mhurhangee/patent-ind-claim-en huggingface dataset:
A foamed adhesive obtainable by foaming a foamable adhesive composition comprising: (a) from 90 to 99.9 wt% of a hot melt adhesive; and (b) from 0.1 to 10 wt% of a block copolymer containing alternating blocks of rigid and elastomeric segments; and (c) optionally, from 0.05 to 10 wt% of a foam cell promoter wherein the total weight of the foamable adhesive composition adds to 100 wt%, and upon foaming said foamable adhesive composition, the foamed adhesive contains 20 to 80 V/V% foamed gas or air; wherein the hot melt adhesive (a) comprises polymers selected from ethylene-vinyl acetate copolymers, ethylene-acrylate copolymers and polyolefins selected from C2-C20 copolymers and terpolymers and the polymer content in the hot melt adhesive (a) is from 20 to 60 wt%; wherein the block copolymer (b) is an olefin block copolymer having a melt index equal to or greater than 5g/10 min measured in accordance with ASTM D1238 at 190°C and a DSC melting point greater than 100°C, measured by the method defined in the description, and wherein the foam is generated with a gas, a foam cell promoter or a plurality of microspheres. (a) from 90 to 99.9 wt% of a hot melt adhesive; and (b) from 0.1 to 10 wt% of a block copolymer containing alternating blocks of rigid and elastomeric segments; and (c) optionally, from 0.05 to 10 wt% of a foam cell promoter wherein the total weight of the foamable adhesive composition adds to 100 wt%, and upon foaming said foamable adhesive composition, the foamed adhesive contains 20 to 80 V/V% foamed gas or air; wherein the hot melt adhesive (a) comprises polymers selected from ethylene-vinyl acetate copolymers, ethylene-acrylate copolymers and polyolefins selected from C2-C20 copolymers and terpolymers and the polymer content in the hot melt adhesive (a) is from 20 to 60 wt%; wherein the block copolymer (b) is an olefin block copolymer having a melt index equal to or greater than 5g/10 min measured in accordance with ASTM D1238 at 190°C and a DSC melting point greater than 100°C, measured by the method defined in the description, and wherein the foam is generated with a gas, a foam cell promoter or a plurality of microspheres.
An aortic cannula for use in an ex vivo organ care system, the aortic cannula comprising: a cannula body comprising: a fitting adapted to connect to the organ care system, and an aorta interface to contact an aorta; a pivot arm strap operably connected to a pivot mount , wherein the pivot mount allows the pivot arm strap to uniformly contact the aorta to hold the aorta on the aorta interface ; a pivot arm connected to the pivot arm strap and to the pivot mount, the pivot arm comprising a sliding pivot window configured to allow a pivot point of the pivot arm to change, the pivot arm configured such that when the pivot arm is moved toward the cannula body by rotation around the pivot mount, the pivot arm strap moves away from the cannula body ; and a spring configured to apply pressure to the pivot arm strap to hold the aorta on the aorta interface . a cannula body comprising: a fitting adapted to connect to the organ care system, and an aorta interface to contact an aorta; a fitting adapted to connect to the organ care system, and an aorta interface to contact an aorta; a pivot arm strap operably connected to a pivot mount , wherein the pivot mount allows the pivot arm strap to uniformly contact the aorta to hold the aorta on the aorta interface ; a pivot arm connected to the pivot arm strap and to the pivot mount, the pivot arm comprising a sliding pivot window configured to allow a pivot point of the pivot arm to change, the pivot arm configured such that when the pivot arm is moved toward the cannula body by rotation around the pivot mount, the pivot arm strap moves away from the cannula body ; and a spring configured to apply pressure to the pivot arm strap to hold the aorta on the aorta interface .
