mhurhangee/ep-ind-claims huggingface dataset:
A surveillance method, comprising: - receiving data from a sensor secured to a first vehicle, the data indicating an alarm-triggering event; - activating a first surveillance device; - collecting data about the first vehicle by the first surveillance device; - determining a location of the first vehicle based on data collected by the first surveillance device; - sending an instruction to activate a second surveillance device, wherein the second surveillance device is selected based at least in part on the location of the first vehicle; - collecting data about at least one of the first vehicle and the area around the first vehicle by the second surveillance device; and - receiving data about the first vehicle collected by the first surveillance device and the second surveillance device, characterized in that the second surveillance device is secured to a second vehicle that is proximate to the first vehicle. - receiving data from a sensor secured to a first vehicle, the data indicating an alarm-triggering event; - activating a first surveillance device; - collecting data about the first vehicle by the first surveillance device; - determining a location of the first vehicle based on data collected by the first surveillance device; - sending an instruction to activate a second surveillance device, wherein the second surveillance device is selected based at least in part on the location of the first vehicle; - collecting data about at least one of the first vehicle and the area around the first vehicle by the second surveillance device; and - receiving data about the first vehicle collected by the first surveillance device and the second surveillance device,
MGBG for use in the treatment of progressive multiple sclerosis in a patient, comprising the administration of a therapeutically effective amount of MGBG.
A method for wireless communications, comprising: receiving a broadcast signal delivering first content from a first subset of a plurality of nodes, the first subset of nodes transmitting the broadcast signal in an unlicensed spectrum during a first time period; receiving the broadcast signal delivering second content from a second subset of the plurality of nodes, the second subset of nodes transmitting the broadcast signal in the unlicensed spectrum during a second time period, wherein the first subset of nodes is different than the second subset of nodes; receiving, from a serving node on a licensed spectrum, system information indicating a location of a control channel for the broadcast signal; and receiving, from one or more nodes of the plurality of nodes, the control channel; wherein the broadcast signal is transmitted from the first subset of nodes and the second subset of nodes as a supplemental downlink carrier; wherein the control channel is received on the licensed spectrum; wherein the broadcast signal provides a particular Multimedia Broadcast Multicast Service, MBMS; and wherein the plurality of nodes comprise a single frequency network, SFN, that performs partial SFN operation during the first and second time periods, thus providing a time-varying SFN channel. receiving a broadcast signal delivering first content from a first subset of a plurality of nodes, the first subset of nodes transmitting the broadcast signal in an unlicensed spectrum during a first time period; receiving the broadcast signal delivering second content from a second subset of the plurality of nodes, the second subset of nodes transmitting the broadcast signal in the unlicensed spectrum during a second time period, wherein the first subset of nodes is different than the second subset of nodes; receiving, from a serving node on a licensed spectrum, system information indicating a location of a control channel for the broadcast signal; and receiving, from one or more nodes of the plurality of nodes, the control channel; wherein the broadcast signal is transmitted from the first subset of nodes and the second subset of nodes as a supplemental downlink carrier; wherein the control channel is received on the licensed spectrum; wherein the broadcast signal provides a particular Multimedia Broadcast Multicast Service, MBMS; and wherein the plurality of nodes comprise a single frequency network, SFN, that performs partial SFN operation during the first and second time periods, thus providing a time-varying SFN channel.
Method for affecting a traffic signal provided with a data processor by a vehicle, in particular in public transport, wherein the vehicle, in order to request a green phase, sends a data telegram to the data processor at a sending position, and wherein the data telegram and/or the sending position is or are dependent on predefined reporting points (6, 7, 8, 9), characterised in that the data telegram is transmitted to the data processor via a packet-oriented, in particular IP (internet protocol)-based, radio network, and in that, as the vehicle approaches a reporting point (6, 7, 8, 9), the sending position is brought forward in dependence on the current speed of the vehicle and a maximum assumed data telegram transit time.
