mhurhangee/patent-ind-claim-en huggingface dataset:
A container refrigeration apparatus, comprising: a casing which is attached to an open end of a container for housing a respiring plant , and forms an external storage space (S1) communicating with the exterior of the container and an internal storage space (S2) communicating with the interior of the container ; a refrigerant circuit in which a condenser disposed in the external storage space (S1) and an evaporator disposed in the internal storage space (S2) are connected together to perform a refrigeration cycle; an external fan which is disposed in the external storage space (S1), and guides outside air into the external storage space (S1) to form a flow of the outside air toward the condenser ; an internal fan which is disposed in the internal storage space (S2), and guides inside air in the container into the internal storage space (S2) to form a flow of the inside air toward the evaporator ; and an inside air control system which includes an exhaust passage which allows a space on a blowout side of the internal fan in the internal storage space (S2) to communicate with the external storage space (S1), and controls composition of the inside air in the container , wherein an external end of the exhaust passage is open on a suction side of the external fan in the external storage space (S1), wherein the inside air control system includes a gas supply device which supplies nitrogen-enriched air having a higher nitrogen concentration than the outside air to the internal storage space (S2). a casing which is attached to an open end of a container for housing a respiring plant , and forms an external storage space (S1) communicating with the exterior of the container and an internal storage space (S2) communicating with the interior of the container ; a refrigerant circuit in which a condenser disposed in the external storage space (S1) and an evaporator disposed in the internal storage space (S2) are connected together to perform a refrigeration cycle; an external fan which is disposed in the external storage space (S1), and guides outside air into the external storage space (S1) to form a flow of the outside air toward the condenser ; an internal fan which is disposed in the internal storage space (S2), and guides inside air in the container into the internal storage space (S2) to form a flow of the inside air toward the evaporator ; and an inside air control system which includes an exhaust passage which allows a space on a blowout side of the internal fan in the internal storage space (S2) to communicate with the external storage space (S1), and controls composition of the inside air in the container , wherein an external end of the exhaust passage is open on a suction side of the external fan in the external storage space (S1), wherein the inside air control system includes a gas supply device which supplies nitrogen-enriched air having a higher nitrogen concentration than the outside air to the internal storage space (S2).
Device for processing flat objects comprising a transport system with several rotatably mounted conveyor rollers , with which the flat objects are transportable in the transport direction, and at least one releasably mounted tool module , a) which is releasably coupled to only one drive shaft (28; 29) or to a lower and an upper rotatably mounted drive shaft ; b) which is supported displaceable along the only one drive shaft (28; 29) or the lower and the upper drive shaft (28; 29); and c) which is equipped with tool parts for processing the flat objects , of which tool parts at least one is drivable by the lower or the upper drive shaft (28; 29); characterised in that the tool module is supported on a tool carrier which is displaceable by means of a rotatably mounted setting shaft (38; 39) in parallel to the only one drive shaft (28; 29) or in parallel to the lower and the upper drive shafts (28; 29), and which tool carrier has at least one holding element (325; 35) which serves for releasably holding the tool module . a) which is releasably coupled to only one drive shaft (28; 29) or to a lower and an upper rotatably mounted drive shaft ; b) which is supported displaceable along the only one drive shaft (28; 29) or the lower and the upper drive shaft (28; 29); and c) which is equipped with tool parts for processing the flat objects , of which tool parts at least one is drivable by the lower or the upper drive shaft (28; 29);
A method for identifying a concentration of an aqueous acidic electrolyte in an electrochemical sensor, the method comprising: scanning a working electrode of the electrochemical sensor using cyclic voltammetry, wherein the working electrode is in contact with the electrolyte and comprises platinum; generating a set of readings from the cyclic voltammetry; identifying positions of at least two peaks in the set of readings, wherein one peak is a reference peak corresponding to adsorption or desorption of hydrogen and the other peak is due to Pt-Oxide formation or reduction; and determining the electrolyte concentration of the electrolyte of the electrochemical sensor by applying a predetermined correlation to a voltage difference between the identified positions of the at least two peaks. scanning a working electrode of the electrochemical sensor using cyclic voltammetry, wherein the working electrode is in contact with the electrolyte and comprises platinum; generating a set of readings from the cyclic voltammetry; identifying positions of at least two peaks in the set of readings, wherein one peak is a reference peak corresponding to adsorption or desorption of hydrogen and the other peak is due to Pt-Oxide formation or reduction; and determining the electrolyte concentration of the electrolyte of the electrochemical sensor by applying a predetermined correlation to a voltage difference between the identified positions of the at least two peaks.
