mhurhangee/ep-ind-claims huggingface dataset:
A ventilation control device controlling ventilation of a building, comprising: an air supply/exhaust controller configured to control the operation of an air supplier/exhauster comprising air supply function and exhaust function, a wind information acquirer configured to acquire as wind information regarding the outdoor wind respective measurement results from a wind pressure sensor and a wind pressure sensor measuring an outdoor wind pressure, the wind pressure sensor being installed near the air supplier/exhauster, and the wind pressure sensor installed near a vent provided to the building, and a wind direction determiner configured to determine whether the installation point of the air supplier/exhauster is in the wind or off the wind based on the wind information, wherein the air supply/exhaust controller is configured to order the air supplier/exhauster to conduct, air supply operation when the air supplier/exhauster is in the wind or exhaust operation when the air supplier/exhauster is off the wind; and the ventilation control device is configured to adjust at least one of a performance or operation time of the air supplier/exhauster in accordance with the outdoor wind force; where the ventilation through a ventilation passage from the air supplier/exhauster to the vent is conducted when the air supplier/exhauster conducts air supply operation and alternatively, the ventilation through the ventilation passage from the vent to the air supplier/exhauster is conducted when the air supplier/exhauster conducts exhaust operation. an air supply/exhaust controller configured to control the operation of an air supplier/exhauster comprising air supply function and exhaust function, a wind information acquirer configured to acquire as wind information regarding the outdoor wind respective measurement results from a wind pressure sensor and a wind pressure sensor measuring an outdoor wind pressure, the wind pressure sensor being installed near the air supplier/exhauster, and the wind pressure sensor installed near a vent provided to the building, and a wind direction determiner configured to determine whether the installation point of the air supplier/exhauster is in the wind or off the wind based on the wind information, wherein the air supply/exhaust controller is configured to order the air supplier/exhauster to conduct, air supply operation when the air supplier/exhauster is in the wind or exhaust operation when the air supplier/exhauster is off the wind; and the ventilation control device is configured to adjust at least one of a performance or operation time of the air supplier/exhauster in accordance with the outdoor wind force; where the ventilation through a ventilation passage from the air supplier/exhauster to the vent is conducted when the air supplier/exhauster conducts air supply operation and alternatively, the ventilation through the ventilation passage from the vent to the air supplier/exhauster is conducted when the air supplier/exhauster conducts exhaust operation.
Aircraft cooling system having: - a cooler which is adapted to supply cooling energy to an aircraft device to be cooled, and - a heat transfer arrangement comprising a heat transfer circuit, in which a liquid heat transfer medium heated by the waste heat of the cooler circulates, characterized in that the heat transfer arrangement produces a thermal coupling between the cooler and a cabin air extraction system in order to transfer waste heat generated by the cooler to the cabin air extraction system. - a cooler which is adapted to supply cooling energy to an aircraft device to be cooled, and - a heat transfer arrangement comprising a heat transfer circuit, in which a liquid heat transfer medium heated by the waste heat of the cooler circulates, characterized in that the heat transfer arrangement produces a thermal coupling between the cooler and a cabin air extraction system in order to transfer waste heat generated by the cooler to the cabin air extraction system.
A modular system for the unbroken acquisition of data from an entire patient stay in critical care emergency areas and theatres, the system including a portable ventilator module in combination with an anaesthesia module and a data module capable of artificial intelligence (Al) and/or machine learning within the portable ventilator module, the portable ventilator module is detachably attachable to the anaesthesia module, wherein the portable ventilator module can provide life-sustaining ventilation support to a patient in critical care and wherein the portable ventilator can dock with the anaesthesia module to provide anaesthesia during operations in theatre so that a machine change from an intensive care unit ventilator to a separate anaesthesia machine and back again is not required, thereby avoiding data loss, characterised in that the ventilator module comprises a turbine and, when the anaesthesia module is not connected, air is drawn in from atmosphere by the action of the ventilator module turbine, and wherein a docking port is provided to connect the ventilator module to the anaesthesia module, in which a connection is provided within the docking port to connect recirculated gas from the anaesthesia module to the air intake input in the ventilator module.
