mhurhangee/patent-ind-claim-en huggingface dataset:
A vacuum system , in particular a mass spectrometry system, comprising: a vacuum pump , in particular a turbomolecular vacuum pump and/or a split-flow vacuum pump, having a pump rotor which is arranged in a rotor housing ; and a vacuum chamber which can be evacuated by means of the vacuum pump and which is surrounded by a chamber housing , wherein the rotor housing and the chamber housing are formed in one part by a housing body , characterized in that the housing body is an extruded part. a vacuum pump , in particular a turbomolecular vacuum pump and/or a split-flow vacuum pump, having a pump rotor which is arranged in a rotor housing ; and a vacuum chamber which can be evacuated by means of the vacuum pump and which is surrounded by a chamber housing , wherein the rotor housing and the chamber housing are formed in one part by a housing body , characterized in that the housing body is an extruded part.
A battery pack , which comprises a plurality of battery modules and a pack case for fixedly installing the battery modules therein, wherein the pack case includes: a pack tray configured to support a lower portion of the battery modules ; and a pack cover coupled with the pack tray to cover the battery modules and having a terminal connection unit coupled to at least one side of each battery module and provided to an inner surface of a top of thereof to electrically connect electrode terminals of the battery modules . a pack tray configured to support a lower portion of the battery modules ; and a pack cover coupled with the pack tray to cover the battery modules and having a terminal connection unit coupled to at least one side of each battery module and provided to an inner surface of a top of thereof to electrically connect electrode terminals of the battery modules .
A manufacturing work machine comprising: a beam member arranged in an X-axis direction of an XY horizontal plane, both ends of the beam member being supported to be movable in a Y-axis direction; a Y-axis drive device configured to move the beam member in the Y-axis direction; and an X-axis drive member configured to move a work head provided on the beam member in the X-axis direction, wherein the beam member is a tube with an internal hollow running through in the X-axis direction, and is formed such that a beam width in the Y-axis direction is uniform, characterized in that the Y-axis drive device is provided on only one end section of the beam member constituting a drive side end section, and a height direction dimension of the beam member becomes smaller from the drive side end section to an end section on another side. a beam member arranged in an X-axis direction of an XY horizontal plane, both ends of the beam member being supported to be movable in a Y-axis direction; a Y-axis drive device configured to move the beam member in the Y-axis direction; and an X-axis drive member configured to move a work head provided on the beam member in the X-axis direction, wherein the beam member is a tube with an internal hollow running through in the X-axis direction, and is formed such that a beam width in the Y-axis direction is uniform, characterized in that the Y-axis drive device is provided on only one end section of the beam member constituting a drive side end section, and a height direction dimension of the beam member becomes smaller from the drive side end section to an end section on another side.
A wireless monitoring system for the monitoring of at least one person in a building , the wireless monitoring system comprising a data collection device and a plurality of wireless signalling devices working in a star network topology, the data collection device being adapted to wirelessly receive data that is sent by each of the plurality of wireless signalling devices ; wherein the signalling devices and the data collection device are adapted to send and receive FSK modulated signals and wherein the signalling devices are adapted to send data packets to the data collection device, and wherein the signalling devices are adapted to send a heartbeat message to the data collection device, characterized in that the signalling devices and the data collection device are adapted to send and receive the FSK modulated signals with a predetermined single carrier frequency and with a bandwidth that is smaller than 200 kHz.
