mhurhangee/patent-ind-claim-en huggingface dataset:
Process for producing an electrically conductive, crosslinkable silicone elastomer composition containing: - 0.5% to 3.0% by weight of conductivity carbon black, - 0.1% to 3.0% by weight of multiwalled carbon nanotubes (MWCNTs), - no solvent, with the proviso that a) if the silicone elastomer composition is formulated as a one-component system all components are mixed in one or more steps and subsequently a pressure filtration through a metal fabric having a mesh size of at most 200 μm is carried out or that b) if the silicone elastomer composition is formulated as a two-component system in each case only the components of the A or the B composition are mixed in one or more steps and subsequently in each case a pressure filtration of the A or the B composition through a metal fabric having a mesh size of at most 200 μm is carried out. - 0.5% to 3.0% by weight of conductivity carbon black, - 0.1% to 3.0% by weight of multiwalled carbon nanotubes (MWCNTs), - no solvent, a) if the silicone elastomer composition is formulated as a one-component system all components are mixed in one or more steps and subsequently a pressure filtration through a metal fabric having a mesh size of at most 200 μm is carried out or that b) if the silicone elastomer composition is formulated as a two-component system in each case only the components of the A or the B composition are mixed in one or more steps and subsequently in each case a pressure filtration of the A or the B composition through a metal fabric having a mesh size of at most 200 μm is carried out.
A method for the manufacture of a colored laminated glazing comprising at least two glass sheets connected together by a thermoplastic interlayer characterized in that it comprises the following stages: - liquid deposition on a first glass sheet of a polymeric layer comprising a coloring agent and polymeric compounds, the polymeric layer being obtained from a liquid composition comprising at least one aliphatic urethane/acrylate oligomer, at least one mono-, bi- or trifunctional (meth)acrylate monomer, at least one polymerization initiator and at least one coloring agent, - drying and optionally curing of the polymeric layer, - assembling of the glass sheet coated with the colored polymeric layer with a colorless transparent thermoplastic interlayer, and with the second glass sheet, so that the colored polymeric layer is in direct contact with said interlayer, - degassing during which the air trapped between the glass sheets and the thermoplastic interlayer is removed, and - heat treatment under pressure and/or under vacuum of the laminated glass at a temperature of between 60 and 200°c, during which the coloring agent present in the polymeric layer migrates toward the thermoplastic interlayer and during which the laminated glazing is assembled. - liquid deposition on a first glass sheet of a polymeric layer comprising a coloring agent and polymeric compounds, the polymeric layer being obtained from a liquid composition comprising at least one aliphatic urethane/acrylate oligomer, at least one mono-, bi- or trifunctional (meth)acrylate monomer, at least one polymerization initiator and at least one coloring agent, - drying and optionally curing of the polymeric layer, - assembling of the glass sheet coated with the colored polymeric layer with a colorless transparent thermoplastic interlayer, and with the second glass sheet, so that the colored polymeric layer is in direct contact with said interlayer, - degassing during which the air trapped between the glass sheets and the thermoplastic interlayer is removed, and - heat treatment under pressure and/or under vacuum of the laminated glass at a temperature of between 60 and 200°c, during which the coloring agent present in the polymeric layer migrates toward the thermoplastic interlayer and during which the laminated glazing is assembled.
A glass core comprising : a glass plate ; a first metal layer provided on the glass plate ; a first electrolytic copper plating layer provided on the first metal layer ; a dielectric layer provided above the first electrolytic copper plating layer on the glass plate ; a second metal layer provided on the dielectric layer ; characterised by an electroless nickel plating layer provided on the second metal layer and having a phosphorus content of less than 5 mass%; and a second electrolytic copper plating layer provided on the electroless nickel plating layer . a glass plate ; a first metal layer provided on the glass plate ; a first electrolytic copper plating layer provided on the first metal layer ; a dielectric layer provided above the first electrolytic copper plating layer on the glass plate ; a second metal layer provided on the dielectric layer ; characterised by an electroless nickel plating layer provided on the second metal layer and having a phosphorus content of less than 5 mass%; and a second electrolytic copper plating layer provided on the electroless nickel plating layer .
A pharmaceutical composition for use in a method of promoting nerve injury restoration, wherein each unit of the pharmaceutical composition comprises: 0.5 to 8 g of L-ornithine, 1 to 5 g of aspartic acid, 3 to 10 g of arginine, 3 to 10 g of vitamin B 6 , with the rest being an excipient and/or other ingredients.
