mhurhangee/patent-ind-claim-en huggingface dataset:
Cardiopulmonary resuscitation system (1; 2) comprising: - a chest compression device (11; 12) pneumatically operated; - a support frame of said chest compression device (11; 12); - coupling means of said chest compression device (11; 12) to a patient ; - a pneumatic circuit for actuating said chest compression device (11; 12); wherein said support frame is defined by a support plate , wherein said chest compression device (11; 12) is solidly coupled to said support plate at a side of said support plate , and wherein said coupling means comprise a pairs of anchoring devices arranged on opposite ends of said support plate and suitable for anchoring said support plate to the ground , said cardiopulmonary resuscitation system (1; 2) is characterized in that said pairs of anchoring devices consist of belts provided with at least an end operatively coupled respectively to one of said opposite ends of said support plate , and wherein each of said anchoring devices defines at least a loop allowing an operator to hold them onto the ground by inserting hands or feet of said operator within said loops. - a chest compression device (11; 12) pneumatically operated; - a support frame of said chest compression device (11; 12); - coupling means of said chest compression device (11; 12) to a patient ; - a pneumatic circuit for actuating said chest compression device (11; 12); wherein said support frame is defined by a support plate , wherein said chest compression device (11; 12) is solidly coupled to said support plate at a side of said support plate , and wherein said coupling means comprise a pairs of anchoring devices arranged on opposite ends of said support plate and suitable for anchoring said support plate to the ground , said cardiopulmonary resuscitation system (1; 2) is characterized in that said pairs of anchoring devices consist of belts provided with at least an end operatively coupled respectively to one of said opposite ends of said support plate , and wherein each of said anchoring devices defines at least a loop allowing an operator to hold them onto the ground by inserting hands or feet of said operator within said loops.
A method for producing a fluorinated hydrocarbon represented by a structural formula , wherein an ether compound represented by a structural formula and an acid fluoride represented by a structural formula are brought into contact with each other in a hydrocarbon-based solvent, in the presence of a catalyst in which boron trifluoride is supported on a metal oxide: Structural formula wherein R 1 and R 2 each independently represent an alkyl group having 1 to 3 carbon atoms, R 3 represents a hydrogen atom, a methyl group or an ethyl group, and R 4 represents a methyl group or an ethyl group; and R 1 and R 2 may be bonded to each other to form a cyclic structure, Structural formula R 5 -COF Structural formula wherein R 5 represents a methyl group or an ethyl group, Structural formula wherein R 1 to R 3 represent the same meanings as described above.
A jack comprising: a carriage having a front end and rear end for placing beneath a vehicle having a lifting arm and attachment means for attaching the carriage to the lifting arm wherein the attachment means is co-operable with the lifting arm to jack up the vehicle on the carriage and a wheelset on the rear end of the carriage configured to bear the weight of the vehicle , the carriage being pivotably moveable on the wheelset between a first position in which the attachment means is attachable to the lifting arm and a second raised position in which the carriage can support the vehicle on the wheelset characterised in that the carriage comprises a platform for holding a raised vehicle in a raised position and the platform comprises a pair of spaced apart height adjustable legs wherein the height adjustable legs support the vehicle in the raised position. a carriage having a front end and rear end for placing beneath a vehicle having a lifting arm and attachment means for attaching the carriage to the lifting arm wherein the attachment means is co-operable with the lifting arm to jack up the vehicle on the carriage and a wheelset on the rear end of the carriage configured to bear the weight of the vehicle , the carriage being pivotably moveable on the wheelset between a first position in which the attachment means is attachable to the lifting arm and a second raised position in which the carriage can support the vehicle on the wheelset characterised in that the carriage comprises a platform for holding a raised vehicle in a raised position and the platform comprises a pair of spaced apart height adjustable legs wherein the height adjustable legs support the vehicle in the raised position.
Rail vehicle carriage comprising - a carriage body , - interior-space delimiting elements , which are arranged within the carriage body and outwardly delimit an interior space of the rail carriage body arranged within the carriage body , and - at least one temperature sensor for determining an interior-space temperature, an air-guiding unit , which has - an intake opening for locally taking in air from the interior space and also - an air-guiding duct for discharging the taken-in air from the interior space and - a fan for predetermining a direction of flow for air through the air-guiding duct , characterized in that the temperature sensor is arranged in the air-guiding duct and/or at the end of the air-guiding duct in the direction of flow of the air, and in that the fan is arranged in an intermediate space between the interior-space delimiting elements and the carriage body or in a cavity within the carriage body . - a carriage body , - interior-space delimiting elements , which are arranged within the carriage body and outwardly delimit an interior space of the rail carriage body arranged within the carriage body , and - at least one temperature sensor for determining an interior-space temperature, - an intake opening for locally taking in air from the interior space and also - an air-guiding duct for discharging the taken-in air from the interior space and - a fan for predetermining a direction of flow for air through the air-guiding duct , the temperature sensor is arranged in the air-guiding duct and/or at the end of the air-guiding duct in the direction of flow of the air, and in that the fan is arranged in an intermediate space between the interior-space delimiting elements and the carriage body or in a cavity within the carriage body .
