mhurhangee/patent-ind-claim-en huggingface dataset:
A modified silicone resin of Formula (II): wherein: R 6 , R 7 , R 8 , R 9 , R 10 , R 11 , R 12 and R 13 are each independently selected from a group consisting of H, alkyl, alkenyl, alkynyl, and aryl; X is selected from a group consisting of arylene, transition metal, inorganic oxide, and silsesquioxane; t ranges from 1 to 10; y ranges from 1 to 200; and z ranges from 1 to 1,000. R 6 , R 7 , R 8 , R 9 , R 10 , R 11 , R 12 and R 13 are each independently selected from a group consisting of H, alkyl, alkenyl, alkynyl, and aryl; X is selected from a group consisting of arylene, transition metal, inorganic oxide, and silsesquioxane; t ranges from 1 to 10; y ranges from 1 to 200; and z ranges from 1 to 1,000.
A method of wireless communication, comprising: receiving, by a first base station associated with a first cell , communication information of a second cell , wherein the communication information is associated with a transmission, of a second base station associated with the second cell , to an ultra-reliable low latency communication, URLLC, user equipment, UE , located in the second cell ; wherein the communication information is received in at least one particular resource, wherein the at least one particular resource is designated for acknowledgement or negative acknowledgement messages for URLLC traffic; wherein the first base station is configured to monitor the at least one particular resource based at least in part on the second cell being associated with the URLLC UE ; and reducing transmission power of the first base station associated with the first cell , in at least one resource, to reduce interference with the transmission by the second base station to the URLLC UE , wherein the transmission power is reduced for an entire or less than an entire remainder of a slot, subframe, or frame in which the communication information is received. receiving, by a first base station associated with a first cell , communication information of a second cell , wherein the communication information is associated with a transmission, of a second base station associated with the second cell , to an ultra-reliable low latency communication, URLLC, user equipment, UE , located in the second cell ; wherein the communication information is received in at least one particular resource, wherein the at least one particular resource is designated for acknowledgement or negative acknowledgement messages for URLLC traffic; wherein the first base station is configured to monitor the at least one particular resource based at least in part on the second cell being associated with the URLLC UE ; and reducing transmission power of the first base station associated with the first cell , in at least one resource, to reduce interference with the transmission by the second base station to the URLLC UE , wherein the transmission power is reduced for an entire or less than an entire remainder of a slot, subframe, or frame in which the communication information is received.
A medical surface implant for cartilage and/or bone repair at an articulating surface of a joint, comprising a contoured implant body and at least one extending post , where said implant body has: a) an articulating surface configured to face an opposing articulating part of the joint; b) a bone contact surface configured to face the bone structure of a joint, said articulating and bone contact surfaces facing mutually opposite directions; and c) a cartilage contact surface , which is a neighboring surface to the articulating surface and connecting the articulating and the bone contact surfaces, and which is configured to contact the cartilage surrounding the implant body in a joint, wherein said implant body is made of titanium and is formed in a 3D printing process in which titanium, which is a relatively soft and formable material suitable for the 3D printing process, is used for forming the implant body , and neighbouring surfaces of the implant body are coated with different surface coatings having different properties in that the articulating surface of the surface implant is coated with an outer layer coating of wear-resistant material consisting of titanium nitride (TiN), providing a harder and more durable articulating surface than titanium, and said cartilage contact surface is coated with a layer of material having chondrointegration properties for stimulating cartilage to grow into the implant surface, wherein the two separate coatings applied on said two separate and neighbouring surfaces further improves the_adherence of the cartilage contact surface to surrounding cartilage and provides a smoother transition in the transition area between the cartilage contact surface and the articulating surface to achieve a firmer sealing and attachment of the surface implant and further stimulating cartilage to grow into the cartilage contact surface. a) an articulating surface configured to face an opposing articulating part of the joint; b) a bone contact surface configured to face the bone structure of a joint, said articulating and bone contact surfaces facing mutually opposite directions; and c) a cartilage contact surface , which is a neighboring surface to the articulating surface and connecting the articulating and the bone contact surfaces, and which is configured to contact the cartilage surrounding the implant body in a joint,
A method for packaging at least one electronic circuit, the method comprising at least: - a first phase in which said electronic circuit is fixed to a metal support and several layers of organic materials are stacked on said support to form a cavity in which said electronic circuit is enclosed, the lower layer of the stack of several layers of organic material being in contact with said support and the upper layer of this stack covering the cavity, the lower layer and the upper layer being made of rigid thermosetting material, organic layers of the stack of layers of organic materials which are interposed between the lower layer and the upper layer being made of thermoplastic material LCP , said cavity being filled by means of creep of the thermoplastic material LCP and the upper layer being covered with a metal layer ; - a second phase in which said layers of organic materials are pressed onto said support at a melting temperature of the thermoplastic material LCP in order to adhesively bond all the layers together, the layers of thermoplastic material LCP having the objective of contributing to the adhesive bonding of all the layers, the method being