinal axis and a coronal end , an interior bore extending longitudinally from the coronal end, with a first set of longitudinally extending anti-rotation structures constituting a first anti-rotation feature and a second set of longitudinally extending anti-rotation structures constituting a second anti-rotation feature, the anti-rotation structures of the first set and the anti-rotation structures of the second set extending at least in part over a common length of the bore, characterised in that at least one set of anti-rotation structures are formed by projections on the interior bore.
An apparatus for magnetic induction hardening of an annular workpiece , the apparatus comprising: a magnetic tool having a body portion formed of a generally non-magnetic material, the body portion having a surface configured to be positioned in close proximity to the annular workpiece being hardened, the surface of the body portion being a radially inwardly-facing circumferential surface configured for induction hardening an outer surface of the annular workpiece ; and a magnetic arrangement coupled to the body portion at or adjacent the surface of the body portion and configured to provide regions of alternating polarity; a workpiece holder configured to support the annular workpiece in close proximity to the surface of the magnetic tool such that the radially inwardly-facing circumferential surface of the magnetic arrangement is adjacent the outer surface of the annular workpiece ; and a drive arrangement for rotating the magnetic tool relative to the workpiece holder about an axis of rotation to induce heating of the annular workpiece to achieve a temperature in the austenitic range of the annular workpiece for hardening of the annular workpiece through a microstructural transformation. a magnetic tool having a body portion formed of a generally non-magnetic material, the body portion having a surface configured to be positioned in close proximity to the annular workpiece being hardened, the surface of the body portion being a radially inwardly-facing circumferential surface configured for induction hardening an outer surface of the annular workpiece ; and a magnetic arrangement coupled to the body portion at or adjacent the surface of the body portion and configured to provide regions of alternating polarity; a body portion formed of a generally non-magnetic material, the body portion having a surface configured to be positioned in close proximity to the annular workpiece being hardened, the surface of the body portion being a radially inwardly-facing circumferential surface configured for induction hardening an outer surface of the annular workpiece ; and a magnetic arrangement coupled to the body portion at or adjacent the surface of the body portion and configured to provide regions of alternating polarity; a workpiece holder configured to support the annular workpiece in close proximity to the surface of the magnetic tool such that the radially inwardly-facing circumferential surface of the magnetic arrangement is adjacent the outer surface of the annular workpiece ; and a drive arrangement for rotating the magnetic tool relative to the workpiece holder about an axis of rotation to induce heating of the annular workpiece to achieve a temperature in the austenitic range of the annular workpiece for hardening of the annular workpiece through a microstructural transformation.
A composition comprising a leptin antagonist and a carrier, for use in treating a disorder selected from the group consisting of inflammatory aortic aneurysm; pulmonary artery aneurysm in Marfan's syndrome; aortic dissection in an aortic or peripheral large artery; medial degeneration in a cardiovascular tissue; and ascending aortic aneurysm-associated hypertension, wherein the carrier is configured for localized administration of said leptin antagonist and wherein said leptin antagonist is selected from the group consisting of (a) a modified mammalian leptin polypeptide in which the LDFI hydrophobic binding site at the positions corresponding to positions 39-42 of the wild-type human leptin (SEQ ID NO:1) is modified such that from two to four amino acid residues of said hydrophobic binding site are substituted with different amino acid residues such that the site becomes less hydrophobic, said modified mammalian leptin polypeptide being a leptin antagonist; (b) the modified mammalian leptin according to (a) in which the aspartic acid at the position corresponding to position 23 of the wild-type human leptin (D23) is substituted with an amino acid residue selected from the group consisting of glycine, alanine, leucine, lysine, arginine, phenylalanine, tryptophan and histidine, or in which the threonine at the position corresponding to position 12 of the wild-type human leptin (T12) is substituted with a different amino acid residue that is hydrophobic; (c) a fragment of (a) comprising the modified hydrophobic binding site, wherein the fragment is itself a leptin antagonist; and (d) a fragment of (b), in which D23 is substituted with a different amino acid residue that is not negatively charged or T12 is substituted with a different amino acid residue that is hydrophobic, wherein the fragment is itself a leptin antagonist; and (e) a pharmaceutically acceptable salt of (a), (b), (c) or (d).
