mhurhangee/patent-ind-claim-en huggingface dataset:
A detector (100; 1000, 1100, 1200) for detecting photons comprising a plurality of detector modules forming a front detector and a rear detector , the detector modules comprising a plurality of detector devices (10; 10b), and an interface , the detector devices (10; 10b) having a substrate extending from a front end to a rear end , and carrying a plurality of pixelated semiconductor detector slabs , and being arranged such that the front end is closer to a source of the photons than the rear end , the semiconductor detector slabs being arranged on readout circuits , and the detector devices having an input/output element at or near the rear end of the substrate, characterized in that a front group of one or more of the semiconductor detector slabs arranged close to the front end of the substrate are made from a semiconductor material configured to promote photon scattering and form the front detector , and in that a rear group of one or more of the semiconductor detector slabs arranged closer to the rear end of the substrate than the front group are made from a semiconductor material configured to promote photon absorption, and form the rear detector , and wherein the front group of the semiconductor detector slabs and the rear group of the semiconductor detector slabs are arranged such that the detector is suitable for Compton imaging.
An NMR probe system comprising: a container in which a sample installation unit and an NMR circuit are provided; supply paths that are configured to supply gas to the inside of the container for preventing electrical discharge; an exhaust path that is configured to exhaust the gas from the inside of the container; and an adjustment mechanism that is provided in the exhaust path and is configured to adjust the pressure in the container, wherein the exhaust path is a flow path that is configured to release the gas into the atmosphere, wherein the adjustment mechanism is configured to maintain the average pressure inside the container at a higher value during NMR measurement than that which exists without the adjustment mechanism. a container in which a sample installation unit and an NMR circuit are provided; supply paths that are configured to supply gas to the inside of the container for preventing electrical discharge; an exhaust path that is configured to exhaust the gas from the inside of the container; and an adjustment mechanism that is provided in the exhaust path and is configured to adjust the pressure in the container, wherein the exhaust path is a flow path that is configured to release the gas into the atmosphere, wherein the adjustment mechanism is configured to maintain the average pressure inside the container at a higher value during NMR measurement than that which exists without the adjustment mechanism.
A compound according to Formula I: wherein: R 1 is hydrogen, an unsubstituted C m alkyl group, a C 8 -C 10 alkyl group substituted with at least one hydroxyl group, a C 1 -C 9 alkyl group substituted with at least one SO 3 H group, or a C 9 -C 10 alkyl group wherein at least two carbon atoms of the carbon backbone form an epoxide group; R 2 is an unsubstituted (CH 2 ) n group, a (CH 2 ) n group with n 8 to 10 substituted with at least one hydroxyl group, a (CH 2 ) 8 group substituted with at least one SO 3 H group, or a (CH 2 ) 9 group wherein at least two carbon atoms of the carbon backbone form an epoxide group; X is hydrogen, a cationic group, or an ester forming moiety; n is 1 to 10; m is 1 to 10; and m+n is less than or equal to 18, or salts or esters thereof. R 1 is hydrogen, an unsubstituted C m alkyl group, a C 8 -C 10 alkyl group substituted with at least one hydroxyl group, a C 1 -C 9 alkyl group substituted with at least one SO 3 H group, or a C 9 -C 10 alkyl group wherein at least two carbon atoms of the carbon backbone form an epoxide group; R 2 is an unsubstituted (CH 2 ) n group, a (CH 2 ) n group with n 8 to 10 substituted with at least one hydroxyl group, a (CH 2 ) 8 group substituted with at least one SO 3 H group, or a (CH 2 ) 9 group wherein at least two carbon atoms of the carbon backbone form an epoxide group; X is hydrogen, a cationic group, or an ester forming moiety; n is 1 to 10; m is 1 to 10; and m+n is less than or equal to 18, or salts or esters thereof.