An electrical connector for electrically connecting to pads on an electrical component, the connector comprising: a dielectric layer including opposing first and second surfaces; and a first plurality of contact elements, pre-formed in an array in a first sheet of conductive spring material, the contact elements including an elastic portion displaced outwardly from the sheet, the sheet being attached by bonding to the first surface such that the elastic portions extend outwardly from the first surface of the dielectric layer, each of the conductive elements comprising a base portion of conductive material, at least some of the base portions are conductively connected to each other, and at least some of the base portions are singulated from the adjacent ones of the base portions of the contact elements, and the elastic portions of conductive material are formed integrally with the base portions, the connector further comprising a conductive via or aperture disposed through the dielectric layer, the conductive via or aperture of each contact element being connected to or formed in the base portion, wherein the elastic portions protrude above the first surface of the dielectric layer, characterized in that the first plurality of contact elements includes first and second groups of contact elements, the first group of contact elements protruding a first distance above the first surface and the second group of contact elements protruding a second distance above the first surface that is different than the first distance. a dielectric layer including opposing first and second surfaces; and a first plurality of contact elements, pre-formed in an array in a first sheet of conductive spring material, the contact elements including an elastic portion displaced outwardly from the sheet, the sheet being attached by bonding to the first surface such that the elastic portions extend outwardly from the first surface of the dielectric layer, each of the conductive elements comprising a base portion of conductive material, at least some of the base portions are conductively connected to each other, and at least some of the base portions are singulated from the adjacent ones of the base portions of the contact elements, and the elastic portions of conductive material are formed integrally with the base portions, the connector further comprising a conductive via or aperture disposed through the dielectric layer, the conductive via or aperture of each contact element being connected to or formed in the base portion, wherein the elastic portions protrude above the first surface of the dielectric layer, characterized in that the first plurality of contact elements includes first and second groups of contact elements, the first group of contact elements protruding a first distance above the first surface and the second group of contact elements protruding a second distance above the first surface that is different than the first distance.
A blood bag system for separation of whole blood into at least two separate blood components with a centrifuge system comprising a rotor rotatable about an axis of rotation, the blood bag system comprising: a first deformable container of whole blood, the first container having a volume greater than the volume of whole blood therein; a second deformable container of whole blood, the second container having a volume greater than the volume of whole blood therein; the first and second containers (109a, 109b) and the volume of blood contained therein being substantially identical; a holder being configured for mounting to the rotor of the centrifuge for rotation therewith, the holder having a receptacle comprising first, second and third compartments (114, 116, 118) positioned sequentially and symmetrically about a radius of the rotor with a relatively narrow channel (120, 122) separating each of the first compartment from the second compartment and the second compartment from the third compartment, the first, second and third compartments (114, 116, 118) receiving the first and second containers (109a, 109b) therein with the first deformable container of whole blood being received in the receptacle such that substantially all of the whole blood is contained in the first compartment and the second deformable container of whole blood being received in the receptacles such that substantially all of the whole blood contained is contained in the third compartment of the receptacle. a first deformable container of whole blood, the first container having a volume greater than the volume of whole blood therein; a second deformable container of whole blood, the second container having a volume greater than the volume of whole blood therein; the first and second containers (109a, 109b) and the volume of blood contained therein being substantially identical; a holder being configured for mounting to the rotor of the centrifuge for rotation therewith, the holder having a receptacle comprising first, second and third compartments (114, 116, 118) positioned sequentially and symmetrically about a radius of the rotor with a relatively narrow channel (120, 122) separating each of the first compartment from the second compartment and the second compartment from the third compartment, the first, second and third compartments (114, 116, 118) receiving the first and second containers (109a, 109b) therein with the first deformable container of whole blood being received in the receptacle such that substantially all of the whole blood is contained in the first compartment and the second deformable container of whole blood being received in the receptacles such that substantially all of the whole blood contained is contained in the third compartment of the receptacle.
Use of a polynucleotide in an in vitro method for assessing the risk of developing hypertension comprising: any one of the following base sequences (a) to (d), wherein the polynucleotide can be used as a primer or probe for detecting a SNP rs11105378: (a) a base sequence of SEQ ID No.5 or a base sequence which is a partial sequence of the base sequence of SEQ ID No.5 having 10 to 60 bases, which partial sequence contains the SNP rs11105378; (b) a base sequence complementary to the base sequence (a); (c) a base sequence of SEQ ID No.6 or a base sequence which is a partial sequence within a range of from 10 to 60 bases of the base sequence of SEQ ID No.6 containing the SNP rs11105378; (d) a base sequence complementary to the base sequence (c). any one of the following base sequences (a) to (d), wherein the polynucleotide can be used as a primer or probe for detecting a SNP rs11105378: (a) a base sequence of SEQ ID No.5 or a base sequence which is a partial sequence of the base sequence of SEQ ID No.5 having 10 to 60 bases, which partial sequence contains the SNP rs11105378; (b) a base sequence complementary to the base sequence (a); (c) a base sequence of SEQ ID No.6 or a base sequence which is a partial sequence within a range of from 10 to 60 bases of the base sequence of SEQ ID No.6 containing the SNP rs11105378; (d) a base sequence complementary to the base sequence (c). (a) a base sequence of SEQ ID No.5 or a base sequence which is a partial sequence of the base sequence of SEQ ID No.5 having 10 to 60 bases, which partial sequence contains the SNP rs11105378; (b) a base sequence complementary to the base sequence (a); (c) a base sequence of SEQ ID No.6 or a base sequence which is a partial sequence within a range of from 10 to 60 bases of the base sequence of SEQ ID No.6 containing the SNP rs11105378; (d) a base sequence complementary to the base sequence (c).