A memory device comprising a sensing circuit , a selected memory cell, and a reference memory cell, the sensing circuit comprising: a memory data read block for sensing the selected memory cell; a memory reference read block for sensing the reference memory cell; a differential amplifier block comprising a cross-coupled inverter pair, first capacitor comprising a first terminal and a second terminal, a second capacitor comprising a first terminal and a second terminal, a first NMOS transistor comprising a gate connected to the second terminal of the first capacitor and a drain connected to the cross-coupled inverter pair, a second NMOS transistor comprising a gate connected to the second terminal of the second capacitor and a drain connected to the cross-coupled inverter pair, a third NMOS transistor coupled to a source of the first NMOS transistor and a source of the second NMOS transistor and providing a bias voltage to the first NMOS transistor and the second NMOS transistor, a precharge circuit for charging the first terminal and second terminal of the first capacitor and the second terminal of the second capacitor prior to a sensing operation, and an output; wherein the first terminal of the first capacitor is connected to the memory data read block and the first terminal of the second capacitor is connected to the memory reference read block and the second terminal of the second capacitor is connected to the differential amplifier block; wherein during the sensing operation the output of the differential amplifier block indicates a value stored in the selected memory cell. a memory data read block for sensing the selected memory cell; a memory reference read block for sensing the reference memory cell; a differential amplifier block comprising a cross-coupled inverter pair, first capacitor comprising a first terminal and a second terminal, a second capacitor comprising a first terminal and a second terminal, a first NMOS transistor comprising a gate connected to the second terminal of the first capacitor and a drain connected to the cross-coupled inverter pair, a second NMOS transistor comprising a gate connected to the second terminal of the second capacitor and a drain connected to the cross-coupled inverter pair, a third NMOS transistor coupled to a source of the first NMOS transistor and a source of the second NMOS transistor and providing a bias voltage to the first NMOS transistor and the second NMOS transistor, a precharge circuit for charging the first terminal and second terminal of the first capacitor and the second terminal of the second capacitor prior to a sensing operation, and an output; wherein the first terminal of the first capacitor is connected to the memory data read block and the first terminal of the second capacitor is connected to the memory reference read block and the second terminal of the second capacitor is connected to the differential amplifier block; wherein during the sensing operation the output of the differential amplifier block indicates a value stored in the selected memory cell.
A wireless communication device, comprising (no): a processor; a carrier management module for execution by the processor to perform: carrier aggregation of multiple carriers to provide variable bandwidth for a multicarrier communications system, each carrier to utilize a different portion of radio frequency spectrum and a different communication parameter, with a number of carriers for carrier aggregation to increase or decrease based on an amount of bandwidth needed by a client device, wherein each of the multiple carriers comprise a primary carrier and a secondary carrier, the primary carrier to utilize a first portion of the radio frequency spectrum, and the secondary carrier to utilize a second portion of the radio frequency spectrum; and dynamic modification of a channel bandwidth for the primary carrier or the secondary carrier based on a system performance parameter, and communication over the primary and secondary carrier. a processor; a carrier management module for execution by the processor to perform: carrier aggregation of multiple carriers to provide variable bandwidth for a multicarrier communications system, each carrier to utilize a different portion of radio frequency spectrum and a different communication parameter, with a number of carriers for carrier aggregation to increase or decrease based on an amount of bandwidth needed by a client device, wherein each of the multiple carriers comprise a primary carrier and a secondary carrier, the primary carrier to utilize a first portion of the radio frequency spectrum, and the secondary carrier to utilize a second portion of the radio frequency spectrum; and dynamic modification of a channel bandwidth for the primary carrier or the secondary carrier based on a system performance parameter, and communication over the primary and secondary carrier. carrier aggregation of multiple carriers to provide variable bandwidth for a multicarrier communications system, each carrier to utilize a different portion of radio frequency spectrum and a different communication parameter, with a number of carriers for carrier aggregation to increase or decrease based on an amount of bandwidth needed by a client device, wherein each of the multiple carriers comprise a primary carrier and a secondary carrier, the primary carrier to utilize a first portion of the radio frequency spectrum, and the secondary carrier to utilize a second portion of the radio frequency spectrum; and dynamic modification of a channel bandwidth for the primary carrier or the secondary carrier based on a system performance parameter, and communication over the primary and secondary carrier.
A laminate film comprising: a resin layer (I) which is formed from a fluororesin composition (B); and a resin layer (II) which is formed from a resin composition (C) containing an acid anhydride copolymer (C-1) and acrylic rubber particles (C-2), wherein the acid anhydride copolymer (C-1) contains 2% by mass or more and 50% by mass or less of a monomer unit having an acid anhydride group, 2% by mass or more and 98% by mass or less of an aromatic vinyl monomer unit, and 0% by mass or more and 96% by mass or less of an other monomer unit, with respect to 100% by mass in total, wherein the resin layers (I) and (II) are in direct contact with each other. a resin layer (I) which is formed from a fluororesin composition (B); and a resin layer (II) which is formed from a resin composition (C) containing an acid anhydride copolymer (C-1) and acrylic rubber particles (C-2), wherein the acid anhydride copolymer (C-1) contains 2% by mass or more and 50% by mass or less of a monomer unit having an acid anhydride group, 2% by mass or more and 98% by mass or less of an aromatic vinyl monomer unit, and 0% by mass or more and 96% by mass or less of an other monomer unit, with respect to 100% by mass in total, wherein the resin layers (I) and (II) are in direct contact with each other.
