mhurhangee/ep-ind-claims huggingface dataset:
A route attribute update method, wherein the method comprises: receiving (102, 204), by a first network device, a message used for route policy distribution, RPD, from a second network device, wherein the message comprises a route policy, the route policy comprises a match condition field and an action field, the match condition field carries one or more target features, and the action field carries one or more route attributes; obtaining (103, 206), by the first network device, a border gateway protocol, BGP, route; and updating (105, 208), by the first network device, a route attribute of the BGP route based on the one or more route attributes if route information of the BGP route matches the one or more target features, wherein the action field carries one or more of the following route attributes: a community attribute, an extended community attribute, a large community attribute, a next-hop address, a local preference, a peer identifier, and an accumulative interior gateway protocol metric value, characterized in that the action field carries at least the accumulative interior gateway protocol metric value. receiving (102, 204), by a first network device, a message used for route policy distribution, RPD, from a second network device, wherein the message comprises a route policy, the route policy comprises a match condition field and an action field, the match condition field carries one or more target features, and the action field carries one or more route attributes; obtaining (103, 206), by the first network device, a border gateway protocol, BGP, route; and updating (105, 208), by the first network device, a route attribute of the BGP route based on the one or more route attributes if route information of the BGP route matches the one or more target features, wherein the action field carries one or more of the following route attributes: a community attribute, an extended community attribute, a large community attribute, a next-hop address, a local preference, a peer identifier, and an accumulative interior gateway protocol metric value, characterized in that the action field carries at least the accumulative interior gateway protocol metric value. a community attribute, an extended community attribute, a large community attribute, a next-hop address, a local preference, a peer identifier, and an accumulative interior gateway protocol metric value, characterized in that the action field carries at least the accumulative interior gateway protocol metric value.
Heterophasic polypropylene resin comprising a propylene random copolymer matrix phase, and an ethylene-propylene copolymer rubber phase dispersed within the matrix phase wherein the heterophasic polypropylene resin has a MFR (2.16 kg, 230 °C) of 1.0 to 100 g/10min, determined according to ISO 1133, and a fraction soluble in p-xylene at 25°C (XCS fraction) which is present in the resin in an amount of 28 to 50 wt%, and which has a molecular weight distribution (M w/ M n) of 1.0 to 4.0, and which has an amount of ethylene comonomer units of 10 to 25 wt%.
A method performed by a first network node, for transmitting a Radio Link Control, RLC, Unacknowledged Mode, UM, Protocol Data Unit, PDU, to a second network node, which first network node and second network node operate in a third generation partnership project, 3GPP, wireless communications network, which 3GPP wireless communications network provides a first channel and a second channel, the method comprising: when detected that the RLC UM PDU has failed to be transmitted over the first channel, wherein the first channel is represented by an UnLicensed Channel, ULC, deciding to redirect the RLC UM PDU to be transmitted over the second channel, and when RLC UM PDU is too large to be sent in a single transmission over the second channel, wherein the second channel is represented by a Licenced Channel, LC, and dividing the RLC UM PDU into two or more re-segmented RLC UM PDUs, transmitting the two or more re-segmented RLC UM PDUs to the second network node over the second channel,, wherein each re-segmented RLC UM PDU comprises the following indications: (a) that the PDU is re-segmented, (b) an order indicator related to the re-segmented RLC UM PDU, and (c) whether or not the re-segmented RLC UM PDU is a last re-segmented RLC UM PDU out of the two or more re-segmented RLC UM PDUs. when detected that the RLC UM PDU has failed to be transmitted over the first channel, wherein the first channel is represented by an UnLicensed Channel, ULC, deciding to redirect the RLC UM PDU to be transmitted over the second channel, and when RLC UM PDU is too large to be sent in a single transmission over the second channel, wherein the second channel is represented by a Licenced Channel, LC, and dividing the RLC UM PDU into two or more re-segmented RLC UM PDUs, transmitting the two or more re-segmented RLC UM PDUs to the second network node over the second channel,, wherein each re-segmented RLC UM PDU comprises the following indications: (a) that the PDU is re-segmented, (b) an order indicator related to the re-segmented RLC UM PDU, and (c) whether or not the re-segmented RLC UM PDU is a last re-segmented RLC UM PDU out of the two or more re-segmented RLC UM PDUs. (a) that the PDU is re-segmented, (b) an order indicator related to the re-segmented RLC UM PDU, and (c) whether or not the re-segmented RLC UM PDU is a last re-segmented RLC UM PDU out of the two or more re-segmented RLC UM PDUs.
