mhurhangee/patent-ind-claim-en huggingface dataset:
A lubrication system, comprising: a pump having an inlet in fluid communication with a lubricant source and an outlet ; a cooler having an inlet in fluid communication with the outlet of the pump and an outlet ; a lubrication filter having an inlet in fluid communication with the outlet of the cooler and an outlet ; a first delivery path in fluid communication with the outlet of the lubrication filter , the first delivery path being configured to deliver cooled, filtered lubricant to a bearing system of an engine; and a second delivery path configured to deliver lubricant to piston cooling nozzles of the engine: - wherein the second delivery path is in fluid communication with the outlet of the pump , and configured to deliver uncooled, unfiltered lubricant to the piston cooling nozzles of the engine; wherein the pump draws an amount of lubricant from the lubrication source and the cooled, filtered lubricant delivered to the bearing system of the engine constitutes about 50% of the amount of lubricant drawn from the lubrication source . a pump having an inlet in fluid communication with a lubricant source and an outlet ; a cooler having an inlet in fluid communication with the outlet of the pump and an outlet ; a lubrication filter having an inlet in fluid communication with the outlet of the cooler and an outlet ; a first delivery path in fluid communication with the outlet of the lubrication filter , the first delivery path being configured to deliver cooled, filtered lubricant to a bearing system of an engine; and a second delivery path configured to deliver lubricant to piston cooling nozzles of the engine: - wherein the second delivery path is in fluid communication with the outlet of the pump , and configured to deliver uncooled, unfiltered lubricant to the piston cooling nozzles of the engine; wherein the pump draws an amount of lubricant from the lubrication source and the cooled, filtered lubricant delivered to the bearing system of the engine constitutes about 50% of the amount of lubricant drawn from the lubrication source . - wherein the second delivery path is in fluid communication with the outlet of the pump , and configured to deliver uncooled, unfiltered lubricant to the piston cooling nozzles of the engine; wherein the pump draws an amount of lubricant from the lubrication source and the cooled, filtered lubricant delivered to the bearing system of the engine constitutes about 50% of the amount of lubricant drawn from the lubrication source .
Installation element mounting system, in particular heating circuit manifold, heat conducting manifold or sanitary manifold mounting system, comprising (a) at least one wall bracket for installation elements having at least one bracket base body which comprises a wall contact surface and at least one receiving region for an installation element ; and (b) at least one installation element , in particular at least one heating circuit manifold, heat conducting manifold or sanitary manifold, having an elongate housing which has a cross-section that is complementary to the receiving region at least in some portions and can be received in form-fit manner in the receiving region of the wall bracket ; wherein the receiving region of the wall bracket has a C-shaped profile which engages in a form-fit manner around a portion of the installation element and prevents the installation element received in the receiving region from being displaced in the direction of its longitudinal axis, characterised in that the receiving region comprises at least one rigid region and at least one movable region , which regions are integrally formed on the bracket base body , wherein the movable region is integrally moulded to the bracket base body via a hinge-like joint element . (a) at least one wall bracket for installation elements having at least one bracket base body which comprises a wall contact surface and at least one receiving region for an installation element ; and (b) at least one installation element , in particular at least one heating circuit manifold, heat conducting manifold or sanitary manifold, having an elongate housing which has a cross-section that is complementary to the receiving region at least in some portions and can be received in form-fit manner in the receiving region of the wall bracket ; wherein the receiving region of the wall bracket has a C-shaped profile which engages in a form-fit manner around a portion of the installation element and prevents the installation element received in the receiving region from being displaced in the direction of its longitudinal axis,
A method (V) for producing a three-dimensional object by layer-wise applying and selectively solidifying a building material in powder form, including the steps: a) applying (Z) a layer of the building material onto a build area in a working plane by means of a recoating device moving in a moving direction (B) across the working plane, b) selectively solidifying (Y) the applied layer of the building material at positions that correspond to a cross-section of the object to be produced, and c) repeating (X) the steps a) and b) until the object is completed, wherein the building material is stored during step a) in a recoating unit (40a-e) arranged at the recoating device within a space between two recoating elements mutually spaced apart from each other in the moving direction of the recoating device, and wherein at least the recoating element, which is the recoating element arranged rearward with respect to the moving direction (B) of the recoating device , includes a roller by means of which the building material is applied to the working plane. a) applying (Z) a layer of the building material onto a build area in a working plane by means of a recoating device moving in a moving direction (B) across the working plane, b) selectively solidifying (Y) the applied layer of the building material at positions that correspond to a cross-section of the object to be produced, and c) repeating (X) the steps a) and b) until the object is completed, wherein the building material is stored during step a) in a recoating unit (40a-e) arranged at the recoating device within a space between two recoating elements mutually spaced apart from each other in the moving direction of the recoating device, and wherein at least the recoating element, which is the recoating element arranged rearward with respect to the moving direction (B) of the recoating device , includes a roller by means of which the building material is applied to the working plane. wherein the building material is stored during step a) in a recoating unit (40a-e) arranged at the recoating device within a space between two recoating elements mutually spaced apart from each other in the moving direction of the recoating device, and wherein at least the recoating element, which is the recoating element arranged rearward with respect to the moving direction (B) of the recoating device , includes a roller by means of which the building material is applied to the working plane.
