mhurhangee/ep-ind-claims huggingface dataset:
A patient support apparatus comprising: a base; a powered wheel and a steerable wheel; a patient support deck supported by said base, said patient support deck adapted to support a patient; a first motor adapted to provide power to said powered wheel; a second motor adapted to steer said steerable wheel, characterized in that the apparatus further includes a force sensing system (50,52) adapted to detect both a direction and magnitude of forces exerted by a user and to determine a location of the applied forces relative to a reference location on the patient support apparatus; and a controller adapted to control said first and second motors (54, 56) in a manner that takes into account the magnitude, direction, and moment of the applied forces relative to the reference location, and to power the powered wheel and steer the steerable wheel in a manner that amplifies how the patient support apparatus would move if it were subjected to only the exerted forces. a base; a powered wheel and a steerable wheel; a patient support deck supported by said base, said patient support deck adapted to support a patient; a first motor adapted to provide power to said powered wheel; a second motor adapted to steer said steerable wheel, characterized in that the apparatus further includes a force sensing system (50,52) adapted to detect both a direction and magnitude of forces exerted by a user and to determine a location of the applied forces relative to a reference location on the patient support apparatus; and a controller adapted to control said first and second motors (54, 56) in a manner that takes into account the magnitude, direction, and moment of the applied forces relative to the reference location, and to power the powered wheel and steer the steerable wheel in a manner that amplifies how the patient support apparatus would move if it were subjected to only the exerted forces.
An overpressure relief flap apparatus for a medium or high voltage switchgear, the apparatus comprising: - a lever; and - a microswitch; wherein, the lever is attached to an overpressure relief flap of a compartment of a switchgear; wherein, the microswitch is mounted to a frame of the compartment of the switchgear; wherein, when activated the microswitch is configured to transmit a trip signal to a circuit breaker of the switchgear; and wherein, the lever is configured to activate the microswitch when the overpressure relief flap opens; characterised in that the microswitch is mounted to the frame of the compartment via at least one damping component. - a lever; and - a microswitch; wherein, the lever is attached to an overpressure relief flap of a compartment of a switchgear; wherein, the microswitch is mounted to a frame of the compartment of the switchgear; wherein, when activated the microswitch is configured to transmit a trip signal to a circuit breaker of the switchgear; and wherein, the lever is configured to activate the microswitch when the overpressure relief flap opens; characterised in that the microswitch is mounted to the frame of the compartment via at least one damping component. wherein, the lever is attached to an overpressure relief flap of a compartment of a switchgear; wherein, the microswitch is mounted to a frame of the compartment of the switchgear; wherein, when activated the microswitch is configured to transmit a trip signal to a circuit breaker of the switchgear; and wherein, the lever is configured to activate the microswitch when the overpressure relief flap opens; characterised in that the microswitch is mounted to the frame of the compartment via at least one damping component.
A method of transmitting data in a MIMO communication system, comprising: sending a first reference signal via a first link to a receiver; receiving channel quality indicator, CQI, information determined by the receiver based on the first reference signal; receiving a second reference signal via a second link from the receiver; obtaining at least one multiple-input multiple-output, MIMO, channel matrix for the first link based on the second reference signal received via the second link; determining at least one precoding matrix based on the at least one MIMO channel matrix; and sending a data transmission to the receiver based on the at least one precoding matrix and the CQI information. sending a first reference signal via a first link to a receiver; receiving channel quality indicator, CQI, information determined by the receiver based on the first reference signal; receiving a second reference signal via a second link from the receiver; obtaining at least one multiple-input multiple-output, MIMO, channel matrix for the first link based on the second reference signal received via the second link; determining at least one precoding matrix based on the at least one MIMO channel matrix; and sending a data transmission to the receiver based on the at least one precoding matrix and the CQI information.
Device (10, 40, 50, 60) for compressing a gaseous fluid by recovering the expansion energy of a gas between an upstream gas network at a pressure Pa and a downstream gas network at a pressure Pb less than Pa, characterised in that it comprises: - a pneumatic booster (30, 70, 72) comprising a free piston (11, 74, 76, 77) between an expansion chamber (17, 75) and a compression chamber (23, 78); - a first pipe for gas between the upstream network and an inlet of the expansion chamber; - a second pipe for gas between an outlet of the expansion chamber and the downstream network; - a third pipe for gaseous fluid to be compressed, opening to an inlet of the compression chamber; and - a fourth pipe for compressed gaseous fluid connected to an outlet of the compression chamber. - a pneumatic booster (30, 70, 72) comprising a free piston (11, 74, 76, 77) between an expansion chamber (17, 75) and a compression chamber (23, 78); - a first pipe for gas between the upstream network and an inlet of the expansion chamber; - a second pipe for gas between an outlet of the expansion chamber and the downstream network; - a third pipe for gaseous fluid to be compressed, opening to an inlet of the compression chamber; and - a fourth pipe for compressed gaseous fluid connected to an outlet of the compression chamber.