A stern structure of a ship, comprising: a plurality of propellers (10,20); a plurality of propeller shafts (12,22) connected to the plurality of propellers (10,20), respectively; a plurality of propeller shaft tubes (11,21) into which the plurality of propeller shafts (12,22) are inserted, respectively; and a stern structural body connected to a rear part of a stern body, wherein the stern structural body includes: a side fin (63,73;67,77) extending backwardly from the stern body within a predetermined distance from a location where one of the propeller shaft tubes (11,21) protrudes from the stern body and connected to a side portion of the one of the plurality of propeller shaft tubes (11,21) to support the one of the plurality of propeller shaft tubes (11,21), and an upper fin (62,72;66,76) extending downwardly from a bottom of the stern body and connected to an upper portion of the one of the plurality of propeller shaft tubes (11,21) to support the one of the plurality of propeller shaft tubes (11,21), wherein the side fin (63,73;67,77) and the upper fin (62,72;66,76) are disposed to coincide with directions of stream lines around the ship body. a plurality of propellers (10,20); a plurality of propeller shafts (12,22) connected to the plurality of propellers (10,20), respectively; a plurality of propeller shaft tubes (11,21) into which the plurality of propeller shafts (12,22) are inserted, respectively; and a stern structural body connected to a rear part of a stern body, wherein the stern structural body includes: a side fin (63,73;67,77) extending backwardly from the stern body within a predetermined distance from a location where one of the propeller shaft tubes (11,21) protrudes from the stern body and connected to a side portion of the one of the plurality of propeller shaft tubes (11,21) to support the one of the plurality of propeller shaft tubes (11,21), and an upper fin (62,72;66,76) extending downwardly from a bottom of the stern body and connected to an upper portion of the one of the plurality of propeller shaft tubes (11,21) to support the one of the plurality of propeller shaft tubes (11,21), a side fin (63,73;67,77) extending backwardly from the stern body within a predetermined distance from a location where one of the propeller shaft tubes (11,21) protrudes from the stern body and connected to a side portion of the one of the plurality of propeller shaft tubes (11,21) to support the one of the plurality of propeller shaft tubes (11,21), and an upper fin (62,72;66,76) extending downwardly from a bottom of the stern body and connected to an upper portion of the one of the plurality of propeller shaft tubes (11,21) to support the one of the plurality of propeller shaft tubes (11,21), wherein the side fin (63,73;67,77) and the upper fin (62,72;66,76) are disposed to coincide with directions of stream lines around the ship body.
A cosmetic product applicator having a proximal end and a free end and comprising at least two rows (11, 12) of fingers forming first and second planar layers respectively, both layers being distinct from and parallel to each other, the fingers having a dimension which decreases from the proximal end to the free end of the applicator, both rows (11, 12) facing each other, preferably these two rows being contiguous, the fingers being main fingers, an angle between a longitudinal direction of the applicator and each main finger decreasing from the proximal end to the free end of the applicator, the respective main fingers of two of the rows (11, 11', 12, 12') facing each other are offset from each other along a longitudinal direction of the applicator, the offset value between two consecutive fingers being variable along the applicator, the applicator further comprises secondary fingers extending from at least one of the main fingers, preferably secondary fingers extending from each main finger, at least one of the fingers (10, 15) being lanceolate-shaped. both layers being distinct from and parallel to each other, the fingers having a dimension which decreases from the proximal end to the free end of the applicator, both rows (11, 12) facing each other, preferably these two rows being contiguous, the fingers being main fingers, an angle between a longitudinal direction of the applicator and each main finger decreasing from the proximal end to the free end of the applicator, the respective main fingers of two of the rows (11, 11', 12, 12') facing each other are offset from each other along a longitudinal direction of the applicator, the offset value between two consecutive fingers being variable along the applicator, the applicator further comprises secondary fingers extending from at least one of the main fingers, preferably secondary fingers extending from each main finger, at least one of the fingers (10, 15) being lanceolate-shaped.
Combustion engine comprising at least one exhaust section having at least one exhaust gas aftertreatment device, at least one aqueous urea solution tank and an aqueous urea solution heat exchanger which is arranged close to the engine, characterized in that the aqueous urea solution heat exchanger is situated in the cooling-water-carrying region of the crankcase of the combustion engine and/or in the cylinder head.