A waste plastic solid fuel incinerator comprising: an incinerator housing which is provided, on an upper portion thereof, with a gas outlet for discharging combustion gas; a fuel supply unit for supplying a waste plastic solid fuel; a first combustion unit for continuously transferring and incinerating the waste plastic solid fuel supplied by the fuel supply unit; a first air supply unit for supplying air to the first combustion unit; a combustion gas induction unit for downwardly transferring combustion gas generated from the first combustion unit; a second combustion unit which is arranged below the first combustion unit and characterized in that the second combustion unit comprises a downward injection nozzle unit for downwardly injecting combustion gas supplied by the combustion gas induction unit so that the combustion gas is re-burnt in the second combustion unit; and a second air supply unit which is arranged below the second combustion unit and is configured to upwardly inject air to the second combustion unit. an incinerator housing which is provided, on an upper portion thereof, with a gas outlet for discharging combustion gas; a fuel supply unit for supplying a waste plastic solid fuel; a first combustion unit for continuously transferring and incinerating the waste plastic solid fuel supplied by the fuel supply unit; a first air supply unit for supplying air to the first combustion unit; a combustion gas induction unit for downwardly transferring combustion gas generated from the first combustion unit; a second combustion unit which is arranged below the first combustion unit and characterized in that the second combustion unit comprises a downward injection nozzle unit for downwardly injecting combustion gas supplied by the combustion gas induction unit so that the combustion gas is re-burnt in the second combustion unit; and a second air supply unit which is arranged below the second combustion unit and is configured to upwardly inject air to the second combustion unit.
A furniture flap drive, including: - an electric drive having an electric motor, - a mechanical actuating unit having an actuating arm, wherein the mechanical actuating unit and the electric drive are configured as separate components which can be releasably fixed to one another, - a bearing location arranged on the mechanical actuating unit, the electric drive can be engaged with the bearing location, wherein the engaged electric drive can be pivoted about the bearing location in a direction towards the mechanical actuating unit, - a locking device spaced from the bearing location, and the electric drive, after having been pivoted to the mechanical actuating unit, can be, preferably releasably, locked to the locking device, wherein the locking device includes at least one locking element arranged on the electric drive or on the mechanical actuating unit, the locking element can be engaged with an associated holding element arranged on the mechanical actuating unit or on the electric drive and prevents a pivoting movement of the engaged electric drive in a direction away from the mechanical actuating unit, - wherein the electric drive includes a force transmission device for transmitting a force provided by the electric motor to the mechanical actuating unit and thereby moves the actuating arm for the opening or closing movement, characterized in that the at least one locking element is pivotally mounted and can be actuated by an actuating device configured as a locking lever in order to be engaged with the associated holding element by pivoting. - an electric drive having an electric motor, - a mechanical actuating unit having an actuating arm, wherein the mechanical actuating unit and the electric drive are configured as separate components which can be releasably fixed to one another, - a bearing location arranged on the mechanical actuating unit, the electric drive can be engaged with the bearing location, wherein the engaged electric drive can be pivoted about the bearing location in a direction towards the mechanical actuating unit, - a locking device spaced from the bearing location, and the electric drive, after having been pivoted to the mechanical actuating unit, can be, preferably releasably, locked to the locking device, wherein the locking device includes at least one locking element arranged on the electric drive or on the mechanical actuating unit, the locking element can be engaged with an associated holding element arranged on the mechanical actuating unit or on the electric drive and prevents a pivoting movement of the engaged electric drive in a direction away from the mechanical actuating unit, - wherein the electric drive includes a force transmission device for transmitting a force provided by the electric motor to the mechanical actuating unit and thereby moves the actuating arm for the opening or closing movement,
A method for producing an aqueous solution containing amino acids from a fish soluble, characterised by: - said fish soluble being at a given temperature, adding at least one protease having proteolytic activity at said given temperature thereto, without modification of pH; - lowering the pH to a value less than 4.5 by adding at least one acid; and - then heating the acidified solution to a temperature greater than or equal to 75°C and less than 100°C for a duration greater than or equal to 5 minutes and - filtering to obtain said solution. - said fish soluble being at a given temperature, adding at least one protease having proteolytic activity at said given temperature thereto, without modification of pH; - lowering the pH to a value less than 4.5 by adding at least one acid; and - then heating the acidified solution to a temperature greater than or equal to 75°C and less than 100°C for a duration greater than or equal to 5 minutes and - filtering to obtain said solution.
