mhurhangee/patent-ind-claim-en huggingface dataset:
A fixed-bed tubular reactor which extends, according to a longitudinal axis XX', between a first end and a second end , said reactor comprises a catalytic powder bed confined in an annular space delimited by an inner wall, called first wall , of a hollow tube and an outer wall, called second wall , of a hollow insert disposed coaxially in the hollow tube , the hollow insert comprises at least one distribution chamber and at least one collection chamber , separated from each other by at least one partition wall , and comprising, respectively, a gas intake opening at the first end and a gas discharge opening at the second end , the at least one distribution chamber is provided with a plurality of distributing openings whereas the at least one collection chamber is provided with a collecting opening , the plurality of distributing openings and the collecting opening of each collection chamber are formed at the second wall and extend parallel to the longitudinal axis XX', the distributing openings of a distribution chamber enabling the distribution of a gas capable of being admitted through the intake opening from said distribution chamber towards the annular space and the collecting opening enabling the collection of the gas distributed in the annular space by the collection chamber . the hollow insert comprises at least one distribution chamber and at least one collection chamber , separated from each other by at least one partition wall , and comprising, respectively, a gas intake opening at the first end and a gas discharge opening at the second end , the at least one distribution chamber is provided with a plurality of distributing openings whereas the at least one collection chamber is provided with a collecting opening , the plurality of distributing openings and the collecting opening of each collection chamber are formed at the second wall and extend parallel to the longitudinal axis XX', the distributing openings of a distribution chamber enabling the distribution of a gas capable of being admitted through the intake opening from said distribution chamber towards the annular space and the collecting opening enabling the collection of the gas distributed in the annular space by the collection chamber .
Operating resource container for a motor vehicle for intermediate storage of a liquid operating resource, which has a container volume delimited by a container housing , which serves for receiving the operating resource, and a removal point for removing the operating resource from the operating resource container , wherein the container housing has a housing base , side walls and a housing roof , and wherein the removal point is arranged on a container base of the operating resource container delimiting the container volume together with the container housing , and wherein the container base is formed at least in regions by a membrane , arranged in the container housing which is flexible and impermeable for the operating resource, wherein a first region of the membrane spaced apart from the removal point can be displaced relative to a second region of the membrane arranged at the removal point fixed with respect to the container housing , characterised in that an electrically-operated drive device is present for the displacement of the first region of the membrane .
A communications system for V2X communication which is installable in an installation location in a motor vehicle, including: a receiver for receiving communications data; a V2X transmitter designed to transmit the received communications data; and a processor designed to detect a characteristic of the received communications data, characterized in that the processor is designed to verify the arrangement of the communications system in the installation location based on a comparison of the detected characteristic and a reference characteristic, and wherein the V2X transmitter is designed to not transmit the communications data when the processor identifies an invalid arrangement of the communications system. a receiver for receiving communications data; a V2X transmitter designed to transmit the received communications data; and a processor designed to detect a characteristic of the received communications data, characterized in that the processor is designed to verify the arrangement of the communications system in the installation location based on a comparison of the detected characteristic and a reference characteristic, and wherein the V2X transmitter is designed to not transmit the communications data when the processor identifies an invalid arrangement of the communications system.
A compound represented by Formula Ib: wherein G is hydrogen, alkyl, aryl, haloaryl or alkoxy.