A system for providing steam flow into the first stage (L4) of a turbine comprising a turbine inlet comprising: • an annular housing having an outer surrounding peripheral wall and a pair of axially spaced side walls , the annular housing defining an internal chamber ; • a main inlet port to the annular housing , the main inlet port in fluid communication with the internal chamber for transmitting steam into the internal chamber ; • a steam outlet from the annular housing and in fluid communication with the internal chamber for passing steam from the internal chamber into the first stage (L4) of the turbine fluidly connected downstream of the turbine inlet, the steam outlet having a center axis ; • a flow diversion port to the annular housing , wherein flow exiting the flow diversion port is directed so a center axis of the flow avoids intersecting the center axis of the steam outlet , and • a fluid supply conduit fluidly connecting the flow diversion port to a fluid supply, whereby fluid is supplied from the fluid supply into the internal chamber , wherein the fluid supply is configured to supply the fluid into the internal chamber at a higher pressure than steam entering the internal chamber from the main inlet port , characterized in that a center axis of a flow entering the internal chamber from the flow diversion port intersects a center axis of a main steam flow entering the internal chamber from the main inlet port . • an annular housing having an outer surrounding peripheral wall and a pair of axially spaced side walls , the annular housing defining an internal chamber ; • a main inlet port to the annular housing , the main inlet port in fluid communication with the internal chamber for transmitting steam into the internal chamber ; • a steam outlet from the annular housing and in fluid communication with the internal chamber for passing steam from the internal chamber into the first stage (L4) of the turbine fluidly connected downstream of the turbine inlet, the steam outlet having a center axis ; • a flow diversion port to the annular housing , wherein flow exiting the flow diversion port is directed so a center axis of the flow avoids intersecting the center axis of the steam outlet , and • a fluid supply conduit fluidly connecting the flow diversion port to a fluid supply, whereby fluid is supplied from the fluid supply into the internal chamber , wherein the fluid supply is configured to supply the fluid into the internal chamber at a higher pressure than steam entering the internal chamber from the main inlet port ,
A gas turbine engine , comprising an array of airfoils (61; 161; 262; 361) circumferentially distributed about an engine axis (A), each airfoil (61; 161; 262; 361) of the array of airfoils (61; 161; 262; 361) including an airfoil section (65; 165) having pressure and suction sides (P, S) between a leading edge (66; 166; 266; 366) and a trailing edge (68; 168), the airfoil section (65; 165) defining a mean camber line (75; 175; 275; 375) extending between the leading and trailing edges (66, 68; 166, 168; 266; 366) to bisect a thickness of the airfoil section (65; 165), facing pressure and suction sides (P, S) of adjacent airfoils (61; 161; 262; 361) defining a throat , the throat defined as a minimum distance between the facing pressure and suction sides (P, S) at a respective span position, wherein the airfoil section (65; 165) comprises: an external wall (188; 288; 388) and an internal wall (189; 289; 389); a first cavity (184; 284; 384) and a second cavity (186; 286; 386) separated by the internal wall (189; 289; 389), the second cavity (186; 286; 386) bounded by the external wall (188; 288; 388) at the leading edge (66; 166; 266; 366); and a plurality of crossover passages (194; 294; 394) within the internal wall (189; 289; 389) and connecting the first cavity (184; 284; 384) to the second cavity (186; 286; 386), each of the plurality of crossover passages (194; 294; 394) defining a passage axis (PA), and the passage axis (PA) of each of the plurality of crossover passages (194; 294; 394) is arranged at a corresponding passage angle (θ) relative to the mean camber line (75; 175; 275; 375) such that the passage axis (PA) of each of the plurality of crossover passages (194; 294; 394) intersects the external wall (188; 288; 388) at a location between the throat and an aftmost location of the second cavity (186; 286; 386) with respect to the engine axis (A). an external wall (188; 288; 388) and an internal wall (189; 289; 389); a first cavity (184; 284; 384) and a second cavity (186; 286; 386) separated by the internal wall (189; 289; 389), the second cavity (186; 286; 386) bounded by the external wall (188; 288; 388) at the leading edge (66; 166; 266; 366); and a plurality of crossover passages (194; 294; 394) within the internal wall (189; 289; 389) and connecting the first cavity (184; 284; 384) to the second cavity (186; 286; 386), each of the plurality of crossover passages (194; 294; 394) defining a passage axis (PA), and the passage axis (PA) of each of the plurality of crossover passages (194; 294; 394) is arranged at a corresponding passage angle (θ) relative to the mean camber line (75; 175; 275; 375) such that the passage axis (PA) of each of the plurality of crossover passages (194; 294; 394) intersects the external wall (188; 288; 388) at a location between the throat and an aftmost location of the second cavity (186; 286; 386) with respect to the engine axis (A).