A method for wireless communication in a multi-antenna user equipment, UE, comprising: communicating with a base station using a first antenna; assessing communication metrics to determine whether to switch from the first antenna to a second antenna; determining to switch from the first antenna to the second antenna for communicating with the base station, wherein the determining to switch from the first antenna to the second antenna comprises comparing the communication metrics to a first threshold to determine whether to switch from the first antenna to the second antenna; determining a silence window in which communication with the base station is suspended, wherein the silence window corresponds to a measurement gap; comparing the communication metrics to a second threshold to determine whether to wait for the silence window to perform the switch or to perform the switch before the silence window; determining a length of time between the determining to switch from the first antenna to the second antenna and a start of the silence window; comparing the length of time to a threshold time; scheduling the switch from the first antenna to the second antenna to occur during the silence window based at least in part on the comparing of the communication metrics to the second threshold and based at least in part on the length of time being less than the threshold time; and switching from the first antenna to the second antenna during the silence window. communicating with a base station using a first antenna; assessing communication metrics to determine whether to switch from the first antenna to a second antenna; determining to switch from the first antenna to the second antenna for communicating with the base station, wherein the determining to switch from the first antenna to the second antenna comprises comparing the communication metrics to a first threshold to determine whether to switch from the first antenna to the second antenna; determining a silence window in which communication with the base station is suspended, wherein the silence window corresponds to a measurement gap; comparing the communication metrics to a second threshold to determine whether to wait for the silence window to perform the switch or to perform the switch before the silence window; determining a length of time between the determining to switch from the first antenna to the second antenna and a start of the silence window; comparing the length of time to a threshold time; scheduling the switch from the first antenna to the second antenna to occur during the silence window based at least in part on the comparing of the communication metrics to the second threshold and based at least in part on the length of time being less than the threshold time; and switching from the first antenna to the second antenna during the silence window.
Handling device for handling a metal component part between a furnace device and a further processing device, wherein the handling device comprises a temperature-control chamber, into which the metal component part is placeable, wherein the temperature-control chamber comprises a temperature-control unit for temperature controlling the metal component part, a traversing device that is arranged in such a way that the temperature-control chamber is displaceable between a receiving position, in which the metal component part is conveyable from the furnace device into the temperature-control chamber, and a dispensing position, in which the metal component part is conveyable from the temperature-control chamber to the further processing device, and a conveying device that is arranged in such a way that in the receiving position the metal component part is conveyable between the furnace device and the temperature-control chamber by the conveying device and/or that in the dispensing position the metal component part is conveyable between the temperature-control chamber and the further processing device by the conveying device, wherein the conveying device is coupled to the temperature-control chamber in such a way that the conveying device is movable into and out of the temperature-control chamber.
A porous sorptive media comprising a substrate having a solid matrix and a first external side and a second external side, both sides being porous, and a porous thickness between them, said substrate having a sorptive material covering the solid matrix of the substrate and said first and second external surfaces, said sorptive material comprising a cross-linked polymer having attached primary amine groups, characterized in that said cross-linked polymer is a dry coating having a thickness of between 10 - 50 nm, wherein the cross-linked polymer comprises polyallylamine or a protonated polyallylamine cross-linked with polyethylene glycol diglycidyl ether.