A monitoring system for determining infant orientation information during bottle feeding, comprising: a sensor arrangement for obtaining bottle orientation information and movement information in respect of the feeding bottle during feeding; and a processor adapted to identify, from signals of the sensor arrangement, infant orientation information in respect of the infant; and an output interface for providing output information dependent on the infant orientation information, characterised in that the output information comprising an angle of tilt of a body axis of the infant relative to the vertical and/or horizontal. a sensor arrangement for obtaining bottle orientation information and movement information in respect of the feeding bottle during feeding; and a processor adapted to identify, from signals of the sensor arrangement, infant orientation information in respect of the infant; and an output interface for providing output information dependent on the infant orientation information, characterised in that the output information comprising an angle of tilt of a body axis of the infant relative to the vertical and/or horizontal.
Laser system for the generation of windows in security paper that comprises: - guiding and transporting means of the security paper along a path through the interior of said laser system; - laser cutting means along said path of the security paper ; and - suction means comprising at least one suction mouth , located along said path of the security paper ; - laser control means configured so said laser cutting means generate the window in the security paper by means of a continuous cut according to a pre-established pattern and a pre-established cutting area; said suction means being located below the security paper below said cutting area to suction the window cut from the security paper after the cut carried out by the laser cutting means; characterized in that said laser cutting means comprise at least one laser head and one scanner per each laser head , and in that the system also comprises a high-resolution encoder and a plurality of optical sensors located in the path of the security paper before the cutting area, said plurality of sensors providing information about possible deviations of the security paper along the path; wherein a first sensor of said plurality of sensors is configured to detect an edge of the security paper , said first sensor providing information about the transverse deviation of the security paper; and a second sensor of said plurality of sensors is configured to detect a reference mark arranged along the security paper , said second sensor providing information about the longitudinal deviation of the security paper. - guiding and transporting means of the security paper along a path through the interior of said laser system; - laser cutting means along said path of the security paper ; and - suction means comprising at least one suction mouth , located along said path of the security paper ; - laser control means configured so said laser cutting means generate the window in the security paper by means of a continuous cut according to a pre-established pattern and a pre-established cutting area; said suction means being located below the security paper below said cutting area to suction the window cut from the security paper after the cut carried out by the laser cutting means; said laser cutting means comprise at least one laser head and one scanner per each laser head , and in that the system also comprises a high-resolution encoder and a plurality of optical sensors located in the path of the security paper before the cutting area, said plurality of sensors providing information about possible deviations of the security paper along the path; wherein a first sensor of said plurality of sensors is configured to detect an edge of the security paper , said first sensor providing information about the transverse deviation of the security paper; and a second sensor of said plurality of sensors is configured to detect a reference mark arranged along the security paper , said second sensor providing information about the longitudinal deviation of the security paper.
Method for the production of a plurality of concrete cast elements of prestressed concrete, in particular for the production of railway sleepers, in a long bed which is a multiple of the length of a concrete cast element, in which separating elements are installed in the long bed to define the length of each of the concrete cast elements to be cast, characterized in that a first and a second separating element for defining the length of a concrete cast element together with a tensioning device with tensioning elements for tensioning the concrete cast element between the two separating elements are mounted in the long bed , whereupon the concrete cast element is cast between the two separating elements and is at least partially hardened in the long bed .