A battery, characterized in comprising a positive electrode plate comprising a positive current collector and a positive active material layer; a negative electrode plate comprising a negative current collector and a negative active material layer, and an electrolyte, wherein the positive current collector comprises an insulation layer and at least one conductive layer, the insulation layer is used to support the at least one conductive layer, each of the at least one conductive layer is used to support the positive active material layer and is located above at least one surface of the insulation layer, and each of the at least one conductive layer has a thickness of D2 satisfying: 300 nm≤D2≤2 μm, wherein at least one protective layer is arranged on at least one surface of each of the at least one conductive layer, the at least one protective layer comprises one protective layer arranged on a surface of one of the at least one conductive lay facing the insulation layer, and wherein the negative current collector is a copper foil current collector having a thickness of 6 μm to 12 μm. a positive electrode plate comprising a positive current collector and a positive active material layer; a negative electrode plate comprising a negative current collector and a negative active material layer, and an electrolyte, wherein the positive current collector comprises an insulation layer and at least one conductive layer, the insulation layer is used to support the at least one conductive layer, each of the at least one conductive layer is used to support the positive active material layer and is located above at least one surface of the insulation layer, and each of the at least one conductive layer has a thickness of D2 satisfying: 300 nm≤D2≤2 μm, wherein at least one protective layer is arranged on at least one surface of each of the at least one conductive layer, the at least one protective layer comprises one protective layer arranged on a surface of one of the at least one conductive lay facing the insulation layer, and wherein the negative current collector is a copper foil current collector having a thickness of 6 μm to 12 μm.
A method of evaluating a neutron scattering length density of scatterers in a material, comprising determining the neutron scattering length density, characterized in that the neutron scattering length density is determined based on a scattering intensity curve obtained by neutron scattering measurement, with the neutron scattering measurement being a small-angle neutron scattering measurement, with use of a scattering intensity curve obtained by X-ray scattering measurement, with the X-ray scattering measurement being a small-angle X-ray scattering measurement. determining the neutron scattering length density, characterized in that the neutron scattering length density is determined based on a scattering intensity curve obtained by neutron scattering measurement, with the neutron scattering measurement being a small-angle neutron scattering measurement, with use of a scattering intensity curve obtained by X-ray scattering measurement, with the X-ray scattering measurement being a small-angle X-ray scattering measurement.
A wound treatment apparatus comprising: a body of a porous material, the body comprising frangible regions defining a plurality of portions, the frangible regions allowing the portions to be selectively removed from the body so as to form a recess in the body, the recess being bound by a bottom surface and a wall portion; and a secondary wound filler for positioning within the recess in the body. a body of a porous material, the body comprising frangible regions defining a plurality of portions, the frangible regions allowing the portions to be selectively removed from the body so as to form a recess in the body, the recess being bound by a bottom surface and a wall portion; and a secondary wound filler for positioning within the recess in the body.
A method for producing a prosthesis liner which can be pulled over an amputation stump like a stocking, characterized in that the prosthesis liner is produced at least partially by means of an additive manufacturing process from at least one production material that is introduced into a support material in a flowable state and then hardens.