An airflow generation device comprising: a first dielectric substrate made from a rubber elastic material, a first electrode provided on or nearby a first surface of the first dielectric substrate , a second electrode provided on a second surface of the first dielectric substrate as a different side surface from the first surface , and a second dielectric substrate made from a rubber elastic material so as to cover the second electrode , wherein the device is configured to generate the airflow by plasma caused from a gas present nearby the first surface of the first dielectric substrate through an applied voltage between the first electrode and the second electrode ; the device further comprises bonding portions between the first electrode and the second electrode and the first dielectric substrate , and bonding portions between the second electrode and the second dielectric substrate that are bonded by chemical bonds with chemically crosslinking through the unsaturated groups or vinylsilyl-containing-silyl groups, and bonding portions between the first dielectric substrate and the second dielectric substrate that are bonded by chemical bonds with chemically crosslinking through unsaturated groups or vinylsilyl-containing-silylgroups which bond to surface of those substrates and/or exist on the surface thereof, characterized in that the second electrode comprises a conductive rubber layer or a conductive resin layer which extends to a side of the first electrode . a first dielectric substrate made from a rubber elastic material, a first electrode provided on or nearby a first surface of the first dielectric substrate , a second electrode provided on a second surface of the first dielectric substrate as a different side surface from the first surface , and a second dielectric substrate made from a rubber elastic material so as to cover the second electrode , wherein the device is configured to generate the airflow by plasma caused from a gas present nearby the first surface of the first dielectric substrate through an applied voltage between the first electrode and the second electrode ; the device further comprises bonding portions between the first electrode and the second electrode and the first dielectric substrate , and bonding portions between the second electrode and the second dielectric substrate that are bonded by chemical bonds with chemically crosslinking through the unsaturated groups or vinylsilyl-containing-silyl groups, and bonding portions between the first dielectric substrate and the second dielectric substrate that are bonded by chemical bonds with chemically crosslinking through unsaturated groups or vinylsilyl-containing-silylgroups which bond to surface of those substrates and/or exist on the surface thereof, characterized in that the second electrode comprises a conductive rubber layer or a conductive resin layer which extends to a side of the first electrode .
A system comprising: one or more sensors configured to sense vibrations of a vehicle ; and one or more processors (106; 118) configured to determine an operational speed of the vehicle and one or more frequencies of interest based on the operational speed of the vehicle , the one or more processors (106; 118) also configured to determine whether the vibrations occurring at the one or more frequencies of interest indicate damage to a propulsion system of the vehicle ; characterized in that the one or more processors (106; 118) are configured to determine a rotational speed of meshing gears of the vehicle as the operational speed of the vehicle , and the one or more frequencies of interest represent the rotational speed of the meshing gears of the vehicle , wherein the vibrations are determined by the one or more processors (106; 118) as indicating damage to one or more of a bearing, axle, or motor of the propulsion system responsive to the vibrations occurring at the one or more frequencies that represent the rotational speed of the meshing gears and a magnitude of the vibrations at the one or more frequencies of interest is larger than a magnitude of one or more vibrations at one or more frequencies other than the one or more frequencies of interest. one or more sensors configured to sense vibrations of a vehicle ; and one or more processors (106; 118) configured to determine an operational speed of the vehicle and one or more frequencies of interest based on the operational speed of the vehicle , the one or more processors (106; 118) also configured to determine whether the vibrations occurring at the one or more frequencies of interest indicate damage to a propulsion system of the vehicle ; characterized in that the one or more processors (106; 118) are configured to determine a rotational speed of meshing gears of the vehicle as the operational speed of the vehicle , and the one or more frequencies of interest represent the rotational speed of the meshing gears of the vehicle , wherein the vibrations are determined by the one or more processors (106; 118) as indicating damage to one or more of a bearing, axle, or motor of the propulsion system responsive to the vibrations occurring at the one or more frequencies that represent the rotational speed of the meshing gears and a magnitude of the vibrations at the one or more frequencies of interest is larger than a magnitude of one or more vibrations at one or more frequencies other than the one or more frequencies of interest.
A printing method, comprising: depositing a first curable material on a substrate; at least partially curing the first curable material to form an under-layer, wherein the under-layer comprises a first surface energy; modifying the under-layer's surface energy from the first surface energy to a second surface energy by providing at least one of a flame, a corona, a plasma, or combinations thereof to the under-layer surface; and depositing a second curable material on the under-layer. depositing a first curable material on a substrate; at least partially curing the first curable material to form an under-layer, wherein the under-layer comprises a first surface energy; modifying the under-layer's surface energy from the first surface energy to a second surface energy by providing at least one of a flame, a corona, a plasma, or combinations thereof to the under-layer surface; and depositing a second curable material on the under-layer.