High-performance plug connector for receiving at least one electrical cable , having an at least one-piece housing , an at least one-piece insulating body for receiving an electrical contact element , which is brought into electrically conductive connection with the cable , and a contact holder for fixing the contact element in the insulating body , wherein the contact holder has an at least basically hollow cylindrical base body , on which at least two contact arms are arranged, and wherein the distance of the contact arms from the longitudinal axis, starting from the base body , decreases in the insertion direction characterized in that the high-performance plug connector has a cable fixing for fixing the cable to the housing and that the contact holder is connected to the housing in a tool-free and reversible manner. the contact holder has an at least basically hollow cylindrical base body , on which at least two contact arms are arranged, and wherein the distance of the contact arms from the longitudinal axis, starting from the base body , decreases in the insertion direction characterized in that the high-performance plug connector has a cable fixing for fixing the cable to the housing and that the contact holder is connected to the housing in a tool-free and reversible manner.
A vehicle comprising: a body ; at least one propulsion system including an electric component, wherein the electric component is a motor operable to drive the propulsion system ; a strut extending between the body and the at least one propulsion system ; and a cooling system operably coupled to the electric component of the at least one propulsion system , wherein a portion of the cooling system is arranged within the strut , wherein the cooling system includes a cooling fluid, characterized in that heat is removed from the cooling fluid within the portion of the cooling system by a secondary fluid and wherein the cooling fluid is in a heat exchange relationship with the secondary fluid, and wherein a flow of the secondary fluid is delivered, in use, to an interior of the strut. a body ; at least one propulsion system including an electric component, wherein the electric component is a motor operable to drive the propulsion system ; a strut extending between the body and the at least one propulsion system ; and a cooling system operably coupled to the electric component of the at least one propulsion system , wherein a portion of the cooling system is arranged within the strut , wherein the cooling system includes a cooling fluid, characterized in that heat is removed from the cooling fluid within the portion of the cooling system by a secondary fluid and wherein the cooling fluid is in a heat exchange relationship with the secondary fluid, and wherein a flow of the secondary fluid is delivered, in use, to an interior of the strut.
A coated optical fiber comprising: a first coated optical fiber segment comprising a first fiber segment and at least one coating disposed on the first fiber segment , wherein at least one coating has been removed from an end portion of the first fiber segment ; a second coated optical fiber segment comprising a second fiber segment and at least one coating disposed on the second fiber segment , wherein at least one coating has been removed from an end portion of the second fiber segment , and wherein the end portion of the first fiber segment and the end portion of the second fiber segment abut one another end-to-end; and a splice-junction coating that encapsulates the end portion of the first fiber segment and the end portion of the second fiber segment and contacts the at least one coating of the first coated optical fiber segment and the at least one coating of the second coated optical fiber segment, wherein the splice-junction coating is a cured polymer product of a precursor composition, the precursor composition comprising: from 0 wt% to 1 wt% of total oligomers; at least 90 wt% of total monomers; and from 2 wt% to 10 wt% of an N-vinyl amide monomer, wherein a Young's modulus of the cured polymer product is greater than or equal to 2000 MPa, and wherein the Young's modulus of the cured polymer product is at least 100 MPa greater than the Young's modulus of the at least one coating of the first coated optical fiber segment and the Young's modulus of the at least one coating of the second coated optical fiber segment. a first coated optical fiber segment comprising a first fiber segment and at least one coating disposed on the first fiber segment , wherein at least one coating has been removed from an end portion of the first fiber segment ; a second coated optical fiber segment comprising a second fiber segment and at least one coating disposed on the second fiber segment , wherein at least one coating has been removed from an end portion of the second fiber segment , and wherein the end portion of the first fiber segment and the end portion of the second fiber segment abut one another end-to-end; and a splice-junction coating that encapsulates the end portion of the first fiber segment and the end portion of the second fiber segment and contacts the at least one coating of the first coated optical fiber segment and the at least one coating of the second coated optical fiber segment, wherein the splice-junction coating is a cured polymer product of a precursor composition, the precursor composition comprising: from 0 wt% to 1 wt% of total oligomers; at least 90 wt% of total monomers; and from 2 wt% to 10 wt% of an N-vinyl amide monomer, from 0 wt% to 1 wt% of total oligomers; at least 90 wt% of total monomers; and from 2 wt% to 10 wt% of an N-vinyl amide monomer, wherein a Young's modulus of the cured polymer product is greater than or equal to 2000 MPa, and wherein the Young's modulus of the cured polymer product is at least 100 MPa greater than the Young's modulus of the at least one coating of the first coated optical fiber segment and the Young's modulus of the at least one coating of the second coated optical fiber segment.