A composition comprising: HFO-1234yf and optionally HFO-1234ze; HFC-32, and at least one of HCFC-22, and 3,3,3-trifluoropropyne, wherein the total amount of and is ≥ 95 mass%, based on the total amount of - . HFO-1234yf and optionally HFO-1234ze; HFC-32, and at least one of HCFC-22, and 3,3,3-trifluoropropyne,
A formation vehicle comprising: a leading vehicle ; a first intermediate vehicle coupled to the leading vehicle ; a trailing vehicle ; a third intermediate vehicle coupled to the trailing vehicle ; a second intermediate vehicle coupled between the first intermediate vehicle and the third intermediate vehicle ; first inter-vehicle body damper devices (A1) provided between the leading vehicle and the first intermediate vehicle and between the trailing vehicle and the third intermediate vehicle ; and further inter-vehicle body damper devices (A2, A3) provided at both ends in a longitudinal direction of the second intermediate vehicle , characterised in that the first inter-vehicle body damper devices (A1) each include two up-down dampers and a left-right damper which bridge respectively between the leading vehicle and the first intermediate vehicle and between the trailing vehicle and the third intermediate vehicle , and the further inter-vehicle body damper device includes, at each end in the longitudinal direction of the second intermediate vehicle , an up-down damper and a left-right damper which bridge each end of the second intermediate vehicle and the respective vehicle coupled thereto. a leading vehicle ; a first intermediate vehicle coupled to the leading vehicle ; a trailing vehicle ; a third intermediate vehicle coupled to the trailing vehicle ; a second intermediate vehicle coupled between the first intermediate vehicle and the third intermediate vehicle ; first inter-vehicle body damper devices (A1) provided between the leading vehicle and the first intermediate vehicle and between the trailing vehicle and the third intermediate vehicle ; and further inter-vehicle body damper devices (A2, A3) provided at both ends in a longitudinal direction of the second intermediate vehicle , characterised in that the first inter-vehicle body damper devices (A1) each include two up-down dampers and a left-right damper which bridge respectively between the leading vehicle and the first intermediate vehicle and between the trailing vehicle and the third intermediate vehicle , and the further inter-vehicle body damper device includes, at each end in the longitudinal direction of the second intermediate vehicle , an up-down damper and a left-right damper which bridge each end of the second intermediate vehicle and the respective vehicle coupled thereto.
An ethylene polymer having a density of greater than or equal to about 0.945 g/cm 3 , a high load melt index (HLMI) in a range from about 1 to about 25 g/10 min, a weight-average molecular weight (Mw) in a range from 300,000 to about 800,000 g/mol, a number-average molecular weight (Mn) in a range from about 20,000 to about 60,000 g/mol, and a ratio of Mw/Mn in a range from about 5 to about 22, and wherein the ethylene polymer has a zero-shear viscosity in a range of from about 1 x 10 6 to about 1 x 10 9 Pa-sec.
Drive member for timepiece movement comprising: a barrel comprising a drum mounted on an arbor so that it can rotate with the arbor about an axis when the drive member is wound up; a main spring wound inside the barrel and able to be wound up around the arbor when the drive member is wound up, and a core coaxial with and pivoting on the arbor ; the exterior end of the spring being coupled to the drum , and the interior end of the spring being coupled to the core ; the exterior end of the spring being coupled to the drum by a first clamp that is pivot-mounted in the drum ; so that when the spring is unwound, the first clamp pivots in such a way as to hold the exterior turn of the first clamp against the drum , and when the spring is wound up, the first clamp pivots towards the center of the barrel to follow the exterior turn of the spring ; the core comprising a second clamp intended to fasten the interior end of the spring to the core , said second clamp comprising a blade extending at the periphery of the core , forming a split between the blade and the core designed for the insertion of the interior end of the spring . a barrel comprising a drum mounted on an arbor so that it can rotate with the arbor about an axis when the drive member is wound up; a main spring wound inside the barrel and able to be wound up around the arbor when the drive member is wound up, and a core coaxial with and pivoting on the arbor ; the exterior end of the spring being coupled to the drum , and the interior end of the spring being coupled to the core ; the exterior end of the spring being coupled to the drum by a first clamp that is pivot-mounted in the drum ; so that when the spring is unwound, the first clamp pivots in such a way as to hold the exterior turn of the first clamp against the drum , and when the spring is wound up, the first clamp pivots towards the center of the barrel to follow the exterior turn of the spring ; the core comprising a second clamp intended to fasten the interior end of the spring to the core , said second clamp comprising a blade extending at the periphery of the core , forming a split between the blade and the core designed for the insertion of the interior end of the spring .