A method for performing a scanning probe microscopy measurement on a sample, comprising the steps of: - Attaching the sample to a cantilever, - Providing a substrate comprising on its surface a plurality of SPM tips comprising at least two types of SPM tips (2a,2b) which differ from each other in terms of their material, in terms of their shape or size, and/or in terms of the presence or the type of active or passive components mounted on or incorporated in the substrate, and associated to tips of one or more of the different types, - Performing one or more first SPM measurements by scanning the sample across a tip of a first type, - Performing one or more second SPM measurements by scanning the sample across a tip of the second type, - Possibly performing one or more further SPM measurements by scanning the sample across a tip of other types, characterized in that a sequence of steps is performed, comprising a first step of slicing away a layer from the surface of the sample by scanning the sample across one of the tips of the first type, and a second step of performing an SPM measurement by scanning the sample across one of the tips of the second type, and wherein the sequence is repeated multiple times to thereby obtain a tomographic image of one or more characteristics of the sample. - Attaching the sample to a cantilever, - Providing a substrate comprising on its surface a plurality of SPM tips comprising at least two types of SPM tips (2a,2b) which differ from each other in terms of their material, in terms of their shape or size, and/or in terms of the presence or the type of active or passive components mounted on or incorporated in the substrate, and associated to tips of one or more of the different types, - Performing one or more first SPM measurements by scanning the sample across a tip of a first type, - Performing one or more second SPM measurements by scanning the sample across a tip of the second type, - Possibly performing one or more further SPM measurements by scanning the sample across a tip of other types,
A service processing method, comprising: receiving, by a first device, a first identifier sent by a second device, wherein the first identifier is sent by the second device after the second device receives a trigger request used to perform a first service, the first identifier is in a first state or a second state, the first service is an unlocking service or a payment service, that the first identifier is in the first state indicates that a location of the second device or a location of the first device is abnormal, and that the first identifier is in the second state indicates that the location of the second device is normal; and if the first device determines, based on the received first identifier, to perform authentication, and the authentication succeeds, sending, by the first device, a second identifier to the second device, wherein the second identifier indicates that it is determined to perform the first service; or if the first device determines, based on the received first identifier, not to perform authentication, sending, by the first device, first information to the second device, wherein the first information comprises first location information and a third identifier, the first location information is location information of the first device, and the third identifier indicates that the location of the first device and the location of the second device are normal. receiving, by a first device, a first identifier sent by a second device, wherein the first identifier is sent by the second device after the second device receives a trigger request used to perform a first service, the first identifier is in a first state or a second state, the first service is an unlocking service or a payment service, that the first identifier is in the first state indicates that a location of the second device or a location of the first device is abnormal, and that the first identifier is in the second state indicates that the location of the second device is normal; and if the first device determines, based on the received first identifier, to perform authentication, and the authentication succeeds, sending, by the first device, a second identifier to the second device, wherein the second identifier indicates that it is determined to perform the first service; or if the first device determines, based on the received first identifier, not to perform authentication, sending, by the first device, first information to the second device, wherein the first information comprises first location information and a third identifier, the first location information is location information of the first device, and the third identifier indicates that the location of the first device and the location of the second device are normal.
Fluid-flow machine with a main flow path which is confined by a hub and a casing and in which at least one row of variable stator vanes is arranged, wherein on at least one hub or casing at least one arrangement with at least two stator vanes connected to a common rotary base is provided, wherein the at least two stator vanes are rotatable around a common rotary axis when this multi-vane variable stator unit is varied, characterized in that the relative camber f/l of the centroidally further downstream profile, when seen in the meridional direction, is distinctly larger than the relative camber f/l of the centroidally further upstream profile, when seen in the meridional direction, according to (f/l) downstream > 1.2 * (f/l) upstream, wherein l is the profile depth, measured in the direction of the profile chord and f is the profile camber, measured as vertical distance of the furthermost point of the skeleton line from the profile chord relative to the profile line.
A method for phase-to-ground fault handling in a direct current, DC, power transmission system configured to transmit DC power between a first alternating current, AC, system and a second AC system, wherein the system includes a current-source converter, CSC, connected to the first AC system and operating as a rectifier on a rectifier side of the DC power transmission system, and a voltage-source converter, VSC, connected to the second AC system and operating as an inverter on an inverter side of the DC power transmission system, said method comprising the steps of: detecting an occurrence of a phase-to-ground fault internal to the VSC, and upon detecting the occurrence of the phase-to-ground fault, firing a bypass valve pair of the CSC for reducing or removing an overvoltage across at least a valve arm of the VSC, wherein firing a bypass valve pair of a CSC comprises forcing at least two switches in the CSC connected to the same AC phase to conduct at a same time. detecting an occurrence of a phase-to-ground fault internal to the VSC, and upon detecting the occurrence of the phase-to-ground fault, firing a bypass valve pair of the CSC for reducing or removing an overvoltage across at least a valve arm of the VSC,
A multilayered wound care product comprising: (a) an upper liquid-absorbing layer; (b) an intermediate occlusive layer; and (c) an active agent-releasing bottom layer; wherein the occlusive layer and the active agent-releasing layer are sheet-like layers with co-aligned pores or perforations that enable the passage of wound exudate through the common pores or perforations of the said two layers to reach the liquid-absorbing layer and simultaneously enable the release of the active agent from the area between the pores or perforations to enter the wound site. (a) an upper liquid-absorbing layer; (b) an intermediate occlusive layer; and (c) an active agent-releasing bottom layer;