mhurhangee/patent-ind-claim-en huggingface dataset:
Train coupler adapter for connecting a coupler of a first geometry with a draw hook coupler, whereby the adapter has • a front section with an interface suitable to couple with a coupler of a first geometry, • a rear section with an opening suitable for the tip of the hook of the draw hook coupler to be inserted into, • a safety bracket at the rear section that has a traversing section that is positioned beneath the opening and traverses over the opening , characterized in that the safety bracket has • a first arm arranged on one side of the rear section , whereby a first part of the first arm is attached to the rear section in a manner that allows a second part of the first arm to swivel relative to the rear section , • a second arm arranged on the opposite side of the rear section relative to that side, on which the first arm is arranged, whereby a first part of the second arm is attached to the rear section in a manner that allows a second part of the second arm to swivel relative to the rear section , • the traversing section being connected to the second part of the first arm and the second part of the second arm , whereby a blocking element is provided that limits the swivel angle of the first arm and limits the swivel angel of the second arm , whereby the blocking element has • a first part that is connected to the traversing section and/or the second part of the first arm and/or the second part of the second arm and • a second part that is connected to the front section or the rear section . • a front section with an interface suitable to couple with a coupler of a first geometry, • a rear section with an opening suitable for the tip of the hook of the draw hook coupler to be inserted into, • a safety bracket at the rear section that has a traversing section that is positioned beneath the opening and traverses over the opening , • a first arm arranged on one side of the rear section , whereby a first part of the first arm is attached to the rear section in a manner that allows a second part of the first arm to swivel relative to the rear section , • a second arm arranged on the opposite side of the rear section relative to that side, on which the first arm is arranged, whereby a first part of the second arm is attached to the rear section in a manner that allows a second part of the second arm to swivel relative to the rear section , • the traversing section being connected to the second part of the first arm and the second part of the second arm , • a first part that is connected to the traversing section and/or the second part of the first arm and/or the second part of the second arm and • a second part that is connected to the front section or the rear section .
Method for operating a motor vehicle that has an electrical high-voltage network and an electrical low-voltage network , wherein the high-voltage network has at least one traction battery and at least one electric drive machine , wherein the low-voltage network has an on-board electrical system battery , and wherein the high-voltage network monitors for an electrical short circuit, and the traction battery is isolated from the high-voltage network if a short circuit is detected, characterized in that, in order to check the plausibility of the detected short circuit before reconnecting the traction battery to the high-voltage network , a boost current ( I HV ) is applied to the high-voltage network by the low-voltage network by means of a DC-DC converter , and a boost voltage ( U HV ), which is measured in the high-voltage network , is compared with an expected boost voltage ( U HV , soll ) .
A vacuum pump comprising: two half shell stators components mounted together at longitudinal contact faces and defining one or more pumping chambers (30; 106, 108, 110, 112, 114, 116); longitudinal seals for sealing between said longitudinal contact faces of said two half shell stators on either side of said pumping chamber (30; 106-116); wherein said longitudinal seals are mounted within respective grooves in at least one of said half shell stators , said respective grooves being wider than said longitudinal seal over at least a portion of said longitudinal seal allowing for some lateral movement, said longitudinal seal comprising a biasing means for biasing at least a portion of said longitudinal seal towards an inner surface of the groove closest to said vacuum pumping chamber (30; 106-116); and characterised in that said biasing means comprises a deviation of the longitudinal seal from an axis thereof, said deviation forming a bump that abuts against an outer surface of the groove opposite said inner surface; and in that said longitudinal seal further comprises an end loop having curved lateral arms that form a bow shape. two half shell stators components mounted together at longitudinal contact faces and defining one or more pumping chambers (30; 106, 108, 110, 112, 114, 116); longitudinal seals for sealing between said longitudinal contact faces of said two half shell stators on either side of said pumping chamber (30; 106-116); wherein said longitudinal seals are mounted within respective grooves in at least one of said half shell stators , said respective grooves being wider than said longitudinal seal over at least a portion of said longitudinal seal allowing for some lateral movement, said longitudinal seal comprising a biasing means for biasing at least a portion of said longitudinal seal towards an inner surface of the groove closest to said vacuum pumping chamber (30; 106-116); and characterised in that said biasing means comprises a deviation of the longitudinal seal from an axis thereof, said deviation forming a bump that abuts against an outer surface of the groove opposite said inner surface; and in that said longitudinal seal further comprises an end loop having curved lateral arms that form a bow shape.