A method comprising: a user equipment, UE , receiving configuration information to allow hybrid automatic repeat request, HARQ, process sharing across multiple radio link types; the UE receiving a first downlink control information, DCI, for scheduling a first transmission of a transport block, TB, in a first physical resource associated with a first radio link, the first DCI comprising a first HARQ process ID; the UE receiving a second DCI for scheduling a retransmission of at least a portion of the TB in a second physical resource associated with a second radio link, the second DCI comprising a second HARQ process ID; communicating, by the UE , with a first access node , in the first physical resource associated with the first radio link, the first transmission with the first HARQ process ID and, communicating, by the UE , with a second access node in the second physical resource associated with the second radio link, the second transmission with the second HARQ process ID; wherein the first HARQ process ID and the second HARQ process ID map to a shared HARQ process, wherein the first radio link is a non-terrestrial network, NTN, radio link and the first access node is a NTN access node or an integrated access backhaul, IAB, NTN node, and wherein the second radio link is a terrestrial network, TN, radio link and the second access node is a TN access node or an IAB TN node. a user equipment, UE , receiving configuration information to allow hybrid automatic repeat request, HARQ, process sharing across multiple radio link types; the UE receiving a first downlink control information, DCI, for scheduling a first transmission of a transport block, TB, in a first physical resource associated with a first radio link, the first DCI comprising a first HARQ process ID; the UE receiving a second DCI for scheduling a retransmission of at least a portion of the TB in a second physical resource associated with a second radio link, the second DCI comprising a second HARQ process ID; communicating, by the UE , with a first access node , in the first physical resource associated with the first radio link, the first transmission with the first HARQ process ID and, communicating, by the UE , with a second access node in the second physical resource associated with the second radio link, the second transmission with the second HARQ process ID; wherein the first HARQ process ID and the second HARQ process ID map to a shared HARQ process, wherein the first radio link is a non-terrestrial network, NTN, radio link and the first access node is a NTN access node or an integrated access backhaul, IAB, NTN node, and
A saddle riding vehicle, comprising: an engine that includes a cylinder portion including a cylinder and a cylinder head , a cooling structure that cools the engine by cooling water, the cylinder portion having a cylinder axis extending in a vehicle fore-aft direction in a side view; an exhaust pipe connected with the cylinder portion ; and a catalyst unit included in the exhaust pipe , wherein the catalyst unit is disposed inferior to the cylinder portion , wherein the cylinder portion includes a coolant inlet portion that is formed in a lower surface of the cylinder portion and that serves as an inlet for coolant of the cooling structure to enter the cylinder portion , wherein the coolant inlet portion is disposed in the lower surface of the cylinder head , and the cylinder portion includes a coolant outlet portion that is disposed in an upper surface of the cylinder portion and that assumes an outlet for the coolant to flow out of the cylinder portion , and the catalyst unit is disposed offset in the vehicle fore-aft direction with respect to the coolant inlet portion , and the catalyst unit is disposed so as to have a longitudinal direction thereof oriented in a vehicle width direction and, in a plan view, to overlap the cylinder . an engine that includes a cylinder portion including a cylinder and a cylinder head , a cooling structure that cools the engine by cooling water, the cylinder portion having a cylinder axis extending in a vehicle fore-aft direction in a side view; an exhaust pipe connected with the cylinder portion ; and a catalyst unit included in the exhaust pipe , wherein the catalyst unit is disposed inferior to the cylinder portion , wherein the cylinder portion includes a coolant inlet portion that is formed in a lower surface of the cylinder portion and that serves as an inlet for coolant of the cooling structure to enter the cylinder portion , wherein the coolant inlet portion is disposed in the lower surface of the cylinder head , and the cylinder portion includes a coolant outlet portion that is disposed in an upper surface of the cylinder portion and that assumes an outlet for the coolant to flow out of the cylinder portion , and the catalyst unit is disposed offset in the vehicle fore-aft direction with respect to the coolant inlet portion , and the catalyst unit is disposed so as to have a longitudinal direction thereof oriented in a vehicle width direction and, in a plan view, to overlap the cylinder .