Motor vehicle door comprising a door leaf with a drive, also with a magnetic device as a component of the drive, and with at least one sensor which is associated with the door leaf , wherein - the magnetic device is equipped with a magnetorheological element which can be acted on by at least one magnet , wherein further - the sensor and the at least one magnet are connected to a control unit which actuates the magnet depending on function of sensor signals, and wherein - the magnetorheological element is embodied as a damping element with adjustable damping, - the magnet varies the damping depending on functional states of the door leaf that are to be monitored with the aid of the sensor , characterized in that - functional states of a door lock associated with the door leaf , for example a pre-latch position, an anti-theft position, a child safety position or similar safety positions are also mapped as functional states of the door leaf , wherein - the magnetorheological element is embodied as a drive element for the door leaf , and wherein - the magnetic device is integrated in a hinge axis attached to the hinge axis mechanically to enable it to exert damping forces on the door leaf immediately when necessary. - the magnetic device is equipped with a magnetorheological element which can be acted on by at least one magnet , wherein further - the sensor and the at least one magnet are connected to a control unit which actuates the magnet depending on function of sensor signals, and wherein - the magnetorheological element is embodied as a damping element with adjustable damping, - the magnet varies the damping depending on functional states of the door leaf that are to be monitored with the aid of the sensor , characterized in that - functional states of a door lock associated with the door leaf , for example a pre-latch position, an anti-theft position, a child safety position or similar safety positions are also mapped as functional states of the door leaf , wherein - the magnetorheological element is embodied as a drive element for the door leaf , and wherein - the magnetic device is integrated in a hinge axis attached to the hinge axis mechanically to enable it to exert damping forces on the door leaf immediately when necessary.
A pharmaceutical composition for use in a method of treating small-cell lung cancer expressing DLL3 protein, wherein the pharmaceutical composition comprises an antibody which binds to DLL3 protein, wherein the antibody has a cytotoxic activity and recognizes a region from amino acids 216 to 492 in human DLL3 having the amino acid sequence as set forth in SEQ ID NO: 1.
A solar energy system comprising: a solar energy collector for providing energy generated from incident solar radiation; a first heat exchange system comprising an ejector that is arranged to operate using at least a portion of the energy provided by the solar energy collector ; a second heat exchange system arranged to operate using energy from an energy source other than a of solar source; and a system for heating water ; wherein the solar energy system is arranged for direct or indirect transfer of thermal energy between the first heat exchange system and a region and between the second heat exchange system and the region; wherein the solar energy system is arranged for direct or indirect transfer of thermal energy from the second heat exchange system for use by at least one of: the first heat exchange system and the system for heating water ; wherein the solar energy system is arranged to transfer a portion of the energy provided by the solar collector directly or indirectly to the system for heating water ; and wherein the solar energy system is arranged to transfer a portion of the thermal energy that is transferred from the region by the second heat exchange system , directly or indirectly to the system for heating water . a solar energy collector for providing energy generated from incident solar radiation; a first heat exchange system comprising an ejector that is arranged to operate using at least a portion of the energy provided by the solar energy collector ; a second heat exchange system arranged to operate using energy from an energy source other than a of solar source; and a system for heating water ; wherein the solar energy system is arranged for direct or indirect transfer of thermal energy between the first heat exchange system and a region and between the second heat exchange system and the region; wherein the solar energy system is arranged for direct or indirect transfer of thermal energy from the second heat exchange system for use by at least one of: the first heat exchange system and the system for heating water ; wherein the solar energy system is arranged to transfer a portion of the energy provided by the solar collector directly or indirectly to the system for heating water ; and wherein the solar energy system is arranged to transfer a portion of the thermal energy that is transferred from the region by the second heat exchange system , directly or indirectly to the system for heating water . the first heat exchange system and the system for heating water ; wherein the solar energy system is arranged to transfer a portion of the energy provided by the solar collector directly or indirectly to the system for heating water ; and wherein the solar energy system is arranged to transfer a portion of the thermal energy that is transferred from the region by the second heat exchange system , directly or indirectly to the system for heating water .
An anti-scatter grid for x-ray and/or gamma radiation formed by a stack of alternately arranged first and second slats , wherein the first x-ray and/or gamma radiation absorbing slat is produced by a layer arrangement comprising a film-like substrate formed from a molybdenum-based material and at least one coating layer formed from a tungsten-based material characterized in that the material of the coating layer is different from the material of the film-like substrate and the second slat is produced from a material that is substantially transmissive to x-ray and/or gamma radiation.