A rack mount surge protection system , comprising: an enclosure formed by a case configured to be attached to a rack mount system; and a plurality of base elements of a pluggable surge protection device secured to the case, each of the base elements comprising: a receiving portion extending from a front portion of the base element and arranged to receive a surge protection cartridge from the front of the case; contacts within the base element for securing wire conductors therein; and apertures in a rear portion of the base element to provide access to the contacts; wherein the wire conductors extend from the enclosure through the apertures and into the contacts in a substantially linear manner in substantially the same axis that the receiving portion receives the surge protection cartridge . an enclosure formed by a case configured to be attached to a rack mount system; and a plurality of base elements of a pluggable surge protection device secured to the case, each of the base elements comprising: a receiving portion extending from a front portion of the base element and arranged to receive a surge protection cartridge from the front of the case; contacts within the base element for securing wire conductors therein; and apertures in a rear portion of the base element to provide access to the contacts; a receiving portion extending from a front portion of the base element and arranged to receive a surge protection cartridge from the front of the case; contacts within the base element for securing wire conductors therein; and apertures in a rear portion of the base element to provide access to the contacts; wherein the wire conductors extend from the enclosure through the apertures and into the contacts in a substantially linear manner in substantially the same axis that the receiving portion receives the surge protection cartridge .
An infrared heating cooker comprising: a lower body ; an upper body ; an upper heating element that is installed inside the upper body ; a first cooking pan provided on an upper surface of the lower body and having a separation preventing unit at predetermined intervals along a top edge thereof and receiving heat from the upper heating element to transmit heat; a second cooking pan ; and characterized in that the cooker further comprises: a fixing member that connects the upper and lower bodies at one side of the outer surface of the infrared heating cooker , in which the upper heating element is installed at one side of the fixing member to transmit heat downward from the upper heating element ; and the second cooking pan is detachably mounted on the separation preventing unit of the first cooking pan and mounted on an upper surface of the first cooking pan , and that receives radiant heat from the first cooking pan and heat from the upper heating element to cook foods by using a portion of only the first cooking pan, both a portion of the first cooking pan and the second cooking pan, or only the second cooking pan. a lower body ; an upper body ; an upper heating element that is installed inside the upper body ; a first cooking pan provided on an upper surface of the lower body and having a separation preventing unit at predetermined intervals along a top edge thereof and receiving heat from the upper heating element to transmit heat; a second cooking pan ; and characterized in that the cooker further comprises: a fixing member that connects the upper and lower bodies at one side of the outer surface of the infrared heating cooker , in which the upper heating element is installed at one side of the fixing member to transmit heat downward from the upper heating element ; and the second cooking pan is detachably mounted on the separation preventing unit of the first cooking pan and mounted on an upper surface of the first cooking pan , and that receives radiant heat from the first cooking pan and heat from the upper heating element to cook foods by using a portion of only the first cooking pan, both a portion of the first cooking pan and the second cooking pan, or only the second cooking pan. a fixing member that connects the upper and lower bodies at one side of the outer surface of the infrared heating cooker , in which the upper heating element is installed at one side of the fixing member to transmit heat downward from the upper heating element ; and the second cooking pan is detachably mounted on the separation preventing unit of the first cooking pan and mounted on an upper surface of the first cooking pan , and that receives radiant heat from the first cooking pan and heat from the upper heating element to cook foods by using a portion of only the first cooking pan, both a portion of the first cooking pan and the second cooking pan, or only the second cooking pan.
Traveling vehicle, in particular mobile home, with at least one stowage space which is configured for an accommodation of at least one two-wheeled vehicle , wherein the stowage space is arranged within a garage , with at least one bottom wall that forms a floor of the at least one stowage space , with a living space bordering on the garage and with at least one ceiling wall that forms a ceiling of the at least one stowage space , wherein the at least one ceiling wall forms a bottom for a bed , characterised by at least one tire accommodation , which is configured for an accommodation of at least one tire of the at least one two-wheeled vehicle , wherein the at least one tire accommodation forms a partial deepening in the at least one bottom wall .
