mhurhangee/patent-ind-claim-en huggingface dataset:
A laser welding apparatus , comprising at least one pressing bolt ; a welding laser configured to irradiate a laser for the welding, and a laser welding jig for welding electrode leads of at least two battery cells and at least one lead bus bar of a bus bar unit that covers one side surface of the battery cells , the laser welding jig comprising: a jig body configured to cover the bus bar unit during the welding; a plurality of welding slits formed at the jig body so that the electrode leads and the at least one lead bus bar are exposed out of the jig body for the welding; a plurality of bolt insert portions provided between the plurality of welding slits and having at least one bolt insert hole into which at least one pressing bolt is inserted; and a pair of lead adhering blocks provided at a rear surface of each of the bolt insert portions and configured to be spaced from each other as the pressing bolt is inserted so that the electrode leads are adhered to the lead bus bar ; wherein the pair of lead adhering blocks are configured to gradually space from each other as the at least one pressing bolt is inserted; wherein the at least one pressing bolt includes: a bolt head having a diameter corresponding to an inner diameter of the bolt insert hole ; a bolt leg having a smaller diameter than the bolt head ; and a bolt taper configured to connect the bolt leg and the bolt head and having a diameter gradually decreasing from the bolt head toward the bolt leg . a jig body configured to cover the bus bar unit during the welding; a plurality of welding slits formed at the jig body so that the electrode leads and the at least one lead bus bar are exposed out of the jig body for the welding; a plurality of bolt insert portions provided between the plurality of welding slits and having at least one bolt insert hole into which at least one pressing bolt is inserted; and a pair of lead adhering blocks provided at a rear surface of each of the bolt insert portions and configured to be spaced from each other as the pressing bolt is inserted so that the electrode leads are adhered to the lead bus bar ; wherein the pair of lead adhering blocks are configured to gradually space from each other as the at least one pressing bolt is inserted; wherein the at least one pressing bolt includes: a bolt head having a diameter corresponding to an inner diameter of the bolt insert hole ; a bolt leg having a smaller diameter than the bolt head ; and a bolt taper configured to connect the bolt leg and the bolt head and having a diameter gradually decreasing from the bolt head toward the bolt leg . a bolt head having a diameter corresponding to an inner diameter of the bolt insert hole ; a bolt leg having a smaller diameter than the bolt head ; and a bolt taper configured to connect the bolt leg and the bolt head and having a diameter gradually decreasing from the bolt head toward the bolt leg .
A camping vehicle with a safety structure arranged in its rear region, comprising a support and a connecting element , wherein the connecting element fastens the support to a frame extension and/or to a garage tub , wherein the safety structure , in particular the support and/or the connecting element , is connected to a rear structure, in particular rear wall , of the camping vehicle or is at least partially integrated into a rear structure, in particular rear wall , of the camping vehicle , in particular into a lower part of the rear structure, in particular rear wall , of the camping vehicle , characterised in that the rear structure, in particular the rear wall , has a predetermined breaking point .
A method for receiving a discovery reference signal, DRS, the method being executed by a user equipment of a wireless communication system and comprising the steps of: receiving DRS configuration information through upper layer signaling from a serving cell of the user equipment; blind-detecting at least one DRS channel status information reference signal, DRS-CSI-RS, which is transmitted from a small cell of an unspecified number of small cells, based on the DRS configuration information received from the serving cell, wherein in the case that there is a legacy reference signal, RS, which is transmitted through a subframe from the small cell, and which is overlapped with the DRS-CSI-RS transmitted from the small cell in at least one resource element on the subframe; performing blind detection of the DRS-CSI-RS instead of blind-detection of the legacy RS; and transmitting and receiving a signal to and from the small cell as a response to the detected DRS-CSI-RS, wherein the DRS configuration information includes information on a candidate parameter set for blind detection of the DRS-CSI-RS, wherein the candidate parameter set includes one antenna port index that corresponds to a set of candidate frequency resource positions at which the DRS-CSI-RS is blindly detected by the UE, and wherein the wireless communication system comprises the serving cell and the unspecified number of small cells transmitting DRS. receiving DRS configuration information through upper layer signaling from a serving cell of the user equipment; blind-detecting at least one DRS channel status information reference signal, DRS-CSI-RS, which is transmitted from a small cell of an unspecified number of small cells, based on the DRS configuration information received from the serving cell, wherein in the case that there is a legacy reference signal, RS, which is transmitted through a subframe from the small cell, and which is overlapped with the DRS-CSI-RS transmitted from the small cell in at least one resource element on the subframe; performing blind detection of the DRS-CSI-RS instead of blind-detection of the legacy RS; and transmitting and receiving a signal to and from the small cell as a response to the detected DRS-CSI-RS, wherein the DRS configuration information includes information on a candidate parameter set for blind detection of the DRS-CSI-RS, wherein the candidate parameter set includes one antenna port index that corresponds to a set of candidate frequency resource positions at which the DRS-CSI-RS is blindly detected by the UE, and wherein the wireless communication system comprises the serving cell and the unspecified number of small cells transmitting DRS.