A method for deferring a switchback, wherein the method comprises: sending , by a first network device, a query packet to a second network device after a communication connection between the first network device and the second network device is established, wherein the query packet is used to trigger the second network device to detect whether a route from the second network device to a destination device is available, and the second network device is a primary network device for the first network device on a primary route; and receiving , by the first network device, a query response packet sent by the second network device, and switching back, by the first network device, from a secondary route to a primary route, wherein the query response packet is used to indicate availability of the route between the second network device and the destination device, a destination address of the secondary route is an IP address of the destination device, a next hop of the secondary route is a third network device, a destination address of the primary route is the IP address of the destination device, a next hop of the primary route is the second network device, and the third network device is a secondary network device for the second network device. sending , by a first network device, a query packet to a second network device after a communication connection between the first network device and the second network device is established, wherein the query packet is used to trigger the second network device to detect whether a route from the second network device to a destination device is available, and the second network device is a primary network device for the first network device on a primary route; and receiving , by the first network device, a query response packet sent by the second network device, and switching back, by the first network device, from a secondary route to a primary route, wherein the query response packet is used to indicate availability of the route between the second network device and the destination device, a destination address of the secondary route is an IP address of the destination device, a next hop of the secondary route is a third network device, a destination address of the primary route is the IP address of the destination device, a next hop of the primary route is the second network device, and the third network device is a secondary network device for the second network device.
An image processing apparatus (100; 800; 1300) comprising: a medical image obtaining unit configured to obtain a medical image of an object in a first shape state, which is an unheld state, by using a first medical imaging apparatus ; a deformation information obtaining unit (104; 804; 1304) configured to obtain deformation information indicating deformation of the object from the first shape state to a second shape state which is a held state in which the object is held in a state where it is pressurized; a deformation image generating unit (106; 1306) configured to generate a deformation image by deforming the medical image based on the deformation information and to generate a conversion image for setting an imaging region by converting the deformation image; an imaging region setting unit (108; 808) configured to set the imaging region of the object in the second shape state on a display image generated using the conversion image; a display image generation unit (110; 810) configured to cause a display unit to display the display image representing the conversion image on which the imaging region is superimposed; and the imaging region setting unit (108; 808) being configured to output information of the imaging region to a second medical imaging apparatus in order to image the imaging region of the object in the second shape state. a medical image obtaining unit configured to obtain a medical image of an object in a first shape state, which is an unheld state, by using a first medical imaging apparatus ; a deformation information obtaining unit (104; 804; 1304) configured to obtain deformation information indicating deformation of the object from the first shape state to a second shape state which is a held state in which the object is held in a state where it is pressurized; a deformation image generating unit (106; 1306) configured to generate a deformation image by deforming the medical image based on the deformation information and to generate a conversion image for setting an imaging region by converting the deformation image; an imaging region setting unit (108; 808) configured to set the imaging region of the object in the second shape state on a display image generated using the conversion image; a display image generation unit (110; 810) configured to cause a display unit to display the display image representing the conversion image on which the imaging region is superimposed; and the imaging region setting unit (108; 808) being configured to output information of the imaging region to a second medical imaging apparatus in order to image the imaging region of the object in the second shape state.
Chair , in particular highchair, comprising a star base to which a plurality of castors are attached, comprising a roll-off protection mechanism , which has a central switching device and at least one braking means , the at least one braking means being coupled to a castor assigned thereto, and the switching device being arranged and coupled to the at least one braking means so as to brake the at least one castor via the braking means assigned thereto in a first state and to release the at least one castor in a second state, characterised in that the switching device includes a two-stage spring which is formed as a spring body having a central portion and a plurality of radially arranged arms which extend to the castors . comprising a star base to which a plurality of castors are attached, comprising a roll-off protection mechanism , which has a central switching device and at least one braking means , the at least one braking means being coupled to a castor assigned thereto, and the switching device being arranged and coupled to the at least one braking means so as to brake the at least one castor via the braking means assigned thereto in a first state and to release the at least one castor in a second state, characterised in that the switching device includes a two-stage spring which is formed as a spring body having a central portion and a plurality of radially arranged arms which extend to the castors .