A sensorized exoskeleton system for enhancing physical performances and/or for providing assistance with limb movement in regard to load-involved tasks, the system comprising: • At least one sensorized wearable unit comprising a plurality of strain sensors configured to fit a user's forearm and to allow rotation, flexion, extension, pronation and supination of the user's arm; • An actuation unit comprising a plurality of electrical, electronic and mechanical elements; • A plurality of mechanical elements configured to be fixed to a ceiling or other fixed structure allowing the actuation unit to move horizontally on two rails and to rotate through 360°; • A structure that mechanically and electrically connects the sensorized wearable unit to the actuation unit and moves along a vertical axis; • A plurality of sensorized rotative components and position sensors installed throughout the at least one sensorized wearable unit, the structure and the actuation unit; • At least one electronic microcontroller that processes the signals sent by the position sensors, the sensorized rotative components, and the strain sensors; • At least one sensorized wearable unit comprising a plurality of strain sensors configured to fit a user's forearm and to allow rotation, flexion, extension, pronation and supination of the user's arm; • An actuation unit comprising a plurality of electrical, electronic and mechanical elements; • A plurality of mechanical elements configured to be fixed to a ceiling or other fixed structure allowing the actuation unit to move horizontally on two rails and to rotate through 360°; • A structure that mechanically and electrically connects the sensorized wearable unit to the actuation unit and moves along a vertical axis; • A plurality of sensorized rotative components and position sensors installed throughout the at least one sensorized wearable unit, the structure and the actuation unit; • At least one electronic microcontroller that processes the signals sent by the position sensors, the sensorized rotative components, and the strain sensors;
A secondary battery-use positive electrode active material comprising a center portion that contains a lithium composite oxide containing cobalt and an element M as constituent elements and is represented by formula below, and a covering portion that is provided on at least a portion of a surface of the center portion and contains lithium, nickel, and manganese as constituent elements, wherein each of the cobalt, the element M, the nickel, and the manganese is distributed such that a concentration of each of the cobalt, the element M, the nickel, and the manganese has a gradient in a direction from a surface of the covering portion toward a center of the center portion, a depth from a surface of the covering portion is defined by a proportion D (%) represented by formula below, an amount of the element M existing in each of the center portion and the covering portion is defined by a molar fraction R represented by formula below, the molar fraction R satisfies 0.03 < R < 0.13 at a position within the covering portion where the proportion D satisfies D = 0.05, the molar fraction R satisfies 0.01 < R < 0.13 at a position within the center portion where the proportion D satisfies D = 0.3, and a ratio F of the molar fraction R (D = 0.3) to the molar fraction R (D = 0.05) satisfies 0.7 ≤ F ≤ 1, Li x Co 1-y M y O 2-z... M is at least one element of magnesium, titanium, vanadium, chromium, iron, and tin; x, y and z satisfy 0 ≤ x ≤ 1, 0 < y < 0.5 and -0.1 ≤ z ≤ 0.2, D % = mass of cobalt + mass of element M + mass of nickel + mass of manganese / mass of center portion + mass of covering portion × 100 R = amount of element M / amount of cobalt + amount of element M + amount of nickel + amount of manganese wherein each of the cobalt, the element M, the nickel, and the manganese is distributed such that a concentration of each of the cobalt, the element M, the nickel, and the manganese has a gradient in a direction from a surface of the covering portion toward a center of the center portion, a depth from a surface of the covering portion is defined by a proportion D (%) represented by formula below, an amount of the element M existing in each of the center portion and the covering portion is defined by a molar fraction R represented by formula below, the molar fraction R satisfies 0.03 < R < 0.13 at a position within the covering portion where the proportion D satisfies D = 0.05, the molar fraction R satisfies 0.01 < R < 0.13 at a position within the center portion where the proportion D satisfies D = 0.3, and a ratio F of the molar fraction R (D = 0.3) to the molar fraction R (D = 0.05) satisfies 0.7 ≤ F ≤ 1, Li x Co 1-y M y O 2-z... M is at least one element of magnesium, titanium, vanadium, chromium, iron, and tin; x, y and z satisfy 0 ≤ x ≤ 1, 0 < y < 0.5 and -0.1 ≤ z ≤ 0.2, D % = mass of cobalt + mass of element M + mass of nickel + mass of manganese / mass of center portion + mass of covering portion × 100 R = amount of element M / amount of cobalt + amount of element M + amount of nickel + amount of manganese
An optical base body for a spectrometer for mounting components of a spectrometer produced as a sandwich construction from at least three flat elements (12, 14, 16) produced from material plates by means of separation methods, layered on top of each other and interconnected, in particular bonded, - wherein in at least one of the flat elements an opening is provided for the formation of a cavity between at least two other flat elements (12, 16) so that the flat elements in the finished installed state form a spectrometer housing, - wherein in several flat elements openings are provided and are constructed so that at least particular openings in adjacent flat elements complement each other for the formation of paths of rays and of mounts for further structural elements of spectrometers, and - wherein the flat elements are produced from carbon-fibre-reinforced or glass-fibre-reinforced plates of a single type, characterized in that - the flat elements (12, 14, 16) are aligned in accordance with alignment openings introduced into them in the optical base body so that their fibre courses coincide with one another, and the alignment openings are introduced such that the flat elements can be aligned to one another by introducing alignment elements which are at least partially complementary to the alignment openings so that they may have anisotropies of the coefficient of thermal expansion in the direction of the plate thickness axis. - wherein in at least one of the flat elements an opening is provided for the formation of a cavity between at least two other flat elements (12, 16) so that the flat elements in the finished installed state form a spectrometer housing, - wherein in several flat elements openings are provided and are constructed so that at least particular openings in adjacent flat elements complement each other for the formation of paths of rays and of mounts for further structural elements of spectrometers, and - wherein the flat elements are produced from carbon-fibre-reinforced or glass-fibre-reinforced plates of a single type, - the flat elements (12, 14, 16) are aligned in accordance with alignment openings introduced into them in the optical base body so that their fibre courses coincide with one another, and the alignment openings are introduced such that the flat elements can be aligned to one another by introducing alignment elements which are at least partially complementary to the alignment openings so that they may have anisotropies of the coefficient of thermal expansion in the direction of the plate thickness axis.