An energy conversion device for conversion of chemical energy into electricity, comprising: a first electrode ; a substrate connected to said first electrode ; a porous semiconductor layer disposed over said substrate, said porous semiconductor layer having a nano-engineered structure ; a porous catalyst material on at least a portion of said porous semiconductor layer, wherein at least some of the porous catalyst material enters the nano-engineered structure of the porous semiconductor layer to form an intertwining region , the porous catalyst material and the porous semiconductor layer forming solid-state junctions; and a second electrode formed over part or all of said porous catalyst material, wherein electrons from the porous catalyst material are injected into the porous semiconductor layer , and wherein an electrical potential is formed between the first electrode and a second electrode during chemical reactions between a fuel, the porous catalyst material and the porous semiconductor network. a first electrode ; a substrate connected to said first electrode ; a porous semiconductor layer disposed over said substrate, said porous semiconductor layer having a nano-engineered structure ; a porous catalyst material on at least a portion of said porous semiconductor layer, wherein at least some of the porous catalyst material enters the nano-engineered structure of the porous semiconductor layer to form an intertwining region , the porous catalyst material and the porous semiconductor layer forming solid-state junctions; and a second electrode formed over part or all of said porous catalyst material,
A method for making pasta filata cheese comprising (a) manipulating cheese curd to create a uniform heating profile, wherein the manipulating of the cheese curd comprises using an auger; (b) heating said cheese curd of step (a) with electromagnetic energy; characterized by applying the electromagnetic energy so that the amount of water removed from the cheese curd during heating is less than 5%, and using a 3D sensor to determine if the cheese curd has a uniform heating profile prior to heating. (a) manipulating cheese curd to create a uniform heating profile, wherein the manipulating of the cheese curd comprises using an auger; (b) heating said cheese curd of step (a) with electromagnetic energy; applying the electromagnetic energy so that the amount of water removed from the cheese curd during heating is less than 5%, and using a 3D sensor to determine if the cheese curd has a uniform heating profile prior to heating.
A method of testing an ultrasonic gas leak detector, comprising: operating the gas leak detector in an operating mode, wherein the gas leak detector is responsive to broadband ultrasonic sound generated by a pressurized gas leak to initiate an alarm mode; ensonifying the gas leak detector with ultrasonic energy from a remote test source which is different from the broadband ultrasonic sound generated by a real gas leak , the remote test source being a separate device from the ultrasonic gas leak detector and wherein the remote test source is not under control of the gas leak detector; characterised in that it further comprises the steps of: with the gas leak detector in the operating mode, processing the received ultrasonic energy to determine if measured characteristics of the ultrasonic energy correspond to predetermined characteristics of a predetermined test signal from a test source; and initializing a test mode of the gas leak detector if the processing indicates the received ultrasonic energy is a test signal from the test source, including generating an output signal from the gas leak detector indicating that the gas leak detector is operating in the test mode rather than the operating mode for gas leak detection. with the gas leak detector in the operating mode, processing the received ultrasonic energy to determine if measured characteristics of the ultrasonic energy correspond to predetermined characteristics of a predetermined test signal from a test source; and initializing a test mode of the gas leak detector if the processing indicates the received ultrasonic energy is a test signal from the test source, including generating an output signal from the gas leak detector indicating that the gas leak detector is operating in the test mode rather than the operating mode for gas leak detection.
A method of wireless communication of a serving base station, comprising: receiving, from a user equipment, UE, in radio resource control, RRC, inactive state, a first packet including: a first identifier associated with an anchor base station, a second identifier associated with a UE context, and uplink payload, wherein the first packet is received by the serving base station without establishing a radio resource control, RRC, connection with the UE; identifying the anchor base station based at least in part on one or more of the first identifier associated with the anchor base station or the second identifier associated with the UE context; and transmitting a second packet to the anchor base station, the second packet including at least a portion of the first packet. receiving, from a user equipment, UE, in radio resource control, RRC, inactive state, a first packet including: a first identifier associated with an anchor base station, a second identifier associated with a UE context, and uplink payload, wherein the first packet is received by the serving base station without establishing a radio resource control, RRC, connection with the UE; a first identifier associated with an anchor base station, a second identifier associated with a UE context, and uplink payload, wherein the first packet is received by the serving base station without establishing a radio resource control, RRC, connection with the UE; identifying the anchor base station based at least in part on one or more of the first identifier associated with the anchor base station or the second identifier associated with the UE context; and transmitting a second packet to the anchor base station, the second packet including at least a portion of the first packet.