A method for maintaining a fuselage of an aircraft comprising: by means of a camera , capturing an image of the fuselage with a plurality of panels attached to generate a first image, capturing another image of the fuselage with a predetermined panel among the plurality of panels removed to generate a second image, and sending the first image and the second image to a computer ; combining the first image and the second image by means of the computer to generate a third image and sending the third image to a portable terminal ; and displaying the third image on the portable terminal , wherein in the third image, the predetermined panel is translucently shown with at least one component at an interior of the predetermined panel being seen through. by means of a camera , capturing an image of the fuselage with a plurality of panels attached to generate a first image, capturing another image of the fuselage with a predetermined panel among the plurality of panels removed to generate a second image, and sending the first image and the second image to a computer ; combining the first image and the second image by means of the computer to generate a third image and sending the third image to a portable terminal ; and displaying the third image on the portable terminal , wherein in the third image, the predetermined panel is translucently shown with at least one component at an interior of the predetermined panel being seen through.
Overload release comprising a bimetallic element (501; 502), a tripping slide , a latch and an energy store , an overload having the effect that - the bimetallic element (501; 502) actuates the tripping slide ; - as a result, the tripping slide actuates the latch , and - as a result, the latch allows the movement of the energy store , in which the latch is provided with a latch area and the energy store is provided with a latching area , the two areas (101; 201) mechanically interacting in the latched state and the latch area being released from the latching area in the unlatched state, when there is an overload, to allow the movement of the energy store , characterized in that the latch area or the latching area has a projection (110; 210), in that the projection (110; 210) is formed as a linear elevation on the latch area or the latching area , which produces a defined bearing area and has alongside the projection a depression that can collect contaminants. - the bimetallic element (501; 502) actuates the tripping slide ; - as a result, the tripping slide actuates the latch , and - as a result, the latch allows the movement of the energy store , in which the latch is provided with a latch area and the energy store is provided with a latching area , the two areas (101; 201) mechanically interacting in the latched state and the latch area being released from the latching area in the unlatched state, when there is an overload, to allow the movement of the energy store , characterized in that the latch area or the latching area has a projection (110; 210), in that the projection (110; 210) is formed as a linear elevation on the latch area or the latching area , which produces a defined bearing area and has alongside the projection a depression that can collect contaminants.
A method for comparative analysis of the expression level(s) of a target miRNA(s) among a plurality of body fluid samples, said method comprising: a measurement step of simultaneously measuring the expression level(s) of a target miRNA(s) and the expression level(s) of one or more correcting endogenous miRNAs selected from the correcting endogenous miRNAs shown in SEQ ID NOs: 1 to 10 in the respective body fluid samples; a representative-value-obtaining step of obtaining a representative value for each of said plurality of body fluid samples from a measured value(s) of the expression level(s) of the one or more correcting endogenous miRNAs selected from the correcting endogenous miRNAs shown in SEQ ID NOs:1 to 10; a correction-factor-obtaining step of obtaining, as a correction factor for correction of the expression level(s) of the target miRNA(s) in each body fluid sample, the difference or the ratio between a reference value that is arbitrarily set in connection with the expression level(s) of the correcting endogenous miRNA(s) and the representative value for said each body fluid sample obtained in the representative-value-obtaining step; and a correction step of correcting the expression level(s) of the target miRNA(s) measured in each body fluid sample using the correction factor obtained for said each body fluid sample. a measurement step of simultaneously measuring the expression level(s) of a target miRNA(s) and the expression level(s) of one or more correcting endogenous miRNAs selected from the correcting endogenous miRNAs shown in SEQ ID NOs: 1 to 10 in the respective body fluid samples; a representative-value-obtaining step of obtaining a representative value for each of said plurality of body fluid samples from a measured value(s) of the expression level(s) of the one or more correcting endogenous miRNAs selected from the correcting endogenous miRNAs shown in SEQ ID NOs:1 to 10; a correction-factor-obtaining step of obtaining, as a correction factor for correction of the expression level(s) of the target miRNA(s) in each body fluid sample, the difference or the ratio between a reference value that is arbitrarily set in connection with the expression level(s) of the correcting endogenous miRNA(s) and the representative value for said each body fluid sample obtained in the representative-value-obtaining step; and a correction step of correcting the expression level(s) of the target miRNA(s) measured in each body fluid sample using the correction factor obtained for said each body fluid sample.
An article comprising: a section of tubing comprising a tubular body comprising a fluoropolymer, the tubular body including an interior surface defining a fluid passage through the tubular body, at least a first portion of the interior surface having a molar ratio of fluorine to oxygen of no greater than 30 to 1.