A liquid chromatography solvent pump comprising: a motor ; a first piston ; a second piston ; a variable output drive system coupling the motor to at least one of the first piston and the second piston , the variable output drive system comprising a gearbox configured to provide a non-equal ratio between an input from the motor and an output delivered to at least one of the first piston and the second piston , wherein the first piston and the second piston are configured to deliver a flow of solvent in a liquid chromatography system . a motor ; a first piston ; a second piston ; a variable output drive system coupling the motor to at least one of the first piston and the second piston , the variable output drive system comprising a gearbox configured to provide a non-equal ratio between an input from the motor and an output delivered to at least one of the first piston and the second piston , wherein the first piston and the second piston are configured to deliver a flow of solvent in a liquid chromatography system .
Method for producing a three-dimensional vehicle door frame inner reinforcement element , said door frame inner reinforcement element comprising at least an inner center pillar part , an inner front pillar part , an inner side rail part joining the inner center pillar part and the inner front pillar part and a roof reinforcement part extending in a direction substantially perpendicular to the inner front pillar part and to the inner side rail part , said method comprising the following steps: - providing at least an inner center pillar blank, an inner front pillar blank, an inner side rail blank, and a roof reinforcement blank made integral with the inner side rail blank, said inner blanks being substantially planar, - assembling by means of welding the inner center pillar blank and the inner front pillar blank to the inner side rail blank in order to form a substantially planar door frame inner reinforcement blank, - hot stamping the door frame inner reinforcement blank to shape the three-dimensional door frame inner reinforcement element , the roof reinforcement part being obtained by hot stamping the roof reinforcement blank. - providing at least an inner center pillar blank, an inner front pillar blank, an inner side rail blank, and a roof reinforcement blank made integral with the inner side rail blank, said inner blanks being substantially planar, - assembling by means of welding the inner center pillar blank and the inner front pillar blank to the inner side rail blank in order to form a substantially planar door frame inner reinforcement blank, - hot stamping the door frame inner reinforcement blank to shape the three-dimensional door frame inner reinforcement element , the roof reinforcement part being obtained by hot stamping the roof reinforcement blank.
Isotropic liquid detergent with a total surfactant concentration of at least 30% by weight based on the total weight of the composition, preferably in the range of 30 to 70 % by weight, more preferably 35 to 60 % by weight, including, based on the total weight of the composition, (A) at least 20% by weight of at least one anionic surfactant A, (B) at least 5% by weight of at least one non-ionic surfactant N with an HLB value according to Griffin ≤12 ; (C) at least 2% by weight of at least one nonionic, amphoteric or zwitterionic surfactant N1, which in the case of a nonionic surfactant has an HLB value according to Griffin > 12 or in the case of an amphoteric or zwitterionic surfactant has an HLB value according to Davies > 5, the weight ratio of N1 to N being ≤1; and (D) at least 1% by weight of at least one polymeric compound P selected from soil release polymers (SRP), colour transfer inhibitors (DTI) and anti-redeposition agents, in particular an SRP and optionally a DTI. (A) at least 20% by weight of at least one anionic surfactant A, (B) at least 5% by weight of at least one non-ionic surfactant N with an HLB value according to Griffin ≤12 ; (C) at least 2% by weight of at least one nonionic, amphoteric or zwitterionic surfactant N1, which in the case of a nonionic surfactant has an HLB value according to Griffin > 12 or in the case of an amphoteric or zwitterionic surfactant has an HLB value according to Davies > 5, the weight ratio of N1 to N being ≤1; and (D) at least 1% by weight of at least one polymeric compound P selected from soil release polymers (SRP), colour transfer inhibitors (DTI) and anti-redeposition agents, in particular an SRP and optionally a DTI.