A safety system having a facility that has a safety zone and having an electronic device, a key station, and a mobile key device for reading data from at least the electronic device of the facility, wherein the safety zone is arranged within the facility and the electronic device is arranged within the safety zone; wherein the data at least comprise identification data for the electronic device; and wherein the mobile key device comprises an interface by means of which the data are wirelessly transferable from the electronic device to the key device; wherein at least one restricted access zone having an access station to the safety zone is arranged, wherein the access station has a locking device that is lockable and the access station can only be passed using the key device, wherein the safety zone of the facility and the electronic device arranged in the safety zone are only accessible through this at least one access zone; wherein an access zone has to be passed through by a person having the key device before the reading of the electronic device and after the reading of the electronic device, with the data of the key device being transferable to a key station, characterized in that the key station is arranged outside the safety zone and the key station is configured to receive the at least one key device in a receiver, to read the key device, and to evaluate the data of the key device in an evaluation unit, with the key device only being removable from the key station by authorized persons, with the safety zone not being allowed to be entered by persons when the facility is active, and with the facility not being able to be activated while the person carries the key device with him.
A resonator assembly for a power toothbrush having a drive system, comprising: an elongated rod member, having a back assembly at a rear end thereof, cooperating with the drive system to move the rod member, the rod member being adapted to receive a workpiece at a distal end thereof, and the back assembly including a plate and a plurality of permanent magnets, which interact with an electromagnet in the drive system to produce a transverse motion of the rod member; and a mount member which mounts the rod member to a toothbrush housing, characterized in that a position of the mount member along the rod member is changeable to give a desired frequency of performance and amplitude of workpiece movement. an elongated rod member, having a back assembly at a rear end thereof, cooperating with the drive system to move the rod member, the rod member being adapted to receive a workpiece at a distal end thereof, and the back assembly including a plate and a plurality of permanent magnets, which interact with an electromagnet in the drive system to produce a transverse motion of the rod member; and a mount member which mounts the rod member to a toothbrush housing, characterized in that a position of the mount member along the rod member is changeable to give a desired frequency of performance and amplitude of workpiece movement.
A method for providing landing lights operation data during a flight of an aircraft, by a computing device comprising at least one processor and a system memory element, the method comprising: obtaining a standard operating procedure for operating landing lights onboard the aircraft during the flight, by the at least one processor, wherein the SOP comprises a customary industry-recommended practice for at least one of extension and retraction of the landing lights on the aircraft, and wherein execution of the SOP produces a flight efficiency level including at least fuel burn and drag parameters; determining an optimized operating procedure for the landing lights to increase the flight efficiency level to achieve an increased flight efficiency level, by the at least one processor, based on real-time contextual data; and presenting an advisory comprising at least graphical elements associated with the optimized operating procedure, a potential cost savings for the optimized operating procedure, and the increased flight efficiency level onboard the aircraft, via a display device communicatively coupled to the at least one processor. obtaining a standard operating procedure for operating landing lights onboard the aircraft during the flight, by the at least one processor, wherein the SOP comprises a customary industry-recommended practice for at least one of extension and retraction of the landing lights on the aircraft, and wherein execution of the SOP produces a flight efficiency level including at least fuel burn and drag parameters; determining an optimized operating procedure for the landing lights to increase the flight efficiency level to achieve an increased flight efficiency level, by the at least one processor, based on real-time contextual data; and presenting an advisory comprising at least graphical elements associated with the optimized operating procedure, a potential cost savings for the optimized operating procedure, and the increased flight efficiency level onboard the aircraft, via a display device communicatively coupled to the at least one processor.
Centhaquin citrate for use in improving cardiac output, in an individual suffering from shock, wherein the centhaquin citrate is at a dose of 0.001 mg per kg to 0.05 mg per kg of weight of the individual.