A method of manufacturing an article of footwear comprising: cutting a plurality of sipes into an outer surface of a pre-formed, foamed thermoplastic sole structure , the sole structure including an inner surface opposite the outer surface ; applying an adhesive to the inner surface of the pre-formed sole structure ; heating the cut pre-formed sole structure ; positioning the heated, cut pre-formed sole adjacent to a ground-facing surface of a lasted upper ; thermoforming the pre-formed sole structure against the lasted upper such that the adhesive is drawn into contact with the ground-facing surface of the upper and at least a portion of the pre-formed sole structure bends into contact with a sidewall of the upper ; the method further comprising: molding the pre-formed sole structure through at least one of a compression molding or an injection molding process; wherein molding the pre-formed sole structure comprises molding a first material in an abutting relationship with a second material ; wherein the first material forms the inner surface and the second material forms the outer surface ; and wherein cutting the plurality of sipes into the outer surface of the pre-formed sole structure comprises cutting to a depth that extends through the second material and into the first material . cutting a plurality of sipes into an outer surface of a pre-formed, foamed thermoplastic sole structure , the sole structure including an inner surface opposite the outer surface ; applying an adhesive to the inner surface of the pre-formed sole structure ; heating the cut pre-formed sole structure ; positioning the heated, cut pre-formed sole adjacent to a ground-facing surface of a lasted upper ; thermoforming the pre-formed sole structure against the lasted upper such that the adhesive is drawn into contact with the ground-facing surface of the upper and at least a portion of the pre-formed sole structure bends into contact with a sidewall of the upper ; the method further comprising: molding the pre-formed sole structure through at least one of a compression molding or an injection molding process; wherein molding the pre-formed sole structure comprises molding a first material in an abutting relationship with a second material ; wherein the first material forms the inner surface and the second material forms the outer surface ; and wherein cutting the plurality of sipes into the outer surface of the pre-formed sole structure comprises cutting to a depth that extends through the second material and into the first material . molding the pre-formed sole structure through at least one of a compression molding or an injection molding process; wherein molding the pre-formed sole structure comprises molding a first material in an abutting relationship with a second material ; wherein the first material forms the inner surface and the second material forms the outer surface ; and wherein cutting the plurality of sipes into the outer surface of the pre-formed sole structure comprises cutting to a depth that extends through the second material and into the first material .
A processing method of direct communication, performed by a relay terminal and comprising: receiving a direct communication request message sent by a remote terminal, wherein the direct communication request message comprises: a flow identification of a first QoS flow requested to be established and a QoS parameter of the first QoS flow; the first QoS flow is a QoS flow on a direct communication interface between the remote terminal and the relay terminal; and sending a direct communication response message to the remote terminal, wherein the direct communication response message is configured to indicate that an establishment of the first QoS flow is finished; wherein the direct communication request message further comprises: a relay service code supported by the relay terminal; characterized in that prior to the sending the direct communication response message to the remote terminal, the method further comprises: in a case that a PDU session corresponding to the relay service code supported by the relay terminal is not established on a Uu interface, establishing the PDU session corresponding to the relay service code supported by the relay terminal on the Uu interface, and establishing a third QoS flow meeting the QoS parameter of the first QoS flow on the established PDU session. receiving a direct communication request message sent by a remote terminal, wherein the direct communication request message comprises: a flow identification of a first QoS flow requested to be established and a QoS parameter of the first QoS flow; the first QoS flow is a QoS flow on a direct communication interface between the remote terminal and the relay terminal; and sending a direct communication response message to the remote terminal, wherein the direct communication response message is configured to indicate that an establishment of the first QoS flow is finished; wherein the direct communication request message further comprises: a relay service code supported by the relay terminal; characterized in that prior to the sending the direct communication response message to the remote terminal, the method further comprises: in a case that a PDU session corresponding to the relay service code supported by the relay terminal is not established on a Uu interface, establishing the PDU session corresponding to the relay service code supported by the relay terminal on the Uu interface, and establishing a third QoS flow meeting the QoS parameter of the first QoS flow on the established PDU session. a relay service code supported by the relay terminal; characterized in that prior to the sending the direct communication response message to the remote terminal, the method further comprises: in a case that a PDU session corresponding to the relay service code supported by the relay terminal is not established on a Uu interface, establishing the PDU session corresponding to the relay service code supported by the relay terminal on the Uu interface, and establishing a third QoS flow meeting the QoS parameter of the first QoS flow on the established PDU session.
A solid electrolyte-cathode assembly for a secondary battery comprising: a plurality of cathode layers spaced apart from each other in a first direction (X); and an electrolyte layer comprising an amorphous solid electrolyte , and a crystalline solid electrolyte comprising a plurality of crystalline solid electrolyte particles , wherein the amorphous solid electrolyte is on a surface of a cathode layer of the plurality of cathode layers and the crystalline solid electrolyte is within the amorphous solid electrolyte, and characterized in that a ratio of an average particle size of the plurality of crystalline solid electrolyte particles to a thickness of the electrolyte layer measured in the first direction is 0.15:1 to 0.25:1. a plurality of cathode layers spaced apart from each other in a first direction (X); and an electrolyte layer comprising an amorphous solid electrolyte , and a crystalline solid electrolyte comprising a plurality of crystalline solid electrolyte particles , wherein the amorphous solid electrolyte is on a surface of a cathode layer of the plurality of cathode layers and the crystalline solid electrolyte is within the amorphous solid electrolyte, and characterized in that a ratio of an average particle size of the plurality of crystalline solid electrolyte particles to a thickness of the electrolyte layer measured in the first direction is 0.15:1 to 0.25:1. an amorphous solid electrolyte , and a crystalline solid electrolyte comprising a plurality of crystalline solid electrolyte particles , wherein the amorphous solid electrolyte is on a surface of a cathode layer of the plurality of cathode layers and the crystalline solid electrolyte is within the amorphous solid electrolyte, and characterized in that a ratio of an average particle size of the plurality of crystalline solid electrolyte particles to a thickness of the electrolyte layer measured in the first direction is 0.15:1 to 0.25:1.