A method for providing facility intelligence, comprising: generating sensor data relating to movement of a security tag by at least one sensor of a plurality of sensors disposed in the security tag ; analyzing, by an electronic device of a Store Intelligence System , the electronic device being remotely located from the security tag , the sensor data to determine if the security tag is currently being moved in an abnormal manner; whereby an abnormal movement is detected based on a current orientation of a security tag , a velocity and direction of a security tag's movement, a pattern of the security tag's movement over a given period of time, and/or relative altitudes of different portions of the security tag ; selectively performing, by the electronic device, first operations facilitating facility security if a determination is made that the security tag is currently being moved in an abnormal manner; and communicating the sensor data and a unique identifier of the security tag from the security tag to the Store Intelligence System ; and processing the sensor data and the unique identifier to detect: when the security tag is being moved in abnormal manner by a possible thief thereby indicating that an article might be stolen in the near future; and/or when the security tag is being tampered with by being moved in abnormal manner thereby indicating that the security tag might be defeated in the near future. generating sensor data relating to movement of a security tag by at least one sensor of a plurality of sensors disposed in the security tag ; analyzing, by an electronic device of a Store Intelligence System , the electronic device being remotely located from the security tag , the sensor data to determine if the security tag is currently being moved in an abnormal manner; whereby an abnormal movement is detected based on a current orientation of a security tag , a velocity and direction of a security tag's movement, a pattern of the security tag's movement over a given period of time, and/or relative altitudes of different portions of the security tag ; selectively performing, by the electronic device, first operations facilitating facility security if a determination is made that the security tag is currently being moved in an abnormal manner; and communicating the sensor data and a unique identifier of the security tag from the security tag to the Store Intelligence System ; and processing the sensor data and the unique identifier to detect: when the security tag is being moved in abnormal manner by a possible thief thereby indicating that an article might be stolen in the near future; and/or when the security tag is being tampered with by being moved in abnormal manner thereby indicating that the security tag might be defeated in the near future.
A process for printing a three-dimensional object, comprising: providing a non-crosslinked peroxydicarbonate-branched polypropylene filament, flake, pellet, or powder adapted for one of a fused deposition modeling printer or a fused filament fabrication printer; printing the non-crosslinked peroxydicarbonate-branched polypropylene with a fused deposition modeling printer or a fused filament fabrication printer to form a three-dimensional article; and selectively varying a temperature of a print head extruder, a print head extruder nozzle or at least one print head of the printer to vary a property of the printed polypropylene, thus imparting varied properties in selected portions of the three-dimensional article. providing a non-crosslinked peroxydicarbonate-branched polypropylene filament, flake, pellet, or powder adapted for one of a fused deposition modeling printer or a fused filament fabrication printer; printing the non-crosslinked peroxydicarbonate-branched polypropylene with a fused deposition modeling printer or a fused filament fabrication printer to form a three-dimensional article; and selectively varying a temperature of a print head extruder, a print head extruder nozzle or at least one print head of the printer to vary a property of the printed polypropylene, thus imparting varied properties in selected portions of the three-dimensional article.