characterised in that , in a third phase , a network of metallised holes is produced on the periphery of the stack of said layers, said holes electrically connecting said support and said metal layer in order to form a Faraday cage around the electronic circuit. - a first phase in which said electronic circuit is fixed to a metal support and several layers of organic materials are stacked on said support to form a cavity in which said electronic circuit is enclosed, the lower layer of the stack of several layers of organic material being in contact with said support and the upper layer of this stack covering the cavity, the lower layer and the upper layer being made of rigid thermosetting material, organic layers of the stack of layers of organic materials which are interposed between the lower layer and the upper layer being made of thermoplastic material LCP , said cavity being filled by means of creep of the thermoplastic material LCP and the upper layer being covered with a metal layer ; - a second phase in which said layers of organic materials are pressed onto said support at a melting temperature of the thermoplastic material LCP in order to adhesively bond all the layers together, the layers of thermoplastic material LCP having the objective of contributing to the adhesive bonding of all the layers, the method being characterised in that , in a third phase , a network of metallised holes is produced on the periphery of the stack of said layers, said holes electrically connecting said support and said metal layer in order to form a Faraday cage around the electronic circuit.
Method for producing an air-guiding component for an air-conditioning system of an aircraft, in which: - at least two part-shells (2a,b) of the component are provided, wherein at least one of the part-shells (2a,b) has a joining face (16a,b) at which it is to be connected to another of the part-shells (2a,b), and the part-shells (2a,b) contain particle foam at least at the joining faces (16a,b), - at least one portion of one of the joining faces (16a,b) is contactlessly heated, - the part-shells (2a,b) are placed against one another at the heated joining faces (16a,b) and thereby connected to one another to form the component , characterized in that the portion is contactlessly heated as part of a contactless contour welding operation by means of a heating element spaced apart via an air gap , the heating element used is a passive heating element which is heated by an active heat source , the active heat source used is a heating table which bears a heating element at least on one side. - at least two part-shells (2a,b) of the component are provided, wherein at least one of the part-shells (2a,b) has a joining face (16a,b) at which it is to be connected to another of the part-shells (2a,b), and the part-shells (2a,b) contain particle foam at least at the joining faces (16a,b), - at least one portion of one of the joining faces (16a,b) is contactlessly heated, - the part-shells (2a,b) are placed against one another at the heated joining faces (16a,b) and thereby connected to one another to form the component , characterized in that the portion is contactlessly heated as part of a contactless contour welding operation by means of a heating element spaced apart via an air gap , the heating element used is a passive heating element which is heated by an active heat source , the active heat source used is a heating table which bears a heating element at least on one side.
A reactor and its internals for thermal processing of a mixture, said reactor being a cylinder and comprising: a. a rotating indirectly fired kiln rotating around its center axis, said axis being horizontal or slanted; b. heating means comprising at least one heating system external to the walls of the reactor; c. at least one shelf on the reactor wall, one or more shelves being attached to the internal walls of said reactor, the form of the shelves being selected in the group constituted by flat, concave, convex, spiral and slanted, the at least one shelf being either parallel to said center axis of the reactor, when the reactor is horizontal, or slanted with respect to the center axis when the reactor is horizontal, or slanted with respect to the center axis when the reactor is slanted or not slanted; d. a charge of flat metal plates of consistent thickness and shapes so the plates can stay on the shelves and/or each other, while protecting the reactor wall from direct contact with the relatively cold feed; e. means for bringing the mixture to be thermally processed on the surface of at least part of the plates; f. means for removing the fine solids from the reactor, preferably either through entrainment with the exiting vapours, or through a separate solids exit, or both; g. means for recovering the reaction and straight run products and h. means for venting the gas obtained by the thermal processing outside the reactor zone. and wherein the heat coming through the reactor walls heats the plates as they are dragged and lifted against the reactor wall by one or more shelves . a. a rotating indirectly fired kiln rotating around its center axis, said axis being horizontal or slanted; b. heating means comprising at least one heating system external to the walls of the reactor; c. at least one shelf on the reactor wall, one or more shelves being attached to the internal walls of said reactor, the form of the shelves being selected in the group constituted by flat, concave, convex, spiral and slanted, the at least one shelf being either parallel to said center axis of the reactor, when the reactor is horizontal, or slanted with respect to the center axis when the reactor is horizontal, or slanted with respect to the center axis when the reactor is slanted or not slanted; d. a charge of flat metal plates of consistent thickness and shapes so the plates can stay on the shelves and/or each other, while protecting the reactor wall from direct contact with the relatively cold feed; e. means for bringing the mixture to be thermally processed on the surface of at least part of the plates; f. means for removing the fine solids from the reactor, preferably either through entrainment with the exiting vapours, or through a separate solids exit, or both; g. means for recovering the reaction and straight run products and h. means for venting the gas obtained by the thermal processing outside the reactor zone. and wherein the heat coming through the reactor walls heats the plates as they are dragged and lifted against the reactor wall by one or more shelves .