Exterior aircraft light , comprising: a housing having a length (L), a width (W), and a height (H), the length (L) being greater than the width (W) and the height (H) and the housing having a front end region and a rear end region with respect to its length (L), wherein the housing is configured to be mounted on a tail portion of a fuselage of an aircraft , with the length (L) of the housing being arranged substantially along a stabilizer of the aircraft and generally along a longitudinal direction of the fuselage , at least one first light source , arranged in the rear end region of the housing , for providing at least one of aircraft rearward navigation lighting, aircraft rearward white strobe anti-collision lighting, and aircraft rearward red beacon lighting, and a plurality of second light sources , which are arranged spaced along the length (L) of the housing for a distributed illumination of said stabilizer of the aircraft . a housing having a length (L), a width (W), and a height (H), the length (L) being greater than the width (W) and the height (H) and the housing having a front end region and a rear end region with respect to its length (L), wherein the housing is configured to be mounted on a tail portion of a fuselage of an aircraft , with the length (L) of the housing being arranged substantially along a stabilizer of the aircraft and generally along a longitudinal direction of the fuselage , at least one first light source , arranged in the rear end region of the housing , for providing at least one of aircraft rearward navigation lighting, aircraft rearward white strobe anti-collision lighting, and aircraft rearward red beacon lighting, and a plurality of second light sources , which are arranged spaced along the length (L) of the housing for a distributed illumination of said stabilizer of the aircraft .
A smoke collecting device comprising an adsorption block , an upper collector cover , a lower collector cover , a hollow upper cover inner cavity , a retaining plug and a Cambridge filter ; wherein an internal portion of the upper collector cover is provided with the hollow upper cover inner cavity ; and the adsorption block is located in the hollow upper cover inner cavity , characterized in that the device is a rotating smoke collecting device; and wherein the adsorption block is an adsorption tube comprising an outer tube , an adsorption tube adsorption block , a tapered interface and a gasket , wherein the outer tube is a hollow cylinder and the adsorption tube adsorption block is located inside the outer tube , the tapered interface is a hollow cylinder of which the inner cavity is tapered, a wide end of the inner cavity connects with the outer tube side, wherein the gasket is a hollow cylinder, which is located inside the tapered interface and abuts against the adsorption tube adsorption block .
A dispensing apparatus comprising a dispenser for dispensing a liquid containing at least one cell and/or at least one particle and an optical detection device for optically detecting at least a region of the dispenser , wherein the optical detection device has a light source for emitting an illuminating light for illuminating the region and a deflection device for deflecting a detection light emanating from the region , characterised in that the deflection device deflects the detection light at least twice, in particular exactly twice.
An optoelectronic device comprising an array of axial diodes , each diode forming a resonant cavity having a standing electromagnetic wave forming therein, each light-emitting diode comprising an active area located substantially at the level of an extremum of the electromagnetic wave, the array forming a photonic crystal configured to maximize the intensity of the electromagnetic radiation supplied by the diode array, wherein the array comprises a support having the diodes resting thereon, each diode comprising a stack of a first semiconductor region resting on the support, of the active area in contact with the first semiconductor region, and of a second semiconductor region in contact with the active area, the device comprising a reflective layer between the support and the first regions of the diodes, the second regions of the diodes being covered with a conductive layer at least partly transparent to the radiations emitted by the diodes.
An apparatus for remote control of at least one device for closing a rack of the leaf or roller shutter, windscreen, sun protection moving blind, etc. type, including a housing provided with control means actuated manually and means for processing the state of the control means, the control means including a single control member for controlling the automated opening and closing of the rack closing device controllable relative to the housing over a travel extending between two extreme positions respectively controlling the complete opening and closing of the closing device, characterized in that it includes a stage for encoding the position of or on the control member defining an input setpoint of the processing means, said processing means being able to generate, for each setpoint, a control signal of a unique position of the closing device relative to the two open and closed positions.