A furniture lubricant for coating a lacquered furniture slide bar to provide a slide layer with lowered friction for a least one plastic furniture sliding member , the interface between the slide layer of the furniture slide bar and the sliding member forming a linear plain bearing to allow for movement of the sliding member along the furniture slide bar , wherein the furniture lubricant comprises at least one C10 to C28 alkane and a mixture of at least two different tri-glycerides, the viscosity, according to ISO 3104:1994/Cor 1:1997, of the furniture lubricant at 40°C being 20 to 80 mm 2 /s, wherein the furniture lubricant comprises at least 50 wt.% of a C10 to C28 alkane or a mixture of C10 to C28 alkanes, and 1 to 50 wt.% of a mixture of tri-glycerides.
A guidance control method for driver installation, wherein the driver is used by a terminal to convert job data provided by an application into data and instructions recognizable by an image forming device, the guidance control method executable on said terminal or on a guidance control device, the guidance control method comprising: obtaining a detection result of whether said terminal is equipped with a Bluetooth module; and according to the detection result, determining a driver installation user interface to be displayed; characterized in that when the detection result indicates that the terminal is equipped with the Bluetooth module and the Bluetooth module is not turned on, and the method further comprises: displaying on the driver installation user interface a prompt to alert the user to turn on the Bluetooth module, wherein when the detection result indicates that the terminal is equipped with the Bluetooth module and the Bluetooth module is turned on, the method further comprises: displaying on the driver installation user interface a list of image forming devices, and image forming devices as displayed in the list are each equipped with the Bluetooth module, said list from which an image forming device is selected by the user for driver installation. obtaining a detection result of whether said terminal is equipped with a Bluetooth module; and according to the detection result, determining a driver installation user interface to be displayed; when the detection result indicates that the terminal is equipped with the Bluetooth module and the Bluetooth module is not turned on, and the method further comprises: displaying on the driver installation user interface a prompt to alert the user to turn on the Bluetooth module, wherein when the detection result indicates that the terminal is equipped with the Bluetooth module and the Bluetooth module is turned on, the method further comprises: displaying on the driver installation user interface a list of image forming devices, and image forming devices as displayed in the list are each equipped with the Bluetooth module, said list from which an image forming device is selected by the user for driver installation.
Method performed by at least one control plane node of controlling a communication mode of a mobile terminal in a mobile service chaining network comprising a group of devices to which data packets are forwarded according to which service chain the packets need to traverse and where the corresponding devices are located, based on data packet headers, the method comprising: initiating setting of the mobile terminal in idle mode; and submitting (S204) an instruction to at least one Internet Protocol Advertisement Point , IAP, comprised in the mobile service chaining network for enabling the facilitating of a network without a mobility anchor point by advertising a range of Internet Protocol, IP, addresses/prefixes towards an IP network to which a number of peer devices may be connected, the at least one IAP serving the mobile terminal , invalidate context for the mobile terminal held by the at least one IAP , wherein the at least one IAP invalidates at least a registered Internet Protocol, IP, address used for the mobile terminal . initiating setting of the mobile terminal in idle mode; and submitting (S204) an instruction to at least one Internet Protocol Advertisement Point , IAP, comprised in the mobile service chaining network for enabling the facilitating of a network without a mobility anchor point by advertising a range of Internet Protocol, IP, addresses/prefixes towards an IP network to which a number of peer devices may be connected, the at least one IAP serving the mobile terminal , invalidate context for the mobile terminal held by the at least one IAP , wherein the at least one IAP invalidates at least a registered Internet Protocol, IP, address used for the mobile terminal .
A tolerance compensation device for bridging a distance between two components to be connected to one another, comprising a base element and a compensating element which can be screwed into the base element , wherein: the base element forms at least one stop , the compensating element has at least one elastically deformable transport securing means which is designed in such a way that it must overcome the stop with temporary deformation in order to screw the compensating element into the base element , the compensating element forms a radially projecting collar and a plastic ring is attached to the collar in a rotationally fixed manner, which ring forms the at least one elastically deformable transport securing means . the base element forms at least one stop , the compensating element has at least one elastically deformable transport securing means which is designed in such a way that it must overcome the stop with temporary deformation in order to screw the compensating element into the base element , the compensating element forms a radially projecting collar and a plastic ring is attached to the collar in a rotationally fixed manner, which ring forms the at least one elastically deformable transport securing means .
A hexagonal boron nitride powder whose maximum absorption peak within the range of 3,100 to 3,800 cm -1 is existent at 3,530 to 3,590 cm -1 in the diffuse reflectance fourier transform infrared spectrum.