A catalyst composition for use as catalyst system for ethylene oligomerization, said catalyst composition comprising of a zirconium amide compound having a general formula ZrX m .n(RCONR'R"), wherein X is halogen atom; m is an integer having value 4; n is 2; R, R' and R" are saturated or unsaturated aliphatic C 1 -C 10 hydrocarbon or aromatic C 6 -C 14 hydrocarbon, an organoaluminum compound and an additive; wherein the mole ratio of aluminum to zirconium is from 5:1 to 100:1; wherein the mole ratio of the zirconium compound and the additive is from 1:0.1 to 1:10; wherein the additive is selected from ethyl acetate, ethyl acetoacetate, ethyl benzoate, anisole, tetrahydrofuran, 1,2-dioxane, thiophen and mixture thereof. wherein the mole ratio of aluminum to zirconium is from 5:1 to 100:1; wherein the mole ratio of the zirconium compound and the additive is from 1:0.1 to 1:10; wherein the additive is selected from ethyl acetate, ethyl acetoacetate, ethyl benzoate, anisole, tetrahydrofuran, 1,2-dioxane, thiophen and mixture thereof.
A floor support device comprising a foot and a level adjustment screw , said level adjustment screw being adapted to be attached to a floor joist; wherein said foot comprises an upper part arranged to receive said level adjustment screw , said upper part comprising a lower surface , a lower part intended to contact an underlying surface, said lower part comprising an upper surface , and a material sandwiched between said lower surface and said upper surface (11 a), wherein said lower part engages with one of said upper part and said level adjustment screw so as to prevent detachment of said lower surface from said upper surface , while allowing compression of the floor support device , characterized in that said material is a dampening material. wherein said foot comprises an upper part arranged to receive said level adjustment screw , said upper part comprising a lower surface , a lower part intended to contact an underlying surface, said lower part comprising an upper surface , and a material sandwiched between said lower surface and said upper surface (11 a), wherein said lower part engages with one of said upper part and said level adjustment screw so as to prevent detachment of said lower surface from said upper surface , while allowing compression of the floor support device , characterized in that said material is a dampening material.
An attack detection device comprising: an intermediate value acquisition unit configured to acquire respective intermediate values of a plurality of physical quantities during execution of a sensor fusion algorithm that calculates an output by combining the plurality of physical quantities observed by a plurality of sensors of different types, the sensor fusion algorithm calculating the respective intermediate values of the plurality of physical quantities, and changing the output using the respective intermediate values; and a determination unit configured to determine whether there is an attack on at least one sensor of the plurality of sensors by comparing each of the respective intermediate values with an intermediate-value threshold value, which is a threshold value; wherein the respective intermediate values are respective error data of the plurality of physical quantities observed by the plurality of sensors of different types; wherein the device further comprises a similarity calculation unit configured to acquire sensor data of two sensors of the plurality of sensors, and calculate a similarity between two sets of sensor data, wherein the determination unit is adapted to determine whether there is an attack on at least one sensor of the plurality of sensors by comparing a similarity threshold value, which is a threshold value, with the similarity. an intermediate value acquisition unit configured to acquire respective intermediate values of a plurality of physical quantities during execution of a sensor fusion algorithm that calculates an output by combining the plurality of physical quantities observed by a plurality of sensors of different types, the sensor fusion algorithm calculating the respective intermediate values of the plurality of physical quantities, and changing the output using the respective intermediate values; and a determination unit configured to determine whether there is an attack on at least one sensor of the plurality of sensors by comparing each of the respective intermediate values with an intermediate-value threshold value, which is a threshold value; wherein the respective intermediate values are respective error data of the plurality of physical quantities observed by the plurality of sensors of different types; wherein the device further comprises a similarity calculation unit configured to acquire sensor data of two sensors of the plurality of sensors, and calculate a similarity between two sets of sensor data, wherein the determination unit is adapted to determine whether there is an attack on at least one sensor of the plurality of sensors by comparing a similarity threshold value, which is a threshold value, with the similarity.