An ostomy pouch comprising: a. opposing walls having a cavity therebetween, the walls joined along their peripheries, and tapering to an outlet opening at the proximal end of the device; b. first and second deformable reinforcing members attached to opposing exterior surfaces of said opposing walls , wherein each reinforcing member has two lateral edges deformable by manual application of pressure to said lateral edges, so as to radially distend the outlet opening , wherein the first and second deformable reinforcing members are offset from each other along a longitudinal axis , and c. first and second fasteners ; wherein the outlet is flexible and foldable from an open condition to a closed condition by one or more folds, characterized in that the lateral edges of the first and second reinforcing members have material removed to create corners with void space . a. opposing walls having a cavity therebetween, the walls joined along their peripheries, and tapering to an outlet opening at the proximal end of the device; b. first and second deformable reinforcing members attached to opposing exterior surfaces of said opposing walls , wherein each reinforcing member has two lateral edges deformable by manual application of pressure to said lateral edges, so as to radially distend the outlet opening , wherein the first and second deformable reinforcing members are offset from each other along a longitudinal axis , and c. first and second fasteners ;
A high pressure processing device comprising: a processing module having a flow path with a geometry configured to convert a high pressure to shear or impact forces on a material passing through the processing module; a pump configured to pump the material to an inlet of the processing module at high pressure, the high pressure being between 5,000 psi (about 34,475,000 N/m 2 ) and 45,000 psi (about 310,275,000 N/m 2 ); a recirculation pathway configured to recirculate the material from an outlet of the processing module back to the pump; an input device configured to receive at least one user input variable; and a controller having a processor, a memory in communication with the processor, configured to (i) receive a value indicating a number of passes the material needs to be processed through the processing module and to store the value in the memory; (ii) determine a number of pump strokes for the pump so that the material makes the predetermined number of passes through the processing module indicated by the value, and (iii) control the pump according to the determined number of pump strokes so that the material makes the predetermined number of passes through the processing module. a processing module having a flow path with a geometry configured to convert a high pressure to shear or impact forces on a material passing through the processing module; a pump configured to pump the material to an inlet of the processing module at high pressure, the high pressure being between 5,000 psi (about 34,475,000 N/m 2 ) and 45,000 psi (about 310,275,000 N/m 2 ); a recirculation pathway configured to recirculate the material from an outlet of the processing module back to the pump; an input device configured to receive at least one user input variable; and a controller having a processor, a memory in communication with the processor, configured to (i) receive a value indicating a number of passes the material needs to be processed through the processing module and to store the value in the memory; (ii) determine a number of pump strokes for the pump so that the material makes the predetermined number of passes through the processing module indicated by the value, and (iii) control the pump according to the determined number of pump strokes so that the material makes the predetermined number of passes through the processing module.
A method for producing [bis(2-phosphinoethyl)amine]-carbonylhalohydridoruthenium (II) represented by the following formula (1 A ), the method comprising reacting a ruthenium dinuclear complex represented by the following formula (2 A ) with a compound represented by the following formula (3 A ) in the presence of a primary alcohol and a base: [in the formula (2 A ), the solid line represents a single bond and the broken line represents a coordinate bond; and Ru represents a divalent ruthenium ion, X represents a halide ion, and AH represents an aromatic hydrocarbon which may have a substituent], [in the formula (3 A ), the solid line represents a single bond; C represents a carbon atom, H represents a hydrogen atom, N represents a nitrogen atom, and P represents a phosphorus atom; each of R 1 , R 2 , R 3 and R 4 independently represents a group selected from the group consisting of an alkyl group, a cycloalkyl group, an alkenyl group which may have a substituent, an aryl group which may have a substituent, a heteroaryl group which may have a substituent, and an aralkyl group which may have a substituent; R 1 and R 2 may be bonded to each other to form a ring which may have a substituent; R 3 and R 4 may be bonded to each other to form a ring which may have a substituent; each of R 5 , R 6 , R 7 , R 8 , R 9 , R 10 , R 11 and R 12 independently represents a hydrogen atom or a group selected from the group consisting of an alkyl group, a cycloalkyl group, an alkenyl group, an aryl group, and an aralkyl group; and each of R 5 to R 12 may be bonded to each other to form a ring], [in the formula (1 A ), the solid line represents a single bond, the triple line represents a triple bond, and the broken line represents a coordinate bond; C represents a carbon atom, H represents a hydrogen atom, N represents a nitrogen atom, O represents an oxygen atom, and P represents a phosphorus atom; Ru represents a divalent ruthenium ion and X represents a halide ion; each of R 1 , R 2 , R 3 and R 4 independently represents a group selected from the group consisting of an alkyl group, a cycloalkyl group, an alkenyl group which may have a substituent, an aryl group which may have a substituent, a heteroaryl group which may have a substituent, and an aralkyl group which may have a substituent; R 1 and R 2 may be bonded to each other to form a ring which may have a substituent; R 3 and R 4 may be bonded to each other to form a ring which may have a substituent; each of R 5 , R 6 , R 7 , R 8 , R 9 , R 10 , R 11 and R 12 independently represents a hydrogen atom or a group selected from the group consisting of an alkyl group, a cycloalkyl group, an alkenyl group, an aryl group, and an aralkyl group; and each of R 5 to R 12 may be bonded to each other to form a ring].