Method for monitoring a hot gas region (HGR) of a gas turbine (GT), characterized in that a) the hot gas region is connected to an imaging radar assembly (RC), which is operated at a location on the gas turbine which is remote from the hot gas region, as what is referred to as a "synthetic aperture radar" device, by means of at least one waveguide (HL), b) the waveguide is closed off at the end at which the radar assembly is operated, in such a way that the radar assembly is operated outside the closed-off waveguide and is configured at the end of the waveguide facing the hot gas region, in such a way that the waveguide leads in an open fashion into the hot gas region or is shielded against heat while being permeable to radar waves, and that the radar waves pass into the hot region, c) the radar assembly is actuated and functionally connected to the hot gas area via the waveguide, in such a way that at time intervals at least parts of the hot gas area are captured in an imaging fashion repeatedly at time intervals by the radar assembly, d) the captured image data is fed to an evaluation device, e) maintenance is initiated in accordance with the result of the evaluation device, in particular by triggering an alarm. a) the hot gas region is connected to an imaging radar assembly (RC), which is operated at a location on the gas turbine which is remote from the hot gas region, as what is referred to as a "synthetic aperture radar" device, by means of at least one waveguide (HL), b) the waveguide is closed off at the end at which the radar assembly is operated, in such a way that the radar assembly is operated outside the closed-off waveguide and is configured at the end of the waveguide facing the hot gas region, in such a way that the waveguide leads in an open fashion into the hot gas region or is shielded against heat while being permeable to radar waves, and that the radar waves pass into the hot region, c) the radar assembly is actuated and functionally connected to the hot gas area via the waveguide, in such a way that at time intervals at least parts of the hot gas area are captured in an imaging fashion repeatedly at time intervals by the radar assembly, d) the captured image data is fed to an evaluation device, e) maintenance is initiated in accordance with the result of the evaluation device, in particular by triggering an alarm.
A data transmission method, applied to a first base station or a Centralized Unit, CU, of the first base station or a Distributed Unit, DU, of the first base station, the data transmission method comprising: receiving data and a Radio Resource Control, RRC, resume request message from a User Equipment, UE, in an RRC inactive state; and after the receiving step , sending an RRC release message to the UE; after receiving the data and the RRC resume request message from the UE in the RRC inactive state, the method further comprises: sending a retrieval UE context request message to a second base station, characterized in that the retrieval UE context request message carries , subsequent data transmission indication information. receiving data and a Radio Resource Control, RRC, resume request message from a User Equipment, UE, in an RRC inactive state; and after the receiving step , sending an RRC release message to the UE; after receiving the data and the RRC resume request message from the UE in the RRC inactive state, the method further comprises: sending a retrieval UE context request message to a second base station, characterized in that the retrieval UE context request message carries , subsequent data transmission indication information.
A testing substrate comprising: a substrate material defining at least one well, the at least one well having a bottom surface, a center, and at least one side wall, the at least one side wall having a cross-sectional shape when lying in a plane parallel to the bottom surface; and a set of analysis features printed on the bottom surface in a pattern, characterized in that the pattern has multiple circular rings of analysis features, wherein each ring of the multiple rings of analysis features has a shape similar to the cross-sectional shape of the side wall, wherein for each ring of the multiple rings of analysis features: a distance from the outer edge of the at least one well to the center of each of the analysis features is 10% to 90% of a radius of the at least one well, and all of the analysis features of the ring are arranged such that a distance from a center of each of the features to the center of the well is the same for each of the features. a substrate material defining at least one well, the at least one well having a bottom surface, a center, and at least one side wall, the at least one side wall having a cross-sectional shape when lying in a plane parallel to the bottom surface; and a set of analysis features printed on the bottom surface in a pattern, characterized in that the pattern has multiple circular rings of analysis features, wherein each ring of the multiple rings of analysis features has a shape similar to the cross-sectional shape of the side wall, wherein for each ring of the multiple rings of analysis features: a distance from the outer edge of the at least one well to the center of each of the analysis features is 10% to 90% of a radius of the at least one well, and all of the analysis features of the ring are arranged such that a distance from a center of each of the features to the center of the well is the same for each of the features. a distance from the outer edge of the at least one well to the center of each of the analysis features is 10% to 90% of a radius of the at least one well, and all of the analysis features of the ring are arranged such that a distance from a center of each of the features to the center of the well is the same for each of the features.