Application method for applying a sealing agent to the inner surface of a pneumatic tyre ; the method of application comprises the steps of: rotating, by means of a support device , the pneumatic tyre about an axis of rotation; applying a layer of sealing agent to the inner surface of the pneumatic tyre by means of a dispensing head arranged within the pneumatic tyre itself; pressing, by means of a pressure roller , the layer of just applied sealing agent against the inner surface of the pneumatic tyre ; and pushing the pressure roller against the layer of just applied layer of sealing agent by means of an actuator device which generates a force (F) having a desired value (F DES ) ; the method of application is characterized in that it comprises the further steps of: determining, by means of a force sensor , a measured value (F MSR ) of the force (F) generated by the actuator device ; and cyclically varying the force (F) generated by the actuator device as a function of the measured value (F MSR ) of the force (F) . rotating, by means of a support device , the pneumatic tyre about an axis of rotation; applying a layer of sealing agent to the inner surface of the pneumatic tyre by means of a dispensing head arranged within the pneumatic tyre itself; pressing, by means of a pressure roller , the layer of just applied sealing agent against the inner surface of the pneumatic tyre ; and pushing the pressure roller against the layer of just applied layer of sealing agent by means of an actuator device which generates a force (F) having a desired value (F DES ) ; the method of application is characterized in that it comprises the further steps of: determining, by means of a force sensor , a measured value (F MSR ) of the force (F) generated by the actuator device ; and cyclically varying the force (F) generated by the actuator device as a function of the measured value (F MSR ) of the force (F) . determining, by means of a force sensor , a measured value (F MSR ) of the force (F) generated by the actuator device ; and cyclically varying the force (F) generated by the actuator device as a function of the measured value (F MSR ) of the force (F) .
A genetically modified microorganism comprising a heterologous nucleic acid sequence from a prokaryotic organism encoding an accA-accD fused subunit, an accB non-fused subunit, and an accC non-fused subunit wherein molar ratios or ratios for accA:accB:accC:accD are about 1:2:1:1, or comprising a heterologous nucleic acid sequence from a prokaryotic organism encoding an accA-accD fused subunit, an accB non-fused subunit, and an accC non-fused subunit wherein molar ratios or ratios for said accDAfusion:accB:accC are about 1:2:1.
A laundry apparatus comprising: a tub defining a fluid containment envelope ; a drum positioned within the fluid containment envelope of the tub and rotatable relative to the tub about a primary rotation axis , the drum comprising a laundry-receiving portion for receiving one or more articles of laundry ; a control unit ; a motor coupled to the tub, wherein the motor is communicatively coupled to the control unit and operatively coupled to the drum to cause rotation of the drum, wherein the motor is isolated from fluid within the fluid containment envelope; a dynamic balancing assembly communicatively coupled to the control unit, the dynamic balancing assembly comprising one or more counterweight devices configured to be orbited about the primary rotation axis to counteract a load imbalance in the drum; and one or more clocksprings communicatively coupling each of the one or more counterweight devices to the control unit, wherein the dynamic balancing assembly further comprises an orbital balancing passage arranged concentrically around the motor, characterized by the orbital balancing passage comprising: a first orbital chamber defining a passage within which the one or more counterweight devices are moveably positioned; and a clockspring chamber open to the first orbital chamber and housing the one or more clocksprings. a tub defining a fluid containment envelope ; a drum positioned within the fluid containment envelope of the tub and rotatable relative to the tub about a primary rotation axis , the drum comprising a laundry-receiving portion for receiving one or more articles of laundry ; a control unit ; a motor coupled to the tub, wherein the motor is communicatively coupled to the control unit and operatively coupled to the drum to cause rotation of the drum, wherein the motor is isolated from fluid within the fluid containment envelope; a dynamic balancing assembly communicatively coupled to the control unit, the dynamic balancing assembly comprising one or more counterweight devices configured to be orbited about the primary rotation axis to counteract a load imbalance in the drum; and one or more clocksprings communicatively coupling each of the one or more counterweight devices to the control unit, a first orbital chamber defining a passage within which the one or more counterweight devices are moveably positioned; and a clockspring chamber open to the first orbital chamber and housing the one or more clocksprings.