An ultrasonic brake wear detector (10;50;90), comprising: a housing (12; 52;92); an elongated member (22; 56;104) received by said housing (12; 52;92) and having a first end (26; 66;106) thereof extending from said housing (12; 52;92) and engaging a brake disc stack , and a second end (18; 58) thereof maintained within said housing (12; 52;92); an ultrasonic transducer (28;70;108) received by said housing (12; 52;92) and in operative communication with said first end (26; 66;106) of said elongated member (22;56;104); and characterized in that : a cavity is maintained between said housing and said first end (26; 66;106) of said elongated member(22; 56;104), said cavity being filled with a liquid fluid. a housing (12; 52;92); an elongated member (22; 56;104) received by said housing (12; 52;92) and having a first end (26; 66;106) thereof extending from said housing (12; 52;92) and engaging a brake disc stack , and a second end (18; 58) thereof maintained within said housing (12; 52;92); an ultrasonic transducer (28;70;108) received by said housing (12; 52;92) and in operative communication with said first end (26; 66;106) of said elongated member (22;56;104); and characterized in that : a cavity is maintained between said housing and said first end (26; 66;106) of said elongated member(22; 56;104), said cavity being filled with a liquid fluid.
A method of treating a carbon structure, comprising: infiltrating the carbon structure with a ceramic preparation comprising yttrium oxides and zirconium oxides; densifying the infiltrated carbon structure by chemical vapor infiltration (CVI); and heat treating the infiltrated densified carbon structure at a temperature ranging from 1000°C to 1600°C to form a plurality of ceramic particles in the carbon structure comprising zirconium oxycarbide, zirconium carbide, and at least one of yttrium oxycarbide or yttrium carbide; wherein each ceramic particle of the plurality of ceramic particles comprises a size of less than 500 nanometers. infiltrating the carbon structure with a ceramic preparation comprising yttrium oxides and zirconium oxides; densifying the infiltrated carbon structure by chemical vapor infiltration (CVI); and heat treating the infiltrated densified carbon structure at a temperature ranging from 1000°C to 1600°C to form a plurality of ceramic particles in the carbon structure comprising zirconium oxycarbide, zirconium carbide, and at least one of yttrium oxycarbide or yttrium carbide; wherein each ceramic particle of the plurality of ceramic particles comprises a size of less than 500 nanometers.
An apparatus for stripping gaseous hydrocarbons from particulate material, the apparatus comprising: a structured packing configured for passage of a stripping vapor and particles that contain hydrocarbons in countercurrent contacting flow to remove at least a portion of the hydrocarbons with the stripping vapor to form stripped particles, the structured packing comprising: a first formed strip comprising a sloping element that has a lower channel portion and an inclined sheet portion that extends generally upward from the lower channel portion ; and a reinforcing rod disposed along the lower channel portion and recessed relative to the inclined sheet portion of the sloping element . a first formed strip comprising a sloping element that has a lower channel portion and an inclined sheet portion that extends generally upward from the lower channel portion ; and a reinforcing rod disposed along the lower channel portion and recessed relative to the inclined sheet portion of the sloping element .
Shifting module for the actuation of an automated manual transmission, with at least one shifting actuator which is configured as a hydraulic or pneumatic shifting cylinder and the piston rod of which, in the mounted state, is in an actuating connection in an axially fixed manner to a shifting rod , configured as a hollow shaft, of a transmission-internal shifting apparatus, and with a selector actuator which is configured as a hydraulic or pneumatic selector cylinder and the piston rod of which has a U-shaped receptacle which is oriented transversely with respect to its longitudinal axis and in which, in the mounted state, a pivoting lever engages which is in an actuating connection fixedly to a transmission-internal selector rod for conjoint rotation, characterized in that the pivoting lever is assigned to the shifting module and is fastened fixedly to the piston rod of the shifting cylinder for conjoint rotation, and in that , in the mounted state, the piston rod of the shifting cylinder is connected to the selector rod of the manual transmission in an axially fixed manner and fixedly for conjoint rotation, which selector rod is for its part arranged in the transmission-internal shifting rod in a manner which is mounted axially fixedly and such that it can be rotated about its longitudinal axis.
A method of reducing lost circulation in a severe loss zone of a wellbore, the method comprising: introducing a drilling fluid comprising a liquid carrier, a weighting material and a plurality of additives into the severe loss zone such that the plurality of additives become lodged in at least one fracture that defines the severe loss zone, the plurality of additives comprising spherical-shaped lost circulation materials (LCMs) comprising: a plurality of granular scrap tire particles; and a polymer adhesive that is dispersed between the plurality of granular scrap tire particles and binds the plurality of granular scrap tire particles together. a plurality of granular scrap tire particles; and a polymer adhesive that is dispersed between the plurality of granular scrap tire particles and binds the plurality of granular scrap tire particles together.