Gas diffusion layer comprising a substrate of carbonaceous material and a microporous layer, wherein the gas diffusion layer can be obtained using a method comprising the following steps: i) dispersing carbon black having a BET surface area of at most 200 m 2 /g, carbon nanotubes having a BET surface area of at least 200 m 2 /g and having an average outer diameter (d 50 ) of at most 25 nm, and a dispersion-medium-containing mixture at a shear rate of at least 1,000 s -1 and such that, in the produced dispersion, at least 90% of all the carbon nanotubes have an average agglomerate size of at most 25 μm, wherein the sum of the amounts of carbon black and carbon nanotubes is 1 to 15 wt.%, based on the total amount of the mixture, ii) applying the dispersion produced in step i) to at least part of at least one side of the substrate and iii) drying the dispersion applied in step ii). i) dispersing carbon black having a BET surface area of at most 200 m 2 /g, carbon nanotubes having a BET surface area of at least 200 m 2 /g and having an average outer diameter (d 50 ) of at most 25 nm, and a dispersion-medium-containing mixture at a shear rate of at least 1,000 s -1 and such that, in the produced dispersion, at least 90% of all the carbon nanotubes have an average agglomerate size of at most 25 μm, wherein the sum of the amounts of carbon black and carbon nanotubes is 1 to 15 wt.%, based on the total amount of the mixture, ii) applying the dispersion produced in step i) to at least part of at least one side of the substrate and iii) drying the dispersion applied in step ii).
A combined heat and power (CHP) system comprising: a generator configured to generate electrical power and exhaust, the generator powering an external load; a power storage configured to store and discharge the electrical power generated by the generator ; an exhaust conduit configured to receive exhaust from the generator ; a waste heat recovery unit, WHRU, disposed in thermal communication with the exhaust conduit and configured to heat a fluid by transferring heat from the exhaust to the fluid; a tank configured to store the fluid heated by the WHRU ; a transfer conduit configured to circulate the fluid between the WHRU the tank and an external process; and an evaporator configured to evaporate liquid carbon dioxide using heat recovered from the exhaust, connected after the WHRU or connected to the transfer conduit . a generator configured to generate electrical power and exhaust, the generator powering an external load; a power storage configured to store and discharge the electrical power generated by the generator ; an exhaust conduit configured to receive exhaust from the generator ; a waste heat recovery unit, WHRU, disposed in thermal communication with the exhaust conduit and configured to heat a fluid by transferring heat from the exhaust to the fluid; a tank configured to store the fluid heated by the WHRU ; a transfer conduit configured to circulate the fluid between the WHRU the tank and an external process; and an evaporator configured to evaporate liquid carbon dioxide using heat recovered from the exhaust, connected after the WHRU or connected to the transfer conduit .
Device for dosed extraction of products , such as shredded used tyres, coarsely ground municipal waste, commercial waste, paper, textiles, etc. comprising a hopper for storing a given quantity of said products , chain-type driving means along an upward slope, a calibrator drum located in the area of the forward end of said upward slope, characterized in that said device comprises pallets laterally driven by said driving means , in that said device has a flexible band attached to said pallets , in that said calibrated drum is located above said pallets , and in that said driving means extends beyond the upward slope on the horizontal portion, and in that said device includes a weighing means arranged on said horizontal part, configured to allow regulation of the speed of said driving means for dosing said products .
An exoskeleton including a length adjustable leg member (511/521) pivotally connected to a first other member at a first pivot location, with a linear actuator (571a/581a) connected between the leg member (511/521) and the first other member, such that extension or retraction of the actuator (571a/581a) causes relative pivoting of the leg member (511/521) relative to the first other member, wherein the actuator (571a/581a) connects to the leg member (511/521) at an actuator connecting location spaced along the leg member (511/521) from the first pivot location, wherein the leg member (511/521) includes a first leg part (511a/521a) and a second leg part (511b/521b) together formed and slidable relative to one another along a line of adjustment by an adjustment mechanism , said leg member (511/521) including the adjustment mechanism which fixedly adjusts the relative position of the first leg part (511a/521a) and second leg part (511b/521b) along the line of adjustment by pulling or pushing one of the first or second leg parts relative to the other of the first or second leg parts; said leg member (511/521) including a locking mechanism which is independent of the adjustment mechanism and which secures the relative position of the first leg part (511a/521a) and the second leg part (511b/521b); and wherein the adjustment of the length of the leg member (511/521) alters the position of the first or second leg part while the other of the first or second leg part remains fixed in position relative to the first other member so as to not affect the length of the portion of the leg member (511/521) that is between the actuator connecting location and the first pivot location.
A vessel comprising a lifting system for taking up an elongate object from a deck of the vessel, comprising a crane arm which is connected to the deck and from which is suspended a take-up frame to which the elongate object can be attached, and further a winch setup and control lines connected thereto and configured to control the movement of the elongate object when this object is lifted off the deck , characterized in that the control lines run from the take-up frame to a pulley setup and from there to the winch setup , which pulley setup and winch setup are provided on a support structure , which differs from the crane arm , extends from the deck of the vessel to a height and is strong enough to be able to absorb the forces acting on the object while it is being lifted off the deck, wherein the pulley setup is movable relative to the support structure in a height direction.