Medical instrument having an elongate shaft which bears a spatula at a distal end and in a proximal end region has a shaft head on which a laterally projecting handle is arranged, wherein the shaft is rotatable relative to the handle about an axis of rotation parallel to a longitudinal axis of the shaft , wherein the handle is guided relative to the shaft head in a circular arc-shaped groove running transversely with respect to the longitudinal axis of the shaft , wherein the handle is releasably connected to the shaft head , characterized in that at least one stop pin is arranged in order to delimit an angular region of the rotation between the handle and the shaft head , wherein, after removal of the stop pin , the handle in the groove can be moved beyond the region delimited by the stop pin and thus separated from the shaft head .
A device for use in endovascular aortic repair comprising: an expandable outer frame , wherein the outer frame is formed from a metallic material; an expandable inner frame that houses a valve ; wherein the inner frame is a tubular stent formed from a polymeric material; wherein the inner frame is secured to the outer frame by a plurality of stitches; characterized in that : fibers are attached to a proximal section of the outer frame such that, when the inner frame is in an expanded position in which the outer surface of the inner frame is engaged with an inner surface of the outer frame, the outer surface of the inner frame is engaged with the fibers; and the fibers are configured to aid in preventing paravalvular leaks. an expandable outer frame , wherein the outer frame is formed from a metallic material; an expandable inner frame that houses a valve ; wherein the inner frame is a tubular stent formed from a polymeric material; wherein the inner frame is secured to the outer frame by a plurality of stitches; characterized in that : fibers are attached to a proximal section of the outer frame such that, when the inner frame is in an expanded position in which the outer surface of the inner frame is engaged with an inner surface of the outer frame, the outer surface of the inner frame is engaged with the fibers; and the fibers are configured to aid in preventing paravalvular leaks. fibers are attached to a proximal section of the outer frame such that, when the inner frame is in an expanded position in which the outer surface of the inner frame is engaged with an inner surface of the outer frame, the outer surface of the inner frame is engaged with the fibers; and the fibers are configured to aid in preventing paravalvular leaks.
A method for supporting handover by a master node, in a mobile communication system, comprising: transmitting , to a target secondary node, a first configuration request message for adding the target secondary node, the first configuration request message including configuration information identifying a source secondary node; receiving , from the target secondary node, a configuration response message including an address of the target secondary node, wherein the address includes a tunnel endpoint identifier, TEID, and a transport network layer, TNL, address for a data forwarding; and transmitting , to the source secondary node, a second configuration request message including a forwarding address, wherein the second configuration request message includes the address of the target secondary node as the forwarding address in case that a direct data forwarding from the source secondary node to the target secondary node is used. transmitting , to a target secondary node, a first configuration request message for adding the target secondary node, the first configuration request message including configuration information identifying a source secondary node; receiving , from the target secondary node, a configuration response message including an address of the target secondary node, wherein the address includes a tunnel endpoint identifier, TEID, and a transport network layer, TNL, address for a data forwarding; and transmitting , to the source secondary node, a second configuration request message including a forwarding address, wherein the second configuration request message includes the address of the target secondary node as the forwarding address in case that a direct data forwarding from the source secondary node to the target secondary node is used.
An evaporation apparatus for depositing material on a flexible substrate supported by a processing drum , the evaporation apparatus comprising: a first set of evaporation crucibles aligned in a first line along a first direction for generating a cloud of evaporated material to be deposited on the flexible substrate ; and a single gas supply pipe extending in the first direction and being arranged between an evaporation crucible of the first set of evaporation crucibles and the processing drum , wherein the gas supply pipe comprises a plurality of outlets for providing a gas supply directed into the cloud of evaporated material, and wherein a position of the plurality of outlets is adjustable for changing a position of the gas supply directed into the cloud of evaporated material, wherein the position of the gas supply is adjustable by relocating the gas supply pipe within a plane being perpendicular to the first direction relative to an initial position of the gas supply pipe and by rotating the gas supply pipe around a longitudinal axis of the gas supply pipe. a first set of evaporation crucibles aligned in a first line along a first direction for generating a cloud of evaporated material to be deposited on the flexible substrate ; and a single gas supply pipe extending in the first direction and being arranged between an evaporation crucible of the first set of evaporation crucibles and the processing drum , wherein the gas supply pipe comprises a plurality of outlets for providing a gas supply directed into the cloud of evaporated material, and wherein a position of the plurality of outlets is adjustable for changing a position of the gas supply directed into the cloud of evaporated material, wherein the position of the gas supply is adjustable by relocating the gas supply pipe within a plane being perpendicular to the first direction relative to an initial position of the gas supply pipe and by rotating the gas supply pipe around a longitudinal axis of the gas supply pipe.