A computer-implemented method for operating an autonomous driving vehicle (ADV) , the method comprising: determining a starting point , a set of one or more way points , and a destination point of a first route along which the ADV is to be driven; determining a first set of all lane segments near the starting point within a predetermined threshold distance, a second set of all lane segments near the set of way points within the predetermined threshold distance, and a third set of all lane segments near the destination point within the predetermined threshold distance; generating a Cartesian product of the first set, the second set and the third set, wherein the Cartesian product results in a set of groups of ordered lane segments; determining a set of route candidates using an A-star (A*) searching algorithm based on a set of nodes representing all lane segments near the starting point , the set of way points , and the destination point respectively, wherein a route candidate is determined for each of said groups of ordered lane segments using the A-star (A*) searching algorithm based on a subset of the set of nodes representing the corresponding group according to a respective first cost of the route candidate based on a first cost function; selecting a second route from the set of route candidates based on respective costs of the set of route candidates; and controlling the ADV to drive along the selected route autonomously. determining a starting point , a set of one or more way points , and a destination point of a first route along which the ADV is to be driven; determining a first set of all lane segments near the starting point within a predetermined threshold distance, a second set of all lane segments near the set of way points within the predetermined threshold distance, and a third set of all lane segments near the destination point within the predetermined threshold distance; generating a Cartesian product of the first set, the second set and the third set, wherein the Cartesian product results in a set of groups of ordered lane segments; determining a set of route candidates using an A-star (A*) searching algorithm based on a set of nodes representing all lane segments near the starting point , the set of way points , and the destination point respectively, wherein a route candidate is determined for each of said groups of ordered lane segments using the A-star (A*) searching algorithm based on a subset of the set of nodes representing the corresponding group according to a respective first cost of the route candidate based on a first cost function; selecting a second route from the set of route candidates based on respective costs of the set of route candidates; and controlling the ADV to drive along the selected route autonomously.
Method for in-depth characterization of molecules comprising the following steps: a) providing a solution of molecules; b) loading the solution onto a separative chromatography column; c) recovering a flow-through sample comprising separated molecules; d) loading the flow-through sample comprising separated molecules recovered during step c) onto a desalting chromatography column to carry out a chromatographic method under non-denaturing conditions, e) recovering a desalted flow-through sample comprising separated molecules; f) loading the desalted flow-through sample comprising separated molecules recovered during step e) onto a mass spectrometer, g) performing a non-denaturing mass spectrometry analysis to determine interacting stoichiometries and elucidating higher order structure of molecules, wherein the molecules are proteins, and wherein the separated molecules are recovered according to a specific sequence during step c) and are loaded during step d), recovered during step e) and loaded during step f) according to the same specific sequence. a) providing a solution of molecules; b) loading the solution onto a separative chromatography column; c) recovering a flow-through sample comprising separated molecules; d) loading the flow-through sample comprising separated molecules recovered during step c) onto a desalting chromatography column to carry out a chromatographic method under non-denaturing conditions, e) recovering a desalted flow-through sample comprising separated molecules; f) loading the desalted flow-through sample comprising separated molecules recovered during step e) onto a mass spectrometer, g) performing a non-denaturing mass spectrometry analysis to determine interacting stoichiometries and elucidating higher order structure of molecules,
A fluid control valve comprising: a body including an input port and an output port ; and a valve element configured to abut against a valve seat of the body, wherein a first diaphragm and a second diaphragm are disposed between the valve element and the body, a diaphragm chamber is formed between the first diaphragm and the second diaphragm, the first diaphragm separates a valve chamber from the diaphragm chamber, the second diaphragm separates the diaphragm chamber from a back pressure chamber , the diaphragm chamber communicates with the output port, the valve chamber and the back pressure chamber communicate with the input port, characterized in that a difference between an effective pressure receiving area of the first diaphragm and an effective pressure receiving area of the second diaphragm is equivalent to a passage area in the valve seat, and the effective receiving area of the first diaphragm is an area of a thin membrane-shaped portion which is a deformed region of the first diaphragm and the effective receiving area of the second diaphragm is an area of a thin membrane-shaped portion which is a deformed region of the second diaphragm. a body including an input port and an output port ; and a valve element configured to abut against a valve seat of the body, wherein a first diaphragm and a second diaphragm are disposed between the valve element and the body, a diaphragm chamber is formed between the first diaphragm and the second diaphragm, the first diaphragm separates a valve chamber from the diaphragm chamber, the second diaphragm separates the diaphragm chamber from a back pressure chamber , the diaphragm chamber communicates with the output port, the valve chamber and the back pressure chamber communicate with the input port, characterized in that a difference between an effective pressure receiving area of the first diaphragm and an effective pressure receiving area of the second diaphragm is equivalent to a passage area in the valve seat, and the effective receiving area of the first diaphragm is an area of a thin membrane-shaped portion which is a deformed region of the first diaphragm and the effective receiving area of the second diaphragm is an area of a thin membrane-shaped portion which is a deformed region of the second diaphragm.