mhurhangee/patent-ind-claim-en huggingface dataset:
A power storage device comprising: a plurality of cells which are connected in series; a series resonance circuit configured to include a reactor and a capacitor ; and a power storage control device configured to control a connection state of the cells and the series resonance circuit, wherein the power storage control device is configured to cause energy to be transferred between equal numbers of cells via the series resonance circuit, wherein the power storage control device is configured to switch connection of the series resonance circuit and the cells using a resonance frequency of the series resonance circuit, characterized in that the cells have a discharge characteristic that a change of a voltage is 0.25 V or lower in a series of sections spanning 50% or more of a section of a charge ratio of 0% to 100%, wherein the resonance frequency is ω 0 /2π with ω 0 = 1/(L×C) 1/2 , wherein L represents a self-inductance of the reactor , and C represents an electrostatic capacitance of the capacitor . a plurality of cells which are connected in series; a series resonance circuit configured to include a reactor and a capacitor ; and a power storage control device configured to control a connection state of the cells and the series resonance circuit, wherein the power storage control device is configured to cause energy to be transferred between equal numbers of cells via the series resonance circuit, wherein the power storage control device is configured to switch connection of the series resonance circuit and the cells using a resonance frequency of the series resonance circuit, characterized in that the cells have a discharge characteristic that a change of a voltage is 0.25 V or lower in a series of sections spanning 50% or more of a section of a charge ratio of 0% to 100%, wherein the resonance frequency is ω 0 /2π with ω 0 = 1/(L×C) 1/2 , wherein L represents a self-inductance of the reactor , and C represents an electrostatic capacitance of the capacitor .
Use of a metallic pigment-containing ink comprising a metallic pigment as a printing ink for the purpose of reducing sparking during printing, wherein the ink exhibits a magnitude of exotherm less than 1200 J/g, or does not exhibit an observable exotherm.
A packed roof window, said window comprising a ventilation passage and a ventilation flap , said ventilation passage extending from an interior side of the window to an exterior side of the window, said ventilation flap being provided on the interior side of the window and being moveable between a first position, where the ventilation passage is open, and a second position, where it covers the ventilation passage , where said roof window is contained in a cardboard box , where blocks of shock absorbing materials are arranged inside the cardboard box to protect the roof window , and where a frame-side ventilation flap retainer is provided on or at the ventilation flap to prevent it from unintentional movement, said frame-side ventilation flap retainer being arranged between the ventilation flap and a sash , characterised in that the frame-side ventilation flap retainer is made from paper-based folded cardboard or folded corrugated cardboard, and that the frame-side ventilation flap retainer is folded along fold lines so that a cut-out at the centre gets a shape fitting over a bracket assembly connecting the ventilation flap to a locking assembly of the roof window , and the frame-side ventilation flap retainer comprises other cut-outs and recesses overlapping in the folded state, which are fitted over a grate-like structure at the entrance of the ventilation passage , wherein the cut-out at the centre gets a T-shape.
Process for ring hydrogenation of dialkyl terephthalates having C3- to C16-alkyl groups, preferably dialkyl terephthalates having C4- to C11-alkyl groups, to give 1,4-cyclohexanedicarboxylic esters having the corresponding alkyl groups, in a hydrogenation unit consisting of two reaction units connected in series, which consist of one reactor or two or more parallel reactors, of which the reactor(s) in the second reaction unit are operated in a straight pass, wherein a heterogeneous hydrogenation catalyst is present in the reactors of each of the two reaction units of the hydrogenation unit and wherein the process is characterized in that the aromatic carboxylic ester used as feed to the reactors of the reaction units is brought into contact with a hydrogen-containing gas, wherein the reaction conversion in the first reaction unit is monitored, and wherein at least one parameter in relation to the first reaction unit, selected from the group consisting of the amount of feed supplied to the first reaction unit (total amount of fresh feed and recycle), the amount of dialkyl terephthalate to be hydrogenated, the reactor temperature in the reactor(s) of the first reaction unit, the temperature increase, the circulation volume flow, the feed/recycle ratio, the ratio of hydrogen to aromatic carboxylic ester, the reactor pressure, the feed composition, the amount of catalyst, the catalyst composition, if cooling is present, the amount of coolant circulated or the amount of product in the discharge of the first reaction unit and a combination thereof, is controlled such that a reaction conversion in the range of 85 to 93%, preferably 88 to 92%, is achieved. the aromatic carboxylic ester used as feed to the reactors of the reaction units is brought into contact with a hydrogen-containing gas, wherein the reaction conversion in the first reaction unit is monitored, and wherein at least one parameter in relation to the first reaction unit, selected from the group consisting of the amount of feed supplied to the first reaction unit (total amount of fresh feed and recycle), the amount of dialkyl terephthalate to be hydrogenated, the reactor temperature in the reactor(s) of the first reaction unit, the temperature increase, the circulation volume flow, the feed/recycle ratio, the ratio of hydrogen to aromatic carboxylic ester, the reactor pressure, the feed composition, the amount of catalyst, the catalyst composition, if cooling is present, the amount of coolant circulated or the amount of product in the discharge of the first reaction unit and a combination thereof, is controlled such that a reaction conversion in the range of 85 to 93%, preferably 88 to 92%, is achieved.