A network security gateway onboard an aircraft, connecting a low-trust domain and a high-trust domain of an avionics IT infrastructure, the network security gateway providing a plurality of security functions, each security function being performed by a data processing node, the network security gateway including, connected in series along a filtering chain of a data flow received from the low-trust domain: - a firewall data processing node ; - a protocol break data processing node ; - a master data processing node ; and, - an inverse protocol break data processing node , the network security gateway further including a security data processing node connected to each of the data processing nodes of the filtering chain, the different data processing nodes being physically segregated, the master data processing node executing an intrusion detection application and a piece of detection information generated by the intrusion detection application being sent to the security data processing node as an entry of a log file. - a firewall data processing node ; - a protocol break data processing node ; - a master data processing node ; and, - an inverse protocol break data processing node , the network security gateway further including a security data processing node connected to each of the data processing nodes of the filtering chain, the different data processing nodes being physically segregated, the master data processing node executing an intrusion detection application and a piece of detection information generated by the intrusion detection application being sent to the security data processing node as an entry of a log file.
Arrangement for removing moisture from a battery , in particular a lithium-ion battery, of a vehicle, comprising: a drying apparatus having a housing in which a desiccant for retaining moisture is accommodated, wherein the housing has a first connection which is guided out for fluid-conducting connection to the battery and has a second connection which is designed for outflow of fluid into the area surrounding the housing , wherein the drying apparatus further has a first valve element which is designed to close in a fluid-tight manner or open the first connection and a second valve element which is designed to close in a fluid-tight manner or open the second connection , a heat source ; characterized in that the drying apparatus is connected to the heat source , and the heat source is a power electronics system or an exhaust gas section of the vehicle. a drying apparatus having a housing in which a desiccant for retaining moisture is accommodated, wherein the housing has a first connection which is guided out for fluid-conducting connection to the battery and has a second connection which is designed for outflow of fluid into the area surrounding the housing , wherein the drying apparatus further has a first valve element which is designed to close in a fluid-tight manner or open the first connection and a second valve element which is designed to close in a fluid-tight manner or open the second connection , a heat source ; characterized in that the drying apparatus is connected to the heat source , and the heat source is a power electronics system or an exhaust gas section of the vehicle.
A vacuum heat-insulating material for a dwelling wall , comprising: an outer cover material ; and an inner member which is sealed in a tightly closed and decompressed state on an inside of the outer cover material , wherein the inner member is configured of a material which does not generate hydrogen in a case of coming into contact with moisture of liquid, wherein the inner member included in the vacuum heat-insulating material includes a core material having heat-insulating properties and an adsorbent which is capable of adsorbing gas on the inside of the outer cover material , characterized in that a ratio of a sectional area (CS) of a surface vertical to a thickness direction of the adsorbent to a thickness (T2) of the adsorbent is within a range of T2:CS=1:100 to 1:250. an outer cover material ; and an inner member which is sealed in a tightly closed and decompressed state on an inside of the outer cover material , wherein the inner member is configured of a material which does not generate hydrogen in a case of coming into contact with moisture of liquid, wherein the inner member included in the vacuum heat-insulating material includes a core material having heat-insulating properties and an adsorbent which is capable of adsorbing gas on the inside of the outer cover material , characterized in that a ratio of a sectional area (CS) of a surface vertical to a thickness direction of the adsorbent to a thickness (T2) of the adsorbent is within a range of T2:CS=1:100 to 1:250.
A method of recovering 2-EH (2-ethyl hexanol) from crude alcohol, the method comprising: distilling, in a first distillation column, the crude alcohol to produce a first distillate comprising light components having a lower boiling point than butanol, butanol, EHA (2-ethyl hexanal), EPA (2-ethyl-3-propyl acrolein), water, and 2-EH; distilling, in a second distillation column, the first distillate to produce a second distillate comprising butanol and water; flowing a liquid side stream from the second distillation column, wherein the liquid side stream comprises EHA and 2-EH; recycling the liquid side stream to a reactor that produces the crude alcohol; and distilling, in a third distillation column, a bottom stream comprising 2-EH and heavy components that have a boiling point higher than 2-EH from the first distillation column to produce a third distillate comprising 2-EH. distilling, in a first distillation column, the crude alcohol to produce a first distillate comprising light components having a lower boiling point than butanol, butanol, EHA (2-ethyl hexanal), EPA (2-ethyl-3-propyl acrolein), water, and 2-EH; distilling, in a second distillation column, the first distillate to produce a second distillate comprising butanol and water; flowing a liquid side stream from the second distillation column, wherein the liquid side stream comprises EHA and 2-EH; recycling the liquid side stream to a reactor that produces the crude alcohol; and distilling, in a third distillation column, a bottom stream comprising 2-EH and heavy components that have a boiling point higher than 2-EH from the first distillation column to produce a third distillate comprising 2-EH.