A communications device comprising a communications unit configured to perform transmission of a signal (SG3) to a first device and one type of intermittent reception of intermittently carrying out a reception operation of receiving a signal (SG2) from a second device , the communications unit being configured to, when a timing to transmit the signal (SG3) to the first device falls within a protection period (T3) defined with respect to a timing to carry out the reception operation, put the transmission of the signal (SG3) to the first device on hold, wherein the protection period (T3) is a period preceding, but ending at, the timing to carry out the reception operation as the one type of intermittent reception. a communications unit configured to perform transmission of a signal (SG3) to a first device and one type of intermittent reception of intermittently carrying out a reception operation of receiving a signal (SG2) from a second device , the communications unit being configured to, when a timing to transmit the signal (SG3) to the first device falls within a protection period (T3) defined with respect to a timing to carry out the reception operation, put the transmission of the signal (SG3) to the first device on hold, wherein the protection period (T3) is a period preceding, but ending at, the timing to carry out the reception operation as the one type of intermittent reception.
A munition (20; 120) comprising: a case ; a blast cone housed by the case ; a grenade aft of the blast cone and housed by the case ; and a main charge housed in the composite case forward of the first attenuator ; characterised in that : the munition (20; 120) further comprises a first attenuator forward of the blast cone and a second attenuator aft of the blast cone and forward of the grenade , wherein the first and second attenuators are formed of a polyurethane foam that is a shock absorbing and/or dissipating material configured to weaken a blast shock from the main charge ; and in that the case is a composite case . a case ; a blast cone housed by the case ; a grenade aft of the blast cone and housed by the case ; and a main charge housed in the composite case forward of the first attenuator ; characterised in that : the munition (20; 120) further comprises a first attenuator forward of the blast cone and a second attenuator aft of the blast cone and forward of the grenade , wherein the first and second attenuators are formed of a polyurethane foam that is a shock absorbing and/or dissipating material configured to weaken a blast shock from the main charge ; and in that the case is a composite case . the munition (20; 120) further comprises a first attenuator forward of the blast cone and a second attenuator aft of the blast cone and forward of the grenade , wherein the first and second attenuators are formed of a polyurethane foam that is a shock absorbing and/or dissipating material configured to weaken a blast shock from the main charge ; and in that the case is a composite case .
Adhesion promoter composition containing a) between 40 and 80 parts by weight of a binder composition comprising i) 20% to 40% by weight based on the binder composition of at least one silane-terminated polyurethane polymer STP obtainable from at least one polyol P, at least one aliphatic polyisocyanate I and at least one organosilane OS1 preferably in the presence of a catalyst K, ii) 4% to 20% by weight based on the binder composition of at least one organosilane OS2 and/or organotitanate OT, iii) 0% to 3% by weight based on the binder composition of at least one drying agent, iv) 40% to 70% by weight based on the binder composition of a solvent L1; b) between 0 and 30 parts by weight of carbon black; c) between 0 and 1 parts by weight of UV marker; d) sufficient of a solvent L2 for a) to d) to sum to 100 parts by weight; wherein the organosilane OS1 comprises a secondary amino group, a mercapto group or a hydroxyl group on the organic radical and preferably comprises two silane groups and the at least one silane-terminated polyurethane polymer STP was produced in the absence of the organosilane OS2 and the at least one polyol P has an average OH functionality of at least 2 and an equivalent weight of not more than 500. a) between 40 and 80 parts by weight of a binder composition comprising i) 20% to 40% by weight based on the binder composition of at least one silane-terminated polyurethane polymer STP obtainable from at least one polyol P, at least one aliphatic polyisocyanate I and at least one organosilane OS1 preferably in the presence of a catalyst K, ii) 4% to 20% by weight based on the binder composition of at least one organosilane OS2 and/or organotitanate OT, iii) 0% to 3% by weight based on the binder composition of at least one drying agent, iv) 40% to 70% by weight based on the binder composition of a solvent L1; i) 20% to 40% by weight based on the binder composition of at least one silane-terminated polyurethane polymer STP obtainable from at least one polyol P, at least one aliphatic polyisocyanate I and at least one organosilane OS1 preferably in the presence of a catalyst K, ii) 4% to 20% by weight based on the binder composition of at least one organosilane OS2 and/or organotitanate OT, iii) 0% to 3% by weight based on the binder composition of at least one drying agent, iv) 40% to 70% by weight based on the binder composition of a solvent L1; b) between 0 and 30 parts by weight of carbon black; c) between 0 and 1 parts by weight of UV marker; d) sufficient of a solvent L2 for a) to d) to sum to 100 parts by weight; the organosilane OS1 comprises a secondary amino group, a mercapto group or a hydroxyl group on the organic radical and preferably comprises two silane groups and the at least one silane-terminated polyurethane polymer STP was produced in the absence of the organosilane OS2 and the at least one polyol P has an average OH functionality of at least 2 and an equivalent weight of not more than 500.