A system for disinfecting and removing biological material from water and for injecting the water into an injection well in a water body for increasing the production rate and amount of recoverable reserves from a petroleum reservoir, the system including: - a source of untreated water; - a controllable concentration of chlorine; - at least one apparatus for the gravitational precipitation of particles and removal from water, wherein the controllable concentration of chlorine may react with biological material in the water, the at least one apparatus for the gravitational precipitation of particles being connected, in terms of fluid, to the source of untreated water and to the injection well ; - at least one apparatus (13, 13', 13") for the addition of the controllable concentration of chlorine for the disinfection of water, the at least one apparatus (13, 13', 13") for the addition of the controllable concentration of chlorine being connected, in terms of fluid, to the at least one apparatus for the gravitational precipitation of particles, the source of untreated water and to the injection well ; and - an injection pump for injecting treated water into the injection well , characterized in that the at least one apparatus for the gravitational precipitation of particles is positioned downstream relative to the apparatus (13, 13', 13") for the addition of the controllable concentration of chlorine for disinfection; and wherein the system comprises sensors for controlling the concentration of chlorine at both the inlet and the outlet of the apparatus for the gravitational precipitation of particles. - a source of untreated water; - a controllable concentration of chlorine; - at least one apparatus for the gravitational precipitation of particles and removal from water, wherein the controllable concentration of chlorine may react with biological material in the water, the at least one apparatus for the gravitational precipitation of particles being connected, in terms of fluid, to the source of untreated water and to the injection well ; - at least one apparatus (13, 13', 13") for the addition of the controllable concentration of chlorine for the disinfection of water, the at least one apparatus (13, 13', 13") for the addition of the controllable concentration of chlorine being connected, in terms of fluid, to the at least one apparatus for the gravitational precipitation of particles, the source of untreated water and to the injection well ; and - an injection pump for injecting treated water into the injection well , characterized in that the at least one apparatus for the gravitational precipitation of particles is positioned downstream relative to the apparatus (13, 13', 13") for the addition of the controllable concentration of chlorine for disinfection; and
A method for capturing integrated circuit,IC, die temperature data, the method comprising: responsive to an application of power to the IC , self-initializing the IC by: asserting a reset signal for a reset period; in response to an expiration of the reset period, deasserting the reset signal; and responsive to deasserting the reset signal, automatically: obtaining first temperature data from at least one thermal sensing device associated with a die of the IC ; and storing the first temperature data in a storage component of the IC . responsive to an application of power to the IC , self-initializing the IC by: asserting a reset signal for a reset period; in response to an expiration of the reset period, deasserting the reset signal; and responsive to deasserting the reset signal, automatically: obtaining first temperature data from at least one thermal sensing device associated with a die of the IC ; and storing the first temperature data in a storage component of the IC . obtaining first temperature data from at least one thermal sensing device associated with a die of the IC ; and storing the first temperature data in a storage component of the IC .
Procedure for the mains synchronization of an electromagnetic flowmeter with a sensor and a power unit, wherein a DC current signal designed to power the sensor is transmitted from the power unit to the sensor via two signal conductors, characterized by the following procedure steps: Generation on the power unit side of a differential synchronization signal to synchronize the flow measurement with the mains frequency; wherein the differential synchronization signal is generated as follows: generation of a rectangular voltage signal; generation of a differential voltage signal as a differential synchronization signal with pulses at the same time as the edges of the rectangular voltage signal. Transmission of the differential synchronization signal to the sensor via the two signal conductors; Separation on the sensor side of the differential synchronization signal and the DC current signal; Processing of the differential synchronization signal for the synchronization of flow measurement with the mains frequency. Generation on the power unit side of a differential synchronization signal to synchronize the flow measurement with the mains frequency; wherein the differential synchronization signal is generated as follows: generation of a rectangular voltage signal; generation of a differential voltage signal as a differential synchronization signal with pulses at the same time as the edges of the rectangular voltage signal. generation of a rectangular voltage signal; generation of a differential voltage signal as a differential synchronization signal with pulses at the same time as the edges of the rectangular voltage signal. Transmission of the differential synchronization signal to the sensor via the two signal conductors; Separation on the sensor side of the differential synchronization signal and the DC current signal; Processing of the differential synchronization signal for the synchronization of flow measurement with the mains frequency.