A cooling system for a superconducting device, comprising: a liquid nitrogen circulation path ; a pump disposed on the liquid nitrogen circulation path to circulate liquid nitrogen for cooling the superconducting device; and a refrigeration system comprising Brayton cycle having: a circulation path in which a refrigerant flows; and at least one compressor for compressing the refrigerant, a heat exchanger for cooling the refrigerant compressed by the compressor , at least one expansion turbine for expanding the refrigerant cooled by the heat exchanger to generate cold heat, and a cooling part for cooling the liquid nitrogen in the liquid nitrogen circulation path by the cold heat, which are provided on the circulation path in order, wherein at least either the at least one compressor or the at least one expansion turbine comprises a plurality of compressors (102a, 102b; 112a, 112b) or expansion turbines which are arranged in parallel with one another with respect to the circulation path , wherein the at least one expansion turbine is housed together with the cooling part in at least one cold box insulated from the outside, wherein the at least one compressor is housed in at least one compressor unit other than the at least one cold box , and wherein the at least one compressor unit is to be placed at a position farther from the superconducting device as an object to be cooled than the at least one cold box . a liquid nitrogen circulation path ; a pump disposed on the liquid nitrogen circulation path to circulate liquid nitrogen for cooling the superconducting device; and a refrigeration system comprising Brayton cycle having: a circulation path in which a refrigerant flows; and at least one compressor for compressing the refrigerant, a heat exchanger for cooling the refrigerant compressed by the compressor , at least one expansion turbine for expanding the refrigerant cooled by the heat exchanger to generate cold heat, and a cooling part for cooling the liquid nitrogen in the liquid nitrogen circulation path by the cold heat, which are provided on the circulation path in order, wherein at least either the at least one compressor or the at least one expansion turbine comprises a plurality of compressors (102a, 102b; 112a, 112b) or expansion turbines which are arranged in parallel with one another with respect to the circulation path , wherein the at least one expansion turbine is housed together with the cooling part in at least one cold box insulated from the outside, wherein the at least one compressor is housed in at least one compressor unit other than the at least one cold box , and wherein the at least one compressor unit is to be placed at a position farther from the superconducting device as an object to be cooled than the at least one cold box .
Method for interrelating a displaying device relative to a surveying instrument for the purpose of steering the surveying instrument with the displaying device, said displaying device and surveying instrument being spatially separated from each other and comprising communication means to communicate with each other, the method comprising the steps: • providing a first image generated with the surveying instrument and providing a second image generated with the displaying device , wherein the first image and the second image at least in part cover the same scenery , • detecting corresponding features (F1,F2,F3,F4,F1',F2',F3',F4') in the first image and in the second image with a processing unit, • deriving a set of transition parameters based at least in part on the corresponding features (F1,F2,F3,F4,F1',F2',F3',F4') with said processing unit, • referencing the displaying device relative to the surveying instrument regarding position and orientation based at least in part on the set of parameters with said processing unit to determine a pose of the displaying device with respect to the surveying instrument , • based on the pose of the displaying device with respect to the surveying instrument , generating control commands with the displaying device, and • with the control commands, controlling an orientation of the surveying instrument or a trigger of a measurement to be performed by the surveying instrument . • providing a first image generated with the surveying instrument and providing a second image generated with the displaying device , wherein the first image and the second image at least in part cover the same scenery , • detecting corresponding features (F1,F2,F3,F4,F1',F2',F3',F4') in the first image and in the second image with a processing unit, • deriving a set of transition parameters based at least in part on the corresponding features (F1,F2,F3,F4,F1',F2',F3',F4') with said processing unit, • referencing the displaying device relative to the surveying instrument regarding position and orientation based at least in part on the set of parameters with said processing unit to determine a pose of the displaying device with respect to the surveying instrument , • based on the pose of the displaying device with respect to the surveying instrument , generating control commands with the displaying device, and • with the control commands, controlling an orientation of the surveying instrument or a trigger of a measurement to be performed by the surveying instrument .