An electronic cigarette atomizer with a flared vapor outlet pipe, wherein it comprises an atomizer tube body , an atomization device , and a connecting member ; one end of the atomizer tube body is a mouthpiece segment (A), another end of the atomizer tube body is an atomizer connection segment (B), and a middle section of the atomizer tube body is a liquid storage segment (C); the atomization device is provided with an atomization chamber ; the connecting member is for connecting with a battery rod of an electronic cigarette; the mouthpiece segment (A) contains a mouthpiece cavity which has a large cross-section and can accommodate an additional material; the atomization device and the connecting member are inserted into the atomizer connection segment (B); a vapor outlet pipe is provided in the liquid storage segment (C) at its central axis; two ends of the vapor outlet pipe respectively communicate with the atomization chamber and the mouthpiece cavity ; a liquid storage chamber for storing an electronic cigarette liquid is formed between the vapor outlet pipe and the atomizer tube body ; the atomization device is connected to the liquid storage chamber and the vapor outlet pipe to discharge vapor generated after atomizing the electronic cigarette liquid contained in the liquid storage chamber through the vapor outlet pipe , the electronic cigarette atomizer being characterized in that the vapor outlet pipe is integrally formed with the atomizer tube body and in that an inner diameter of the vapor outlet pipe gradually increases from an end connected to the atomization chamber to an end connected to the mouthpiece cavity .
A neutron capture therapy system , comprising a beam shaping assembly , wherein the beam shaping assembly comprises: a beam inlet ; a neutron generator arranged into the beam shaping assembly , wherein the neutron generator is adapted to have nuclear reaction with an incident proton beam from the beam inlet to produce neutrons; a moderator adjacent to the neutron generator , adapted to moderate the neutrons to epithermal neutron energies; a reflector surrounding the neutron generator and the moderator , wherein the reflector is adapted to lead the deflected neutrons back to enhance the epithermal neutron beam intensity; a beam outlet ; and at least a movable member adapted to move away from or close to the neutron generator , wherein the movable member is adapted to move between a first position (L1) and a second position (L2), when the movable member is at the first position (L1), the neutron generator is replaceable; and when the movable member is at the second position (L2), the neutron generator is irreplaceable, characterized in that the reflector includes a first connecting part which comprises a first connecting surface and a first junction surface connected to the first connecting surface ; the movable member includes a second connecting part which comprises a second connecting surface and a second junction surface connected to the second connecting surface , the first connecting surface is adapted to connect with the second connecting surface , and the first junction surface is adapted to connect with the second junction surface . a beam inlet ; a neutron generator arranged into the beam shaping assembly , wherein the neutron generator is adapted to have nuclear reaction with an incident proton beam from the beam inlet to produce neutrons; a moderator adjacent to the neutron generator , adapted to moderate the neutrons to epithermal neutron energies; a reflector surrounding the neutron generator and the moderator , wherein the reflector is adapted to lead the deflected neutrons back to enhance the epithermal neutron beam intensity; a beam outlet ; and at least a movable member adapted to move away from or close to the neutron generator , wherein the movable member is adapted to move between a first position (L1) and a second position (L2), when the movable member is at the first position (L1), the neutron generator is replaceable; and when the movable member is at the second position (L2), the neutron generator is irreplaceable, characterized in that the reflector includes a first connecting part which comprises a first connecting surface and a first junction surface connected to the first connecting surface ; the movable member includes a second connecting part which comprises a second connecting surface and a second junction surface connected to the second connecting surface , the first connecting surface is adapted to connect with the second connecting surface , and the first junction surface is adapted to connect with the second junction surface .