An actuator, comprising: a housing; a plurality of electromagnets positioned around an outer periphery of said housing so that said plurality of electromagnets define at least one generally helical path; a rotor head mounted for rotation and translation within said housing; a magnet mounted to said rotor head; an output shaft attached to said rotor head; a spring having a first end and a second end, the first end of said spring being attached to said rotor head, the second end of said spring being selectively engageable and disengagable with said housing; and a control system operatively associated with said plurality of electromagnets, said control system suitable for selectively activating said electromagnets to cause said rotor head to move relative to said housing. a housing; a plurality of electromagnets positioned around an outer periphery of said housing so that said plurality of electromagnets define at least one generally helical path; a rotor head mounted for rotation and translation within said housing; a magnet mounted to said rotor head; an output shaft attached to said rotor head; a spring having a first end and a second end, the first end of said spring being attached to said rotor head, the second end of said spring being selectively engageable and disengagable with said housing; and a control system operatively associated with said plurality of electromagnets, said control system suitable for selectively activating said electromagnets to cause said rotor head to move relative to said housing.
A fixing device comprising: an endless belt; a heater, the heater comprising: a heat generating element; and a protective layer configured to cover the heat generating element, wherein one of ends of the protective layer in a shorter-side direction of the heat generating element protrudes in a stacking direction of the heat generating element and the protective layer and has a curved top surface; and a pressure element comprising a pressure roller placed at a position to face the heater via the endless belt and configured to form, together with the endless belt, a nip to interpose a sheet being conveyed, wherein the protective layer that faces the pressure element has a concave surface that is concave with respect to the pressure element. an endless belt; a heater, the heater comprising: a heat generating element; and a protective layer configured to cover the heat generating element, wherein one of ends of the protective layer in a shorter-side direction of the heat generating element protrudes in a stacking direction of the heat generating element and the protective layer and has a curved top surface; and a heat generating element; and a protective layer configured to cover the heat generating element, wherein one of ends of the protective layer in a shorter-side direction of the heat generating element protrudes in a stacking direction of the heat generating element and the protective layer and has a curved top surface; and a pressure element comprising a pressure roller placed at a position to face the heater via the endless belt and configured to form, together with the endless belt, a nip to interpose a sheet being conveyed, wherein the protective layer that faces the pressure element has a concave surface that is concave with respect to the pressure element.
A method of forming a Static Random Access Memory (SRAM) cell comprising: configuring a pair of storage nodes to store complementary binary values; coupling a pair of bit lines to the storage nodes to transmit the complementary binary values to/from the storage nodes; coupling a pair of pull-up devices to the storage nodes in order to connect the storage nodes to positive power supply voltage; coupling a pair of pull-down devices to the storage nodes in order to connect the storage nodes to negative power supply voltage; coupling a pair of pass-gate devices to the storage nodes in order to connect the storage nodes to the bit lines; characterised by, coupling a first control signal to each of the pass-gate devices and a second control signal to each of the pass-gate devices in order to adjust drive strengths of each of the pass-gate devices using both the first control signal and the second control signal; and coupling a third control signal to the pull-up devices in order to adjust drive strengths of the pull-up devices. configuring a pair of storage nodes to store complementary binary values; coupling a pair of bit lines to the storage nodes to transmit the complementary binary values to/from the storage nodes; coupling a pair of pull-up devices to the storage nodes in order to connect the storage nodes to positive power supply voltage; coupling a pair of pull-down devices to the storage nodes in order to connect the storage nodes to negative power supply voltage; coupling a pair of pass-gate devices to the storage nodes in order to connect the storage nodes to the bit lines; characterised by, coupling a first control signal to each of the pass-gate devices and a second control signal to each of the pass-gate devices in order to adjust drive strengths of each of the pass-gate devices using both the first control signal and the second control signal; and coupling a third control signal to the pull-up devices in order to adjust drive strengths of the pull-up devices.