A breathing mask having a mask body and an opening for breathing gases, and a connector having an outer contour , which is at least partially introduced with the outer contour into the opening and is held mechanically and detachably in the opening, wherein an adapter for supplying breathing gas is detachably connected to the connector , wherein discharge faces for exhalation gases in the interface between the internal surface of the opening and the outer contour of the connector and spacer elements between the internal surface of the opening and the outer contour of the connector , which predefine the height of dimensioning of the discharge faces , characterized in that the connector is an integral part of the forehead support and the mask body of which has a central, round opening which serves to receive the forehead support and thus forms an interface with the forehead support .
A merchandise display system for displaying an article of merchandise (M) comprising: a sensor configured to be secured to the article of merchandise (M); a base configured to removably support the sensor thereon, the base defining an opening configured to receive a portion of the sensor therein; a lock mechanism configured to lock the sensor to the base ; and a rotatable mechanism configured to actuate the lock mechanism , characterized in that the rotatable mechanism extends about the opening and is configured to rotate about the opening, wherein rotation of the rotatable mechanism is configured to cause the lock mechanism to lock the sensor on the base in a locked position or unlock the sensor from the base in an unlocked position. a sensor configured to be secured to the article of merchandise (M); a base configured to removably support the sensor thereon, the base defining an opening configured to receive a portion of the sensor therein; a lock mechanism configured to lock the sensor to the base ; and a rotatable mechanism configured to actuate the lock mechanism , characterized in that the rotatable mechanism extends about the opening and is configured to rotate about the opening, wherein rotation of the rotatable mechanism is configured to cause the lock mechanism to lock the sensor on the base in a locked position or unlock the sensor from the base in an unlocked position.
Method for transmitting client data included in a client signal via an optical transmission path of an optical transport network, the optical transport network using transport frames comprising a transport frame period (T server ) for transmitting client data, the method comprising the steps of: - receiving multiple client data bits during a transport frame period; - determining the number of client data entities corresponding to the received multiple client data bits in order to establish a mean number of client data entities, C n , to be included in a transport frame, said mean number of client data entities, C n , corresponding to a mean number of client data bits; - mapping multiple client data entities into the transport frame wherein the mapping comprises alternately adding and subtracting an amount of client data bits to/from said mean number of client data bits for at least two consecutive transport frames; and - transmitting the transport frames comprising said client data via the optical transport network. - receiving multiple client data bits during a transport frame period; - determining the number of client data entities corresponding to the received multiple client data bits in order to establish a mean number of client data entities, C n , to be included in a transport frame, said mean number of client data entities, C n , corresponding to a mean number of client data bits; - mapping multiple client data entities into the transport frame wherein the mapping comprises alternately adding and subtracting an amount of client data bits to/from said mean number of client data bits for at least two consecutive transport frames; and - transmitting the transport frames comprising said client data via the optical transport network.
An intermittent catheter assembly , comprising: an elongated introducer element having a proximal insertion end and a distal end remote from the proximal insertion end, the elongated introducer element being formed of a flexible material adapted for insertion into a urethra during a catheterization procedure, the elongated introducer element having at least one slit extending longitudinally along at least a portion of the elongated introducer element; a sheath having a first end and a second end being inverted relative to the first end of the sheath to define inner and outer sleeve portions and a space therebetween, the inner sleeve portion defining a flow path for urine; the elongated introducer element being disposed in the space defined between the inner and outer sleeve portions, the inner sleeve portion being extendable through the at least one slit of the elongated introducer element so as to be disposed within the elongated introducer element and cover an inner surface of the elongated introducer element to thereby separate the inner surface of the elongated introducer element from the urine flow path, and the outer sleeve portion extending over an outer surface of the elongated introducer element to thereby separate the outer surface of the elongated introducer element from the urethra. an elongated introducer element having a proximal insertion end and a distal end remote from the proximal insertion end, the elongated introducer element being formed of a flexible material adapted for insertion into a urethra during a catheterization procedure, the elongated introducer element having at least one slit extending longitudinally along at least a portion of the elongated introducer element; a sheath having a first end and a second end being inverted relative to the first end of the sheath to define inner and outer sleeve portions and a space therebetween, the inner sleeve portion defining a flow path for urine; the elongated introducer element being disposed in the space defined between the inner and outer sleeve portions, the inner sleeve portion being extendable through the at least one slit of the elongated introducer element so as to be disposed within the elongated introducer element and cover an inner surface of the elongated introducer element to thereby separate the inner surface of the elongated introducer element from the urine flow path, and the outer sleeve portion extending over an outer surface of the elongated introducer element to thereby separate the outer surface of the elongated introducer element from the urethra.