A system for adjusting enteral feeding of a patient by an enteral feeding controller, comprising: a processor of a computing device executing code instructions stored in a memory , and causing the computing device to: receive carbon dioxide measurements outputted by a carbon dioxide sensor that senses at least one of inspiration and expiration of the patient; receive an oxygen measurement outputted by an oxygen sensor that senses at least one of inspiration and expiration of the patient; compute an estimate of energy expenditure of the patient based on the oxygen measurement and the carbon dioxide measurement; compute a target composition and target feeding rate for the enteral feeding according to the computed estimate of energy expenditure; when the target composition and target feeding rate differ from a current enteral feeding composition and feeding rate by a requirement, generating instructions for adjustment, by an enteral feeding controller , of the rate of delivery of the enteral feeding according to the target composition, wherein the receiving the oxygen measurement, receiving the carbon dioxide measurement, and computing the estimate of energy expenditure are performed iteratively for a first time interval, and the generating instructions for adjustment is performed iteratively for a second time interval that is larger than the first time interval, characterized in that a first and a second set of generated instructions control a feed selecting mechanism that selects between a first tube that delivers the enteral feeding and a second tube that delivers a protein component. receive carbon dioxide measurements outputted by a carbon dioxide sensor that senses at least one of inspiration and expiration of the patient; receive an oxygen measurement outputted by an oxygen sensor that senses at least one of inspiration and expiration of the patient; compute an estimate of energy expenditure of the patient based on the oxygen measurement and the carbon dioxide measurement; compute a target composition and target feeding rate for the enteral feeding according to the computed estimate of energy expenditure; when the target composition and target feeding rate differ from a current enteral feeding composition and feeding rate by a requirement, generating instructions for adjustment, by an enteral feeding controller , of the rate of delivery of the enteral feeding according to the target composition, wherein the receiving the oxygen measurement, receiving the carbon dioxide measurement, and computing the estimate of energy expenditure are performed iteratively for a first time interval, and the generating instructions for adjustment is performed iteratively for a second time interval that is larger than the first time interval, characterized in that a first and a second set of generated instructions control a feed selecting mechanism that selects between a first tube that delivers the enteral feeding and a second tube that delivers a protein component.
A method for face anonymization, the method comprising: - receiving (S1) an input image (I in ) showing a face (F) to be anonymized; - receiving (S2) an input vector (V) with control data for face anonymization; and - generating (S3), by a generative adversarial network (N), an output image (I out ) in which the face (F) is anonymized in accordance with the control data of the input vector (V); characterized in that the generative adversarial network (N) comprises a generator sub-network (G) trained to generate new faces with different facial attributes, a discriminator sub-network (D) trained to evaluate if generated new faces are realistic and natural, and an identity classifier sub-network (C) trained to evaluate if face identities of new faces have been changed. - receiving (S1) an input image (I in ) showing a face (F) to be anonymized; - receiving (S2) an input vector (V) with control data for face anonymization; and - generating (S3), by a generative adversarial network (N), an output image (I out ) in which the face (F) is anonymized in accordance with the control data of the input vector (V);
A process for preparing 2,3,3,3-tetrafluoropropene (CF 3 CF=CH 2 ), which process comprises dehydrohalogenating 1,1,1,2,2-pentafluoropropane (CH 3 CF 2 CF 3 ) and/or 1,1,1,2-tetrafluoro-2-chloropropane in the presence of a base, the process further comprising the step of converting 1,1,1-trifluoro-2,3-dichloropropane to CH 3 CF 2 CF 3 and/or 1,1,1,2-tetrafluoro-2-chloropropane, by contacting the 243db with HF in the presence of a catalyst.
A roller conveyor furnace for the thermal treatment of an object to be fired, comprising a) a heating chamber which comprises at least one heat source; b) at least one roller for transporting an object to be fired through the heating chamber, wherein the roller has a middle region which is located within the heating chamber and has a first and a second end region, wherein the first and second end regions are located outside the heating chamber at points of the heating chamber which lie opposite one another; c) at least two spacer rings , which are arranged on the at least one roller ; d) at least three spacer sleeves , which are arranged on the at least one roller , wherein the at least three spacer sleeves have a greater linear extent along the axis of rotation of the roller and a smaller linear extent perpendicularly to the axis of rotation of the roller than the at least two spacer rings , and wherein the at least three spacer sleeves in each case contact at least one spacer ring ; e) at least one clamping flange and at least one counter-piece , wherein the at least one clamping flange is arranged in the first end region of the at least one roller and contacts at least one of the spacer sleeves , and the at least one counter-piece is arranged in the second end region of the roller and contacts at least one of the spacer sleeves ; characterised in that the spacer rings and spacer sleeves are arranged on the at least one roller without a connection by a material bond with the at least one roller , and the at least one clamping flange fixes the at least two spacer rings and at least three spacer sleeves to each other and to the roller by way of a clamping connection. a) a heating chamber which comprises at least