An inductive power transfer transmitter including: a. an enclosure having one or more side walls for accommodating a device comprising a receiver coil to be energised; b. a coil in the one or more side walls and wound around a perimeter of the enclosure for generating an alternating magnetic field within the enclosure ; and c. a drive circuit for driving the coil , characterised in that the coil is arranged so that the number of loops of the coil per unit height varies with height towards the top of the one or more sidewalls . a. an enclosure having one or more side walls for accommodating a device comprising a receiver coil to be energised; b. a coil in the one or more side walls and wound around a perimeter of the enclosure for generating an alternating magnetic field within the enclosure ; and c. a drive circuit for driving the coil ,
A method for estimating a wheel base length (D, D') of at least one trailer of a vehicle combination comprising a towing vehicle , the at least one trailer and more than one articulation joint (A1, A2), wherein the towing vehicle comprises at least one wheel identification sensor for identifying wheels of the at least one trailer, the method being characterized by comprising the following steps: - (S1) performing a plurality of wheel identification measurements on at least one side of the at least one trailer, by means of the at least one sensor during use of the vehicle combination, - (S2) determining a number of identifiable active wheels on the at least one side of the at least one trailer in each one of the plurality of wheel identification measurements, - (S3) determining a total number of active wheels on the at least one side of the at least one trailer, wherein the total number of active wheels is determined based on at least one of the plurality of wheel identification measurements in which a maximum number of identifiable active wheels was determined, - (S4) determining a position of each identifiable active wheel at least from the at least one of the plurality of wheel identification measurements in which the maximum number of active wheels was determined, and - (S5) estimating the wheel base length based on the determined position of each active wheel. - (S1) performing a plurality of wheel identification measurements on at least one side of the at least one trailer, by means of the at least one sensor during use of the vehicle combination, - (S2) determining a number of identifiable active wheels on the at least one side of the at least one trailer in each one of the plurality of wheel identification measurements, - (S3) determining a total number of active wheels on the at least one side of the at least one trailer, wherein the total number of active wheels is determined based on at least one of the plurality of wheel identification measurements in which a maximum number of identifiable active wheels was determined, - (S4) determining a position of each identifiable active wheel at least from the at least one of the plurality of wheel identification measurements in which the maximum number of active wheels was determined, and - (S5) estimating the wheel base length based on the determined position of each active wheel.
Burner comprising: - a body suitable for containing at least one injector , - a crown disposed on the body , and - a cap disposed on the crown , said crown comprising: - a truncated conical lateral edge with decreasing diameter going from down up and inclination comprised between 20°-70° relative to a horizontal plane, - a plurality of apertures with U-shape in front view, which extend radially in the lateral edge of the crown for the emission of the flames; said cap having a lateral edge that comprises: - a first truncated conical portion with downward inclination of approximately 10°-25° relative to a horizontal plane, and - a second truncated conical portion with downward inclination of approximately 30°-70° relative to a horizontal plane, and - a lower surface inclined by an angle of approximately 8°-25° relative to a horizontal plane, which is disposed on the apertures of the crown. - a body suitable for containing at least one injector , - a crown disposed on the body , and - a cap disposed on the crown , - a truncated conical lateral edge with decreasing diameter going from down up and inclination comprised between 20°-70° relative to a horizontal plane, - a plurality of apertures with U-shape in front view, which extend radially in the lateral edge of the crown for the emission of the flames; - a first truncated conical portion with downward inclination of approximately 10°-25° relative to a horizontal plane, and - a second truncated conical portion with downward inclination of approximately 30°-70° relative to a horizontal plane, and - a lower surface inclined by an angle of approximately 8°-25° relative to a horizontal plane, which is disposed on the apertures of the crown.