A method for synchronizing multiple timing sources in a computing device , comprising: maintaining , by the computing device, at least a first clock associated with a first timing source and a second clock associated with a second timing source; receiving , from an application , a request for an indication of a timing difference between the first clock and the second clock, the request being issued by the application based at least in part on comparing a processing load to a threshold or an operating/ambient temperature to a threshold; determining , by the computing device and at an instance of a reoccurring event in a domain of one of the first timing source or the second timing source, a first elapsed time of the first clock and a second elapsed time of the second clock from a previous instance of the reoccurring event, wherein the reoccurring event relates to a register overflow of a value of the first clock or the second clock; and providing , to the application and in response to the request, the indication related to the first elapsed time and the second elapsed time. maintaining , by the computing device, at least a first clock associated with a first timing source and a second clock associated with a second timing source; receiving , from an application , a request for an indication of a timing difference between the first clock and the second clock, the request being issued by the application based at least in part on comparing a processing load to a threshold or an operating/ambient temperature to a threshold; determining , by the computing device and at an instance of a reoccurring event in a domain of one of the first timing source or the second timing source, a first elapsed time of the first clock and a second elapsed time of the second clock from a previous instance of the reoccurring event, wherein the reoccurring event relates to a register overflow of a value of the first clock or the second clock; and providing , to the application and in response to the request, the indication related to the first elapsed time and the second elapsed time.
A blade outer air seal assembly for a gas turbine engine , comprising: a carrier having a slot (114; 115; 116; 117) and a hole extending into the slot (114; 115; 116; 117); a blade outer air seal having a plurality of segments extending circumferentially about an axis and mounted in the carrier ; at least one of the plurality of segments having a base portion and a first wall circumferentially spaced from a second wall, the first and second walls extending axially and radially outwardly from the base portion , the first wall and the second wall each having a forward aperture and an aft aperture ; and a pin extending through the hole and one of the apertures (130; 131) to secure the at least one of the plurality of segments to the carrier , characterised in that the pin is oriented in a generally circumferential direction. a carrier having a slot (114; 115; 116; 117) and a hole extending into the slot (114; 115; 116; 117); a blade outer air seal having a plurality of segments extending circumferentially about an axis and mounted in the carrier ; at least one of the plurality of segments having a base portion and a first wall circumferentially spaced from a second wall, the first and second walls extending axially and radially outwardly from the base portion , the first wall and the second wall each having a forward aperture and an aft aperture ; and a pin extending through the hole and one of the apertures (130; 131) to secure the at least one of the plurality of segments to the carrier , characterised in that the pin is oriented in a generally circumferential direction.
A curable epoxy resin system, comprising 1) an epoxy resin component containing one or more epoxy resins, wherein at least 80% by weight of the epoxy resins is one or more polyglycidyl ethers of a polyphenol that has an epoxy equivalent weight of up to about 250; 2) an amine hardener, wherein the amine hardener is a polyethylene tetraamine mixture containing at least 95% by weight polyethylene tetraamines, the mixture containing at least 40% by weight linear triethylene tetraamine, wherein at least 0.8 epoxy equivalents are provided to the reaction mixture by the epoxy resin component per amine hydrogen equivalent provided by the amine hardener; and 3) 0.01 to 0.5 moles of triethylene diamine per mole of primary and/or secondary amine compounds in the amine hardener, the triethylene diamine being present in the epoxy resin component, the amine hardener, or both; wherein the resin system further comprises an internal mold release agent mixed with a dye solution. 1) an epoxy resin component containing one or more epoxy resins, wherein at least 80% by weight of the epoxy resins is one or more polyglycidyl ethers of a polyphenol that has an epoxy equivalent weight of up to about 250; 2) an amine hardener, wherein the amine hardener is a polyethylene tetraamine mixture containing at least 95% by weight polyethylene tetraamines, the mixture containing at least 40% by weight linear triethylene tetraamine, wherein at least 0.8 epoxy equivalents are provided to the reaction mixture by the epoxy resin component per amine hydrogen equivalent provided by the amine hardener; and 3) 0.01 to 0.5 moles of triethylene diamine per mole of primary and/or secondary amine compounds in the amine hardener, the triethylene diamine being present in the epoxy resin component, the amine hardener, or both; wherein the resin system further comprises an internal mold release agent mixed with a dye solution.
A method of controlling communication between a master and a slave device over a dynamic enumeration bus wherein said slave device comprises a device number register , characterised by : broadcasting, over the dynamic enumeration bus , a command from the master to update the device number register with a predefined device number wherein the predefined device number is a number between one and eleven, and is distinct from a device identification number of the slave device; enumerating, at the master, the slave device with the predefined device number such that the slave device has said predefined device number used by the master to address the slave device in the dynamic enumeration bus , to avoid data collision. broadcasting, over the dynamic enumeration bus , a command from the master to update the device number register with a predefined device number wherein the predefined device number is a number between one and eleven, and is distinct from a device identification number of the slave device; enumerating, at the master, the slave device with the predefined device number such that the slave device has said predefined device number used by the master to address the slave device in the dynamic enumeration bus , to avoid data collision.