one heat source; b) at least one roller for transporting an object to be fired through the heating chamber, wherein the roller has a middle region which is located within the heating chamber and has a first and a second end region, wherein the first and second end regions are located outside the heating chamber at points of the heating chamber which lie opposite one another; c) at least two spacer rings , which are arranged on the at least one roller ; d) at least three spacer sleeves , which are arranged on the at least one roller , wherein the at least three spacer sleeves have a greater linear extent along the axis of rotation of the roller and a smaller linear extent perpendicularly to the axis of rotation of the roller than the at least two spacer rings , and wherein the at least three spacer sleeves in each case contact at least one spacer ring ; e) at least one clamping flange and at least one counter-piece , wherein the at least one clamping flange is arranged in the first end region of the at least one roller and contacts at least one of the spacer sleeves , and the at least one counter-piece is arranged in the second end region of the roller and contacts at least one of the spacer sleeves ;
A system having a vacuum pump and at least an abatement part, comprising: a vacuum pump having a discharge port to which at least one abatement part for treating an exhaust gas discharged from the vacuum pump to make the exhaust gas harmless is attached; the abatement part comprising a cylindrical container attached to the discharge port of the vacuum pump and configured to treat the exhaust gas therein; wherein the at least one abatement part is selected from a plurality of abatement parts having different treatment types of exhaust gas and/or different treatment amounts of exhaust gas and/or different treatment abatement performances of exhaust gas; and characterised in that the cylindrical container of the at least one abatement part comprises a cylindrical member which forms a combustion chamber (S) therein for combusting the exhaust gas, an outer cylinder provided so as to surround the cylindrical member , and a heating chamber formed between the cylindrical member and the outer cylinder and configured to hold and heat an inert gas, whereby heat generated by combustion of the exhaust gas in the combustion chamber (S) is utilized to heat the inert gas held in the heating chamber , and the heated inert gas is supplied to the vacuum pump . a vacuum pump having a discharge port to which at least one abatement part for treating an exhaust gas discharged from the vacuum pump to make the exhaust gas harmless is attached; the abatement part comprising a cylindrical container attached to the discharge port of the vacuum pump and configured to treat the exhaust gas therein; wherein the at least one abatement part is selected from a plurality of abatement parts having different treatment types of exhaust gas and/or different treatment amounts of exhaust gas and/or different treatment abatement performances of exhaust gas; and characterised in that the cylindrical container of the at least one abatement part comprises a cylindrical member which forms a combustion chamber (S) therein for combusting the exhaust gas, an outer cylinder provided so as to surround the cylindrical member , and a heating chamber formed between the cylindrical member and the outer cylinder and configured to hold and heat an inert gas, whereby heat generated by combustion of the exhaust gas in the combustion chamber (S) is utilized to heat the inert gas held in the heating chamber , and the heated inert gas is supplied to the vacuum pump .
A polyolefin production system comprising: a plurality of gas-phase polymerization tanks configured to polymerize an olefin gas to form a polyolefin; one compressor comprising an inlet and an outlet and being configured to compress an olefin-containing gas; an individual gas feed line disposed at each of the gas-phase polymerization tanks, configured to guide the gas fed from the outlet of the one compressor to each of the gas-phase polymerization tanks; an individual gas discharge line disposed at each of the gas-phase polymerization tanks, configured to discharge the gas from each of the gas-phase polymerization tanks; a first valve installed in each of the individual gas feed lines; and a gas recovery line connecting the plurality of the individual gas discharge lines and the inlet of the one compressor to each other. a plurality of gas-phase polymerization tanks configured to polymerize an olefin gas to form a polyolefin; one compressor comprising an inlet and an outlet and being configured to compress an olefin-containing gas; an individual gas feed line disposed at each of the gas-phase polymerization tanks, configured to guide the gas fed from the outlet of the one compressor to each of the gas-phase polymerization tanks; an individual gas discharge line disposed at each of the gas-phase polymerization tanks, configured to discharge the gas from each of the gas-phase polymerization tanks; a first valve installed in each of the individual gas feed lines; and a gas recovery line connecting the plurality of the individual gas discharge lines and the inlet of the one compressor to each other.
An RSSP-II safety protocol separate deployment method, comprising: adding different adaptation layers to a protocol stack; and using a corresponding adaptation layer to compile all RSSP-II functional modules of the protocol stack into a library file to be deployed into A, B and C machines; characterized in that the adaptation layer includes a system adaptation layer, a network adaptation layer and an application adaptation layer; and wherein the A and B machines are safety logic processing units and the C machine is a communication unit. adding different adaptation layers to a protocol stack; and using a corresponding adaptation layer to compile all RSSP-II functional modules of the protocol stack into a library file to be deployed into A, B and C machines; characterized in that the adaptation layer includes a system adaptation layer, a network adaptation layer and an application adaptation layer; and wherein the A and B machines are safety logic processing units and the C machine is a communication unit.