A fastening assembly, comprising at least one fastening nut , an exhaust manifold , which comprises an external-thread bolt, and a cylinder head of a combustion engine , the fastening nut being configured for fixing the exhaust manifold on the cylinder head by being screwed in an axial fixation direction (F) with the external-thread bolt held on the cylinder head and forming a passage opening in the exhaust manifold , the fastening nut comprising an internal-thread section for being screwed on the external-thread bolt and braking-torque means for increasing the loosening torque, the fastening assembly further comprising a support surface for direct or indirect axial support at the exhaust manifold , the support surface being formed on a radially protruding spring section which is elastically pre-tensioned in the axial direction, the fastening nut being designed in several pieces and comprising a nut body , which extends from a rear end to an axial front face in the front in relation to the fixation direction (F) and has a shaft section having the axial front face , and at least a first spring part , which is separate from the nut body , is captively fixed to the nut body via securing means, is in particular formed as a spring washer and is formed on the nut body of the internal-thread section, and the first spring part forming the spring section having the support surface , which forms an axial end of the fastening nut, which is the front-most end in relation to the axial fixation direction (F), the front face of the shaft section being recessed in relation to the front-most axial end and to the axial fixation direction (F) and being axially spaced apart, characterized in that the fastening nut directly or indirectly secures the exhaust manifold on the cylinder head via the at least one external-thread bolt using a pre-specified screwing force or pre-tensioning force, the at least one spring part of the fastening nut being designed, in particular dimensioned, such that the support surface of the spring part resiliently and/or elastically abuts directly or indirectly against the exhaust manifold in a secured condition, the braking-torque means of the fastening nut serving to increase the loosening torque of the fastening assembly and in that the support surface of the fastening nut is not pulled to block thickness with the exhaust manifold or sliding plate in the mounted state.
An epoxy resin composition (A), comprising an epoxy resin having a structure represented by formula described below (hereinafter, referred to as an "epoxy resin ") and an epoxy resin having a structure represented by formula described below (hereinafter, referred to as an "epoxy resin ") and/or an epoxy resin having a structure represented by formula described below (hereinafter, referred to as an "epoxy resin "), 89.0% to 99.9% by mass of the epoxy resin and 0.1% to 11.0% by mass of the epoxy resin and/or the epoxy resin being contained in 100% by mass of a total of the epoxy resin and the epoxy resin and/or the epoxy resin , where in formulae , , and , each X is a direct bond or a divalent linking group selected from -SO 2 -, -O-, -CO-, -C(CF 3 ) 2 -, -S-, and a hydrocarbon group having 1 to 20 carbon atoms, R 1 's are each a hydrogen atom, a hydrocarbon group having 1 to 10 carbon atoms, or a halogen element and are optionally the same or different, two R 1 's bonded to two adjacent carbon atoms of one of cyclohexane rings are optionally taken together to form a ring structure having 4 to 20 carbon atoms, and n is an integer of 0 to 2.
An EGLN1 inhibitor or a VHL inhibitor for use in treating a subject having or at risk of developing an EGLN1-dependent ovarian cancer, wherein the treatment comprises: (a) obtaining a sample from a subject having or at risk of developing the EGLN1-dependent ovarian cancer; (b) identifying the presence or absence in the sample of the EGLN1-dependent ovarian cancer; and (c) selecting an EGLN1 inhibitor or a VHL inhibitor as a treatment for the subject if the EGLN1-dependent ovarian cancer is identified in the sample, thereby selecting a treatment for the subject having or at risk of developing the EGLN1-dependent ovarian cancer, optionally further comprising: (d) administering the selected EGLN1 inhibitor or VHL inhibitor to the subject; wherein the EGLN1 inhibitor is selected from the group consisting of: FG-4592, FG-2216, Molidustat, IOX2, Vadadustat and Daprodustat, optionally wherein the EGLN1 inhibitor is FG-4592; and an oligonucleotide inhibitor of EGLN1, optionally wherein the oligonucleotide inhibitor of EGLN1 is selected from the group consisting of an antisense oligonucleotide, a siRNA and a sgRNA; and/or, wherein the VHL inhibitor is selected from the group consisting of: VH298; and an oligonucleotide inhibitor of VHL, optionally wherein the oligonucleotide inhibitor of VHL is selected from the group consisting of an antisense oligonucleotide, a siRNA and a sgRNA (a) obtaining a sample from a subject having or at risk of developing the EGLN1-dependent ovarian cancer; (b) identifying the presence or absence in the sample of the EGLN1-dependent ovarian cancer; and (c) selecting an EGLN1 inhibitor or a VHL inhibitor as a treatment for the subject if the EGLN1-dependent ovarian cancer is identified in the sample, thereby selecting a treatment for the subject having or at risk of developing the EGLN1-dependent ovarian cancer, optionally further comprising: (d) administering the selected EGLN1 inhibitor or VHL inhibitor to the subject; FG-4592, FG-2216, Molidustat, IOX2, Vadadustat and Daprodustat, optionally wherein the EGLN1 inhibitor is FG-4592; and an oligonucleotide inhibitor of EGLN1, optionally wherein the oligonucleotide inhibitor of EGLN1 is selected from the group consisting of an antisense oligonucleotide, a siRNA and a sgRNA; and/or, wherein the VHL inhibitor is selected from the group consisting of: VH298; and an oligonucleotide inhibitor of VHL, optionally wherein the oligonucleotide inhibitor of VHL is selected from the group consisting of an antisense oligonucleotide, a siRNA and a sgRNA