Process for the preparation of a transparent polymer material comprising the following stages: i. mixing: - inorganic nanoparticles, the size of which is defined in the description, chosen from alkaline earth metal carbonate, alkaline earth metal sulfate, metal oxide, silicon dioxide and siloxane nanoparticles, and - a composition A comprising at least one thermoplastic polymer in the molten state chosen from polycarbonate, polystyrene and polymethyl methacrylate (PMMA), in order to obtain a masterbatch, the mixture of stage i comprising at least 25% and at most 75% by weight of the said inorganic nanoparticles, and ii. mixing the masterbatch, obtained in stage i, with a composition B comprising a molten thermoplastic polycarbonate (mPC) matrix, in order to obtain a transparent polymer material comprising at most 10% by weight of the said inorganic nanoparticles, preferably at most 5% by weight of the said inorganic nanoparticles. i. mixing: - inorganic nanoparticles, the size of which is defined in the description, chosen from alkaline earth metal carbonate, alkaline earth metal sulfate, metal oxide, silicon dioxide and siloxane nanoparticles, and - a composition A comprising at least one thermoplastic polymer in the molten state chosen from polycarbonate, polystyrene and polymethyl methacrylate (PMMA), in order to obtain a masterbatch, the mixture of stage i comprising at least 25% and at most 75% by weight of the said inorganic nanoparticles, and - inorganic nanoparticles, the size of which is defined in the description, chosen from alkaline earth metal carbonate, alkaline earth metal sulfate, metal oxide, silicon dioxide and siloxane nanoparticles, and - a composition A comprising at least one thermoplastic polymer in the molten state chosen from polycarbonate, polystyrene and polymethyl methacrylate (PMMA), ii. mixing the masterbatch, obtained in stage i, with a composition B comprising a molten thermoplastic polycarbonate (mPC) matrix, in order to obtain a transparent polymer material comprising at most 10% by weight of the said inorganic nanoparticles, preferably at most 5% by weight of the said inorganic nanoparticles.
A method of fabricating a layer of an electronic product, the method comprising: depositing material onto a substrate using an inkjet printer; transporting the substrate during deposition of the material using a conveyance system comprising a floatation table to support the substrate on a gas bearing, and a gripper to operatively engage the substrate and transport the substrate along a transport path, relative to the floatation table; wherein at least one of the printer or the gripper has a component advanced along the transport path, wherein advancement of the component is characterized by mechanical imperfections that create at least one error of translational error and rotational error affecting deposition of the material on the substrate; and characterised in that the method further comprising the step of driving at least one transducer operatively coupled to the gripper, as a function of said at least one error so as to offset the substrate relative to the advancement of the component, so as to compensate for said mechanical imperfections, wherein each transducer of the at least one transducer is to displace the substrate linearly in a dimension orthogonal to the transport path. depositing material onto a substrate using an inkjet printer; transporting the substrate during deposition of the material using a conveyance system comprising a floatation table to support the substrate on a gas bearing, and a gripper to operatively engage the substrate and transport the substrate along a transport path, relative to the floatation table; wherein at least one of the printer or the gripper has a component advanced along the transport path, wherein advancement of the component is characterized by mechanical imperfections that create at least one error of translational error and rotational error affecting deposition of the material on the substrate; and characterised in that the method further comprising the step of driving at least one transducer operatively coupled to the gripper, as a function of said at least one error so as to offset the substrate relative to the advancement of the component, so as to compensate for said mechanical imperfections, wherein each transducer of the at least one transducer is to displace the substrate linearly in a dimension orthogonal to the transport path.
An apparatus for enhanced percutaneous epidural access for performing spine surgery, the apparatus comprising: a first percutaneous needle having a first lumen, a proximal end and a distal end, wherein the distal end is configured for placement in an epidural space at a first location, the first location being at least one level removed from a target lamina; a second percutaneous needle having a second lumen, a proximal end and a distal end, wherein the distal end of the second percutaneous needle is configured for placement in an epidural space at a second location, the second location being at least one level removed from a target lamina and opposite the first location; characterized by a light seeking tool that is coaxially movable within one of the first and second lumens; and a grasper tool (440, 930) that is coaxially movable within the other one of the first and second lumens and is configured to emit light so as to draw the light seeking tool and temporarily couple the light seeking tool within the epidural space of the target lamina. a first percutaneous needle having a first lumen, a proximal end and a distal end, wherein the distal end is configured for placement in an epidural space at a first location, the first location being at least one level removed from a target lamina; a second percutaneous needle having a second lumen, a proximal end and a distal end, wherein the distal end of the second percutaneous needle is configured for placement in an epidural space at a second location, the second location being at least one level removed from a target lamina and opposite the first location; characterized by a light seeking tool that is coaxially movable within one of the first and second lumens; and a grasper tool (440, 930) that is coaxially movable within the other one of the first and second lumens and is configured to emit light so as to draw the light seeking tool and temporarily couple the light seeking tool within the epidural space of the target lamina.
A handheld carboxy therapy applicator comprising: a heater module configured to receive a flow of gas at a rate between 20 and 150 milliliters per minute from a gas source and to warm gas within the flow of gas; a humidification module in fluid communication with the heater module, the humidification module configured to receive the flow of gas from the heater module and to humidify the gas within the flow of gas; and a hypodermic needle in serial connection with the humidification module, the hypodermic needle configured to receive the flow of gas from the humidification module and to inject the flow of gas into a tissue of a patient. a heater module configured to receive a flow of gas at a rate between 20 and 150 milliliters per minute from a gas source and to warm gas within the flow of gas; a humidification module in fluid communication with the heater module, the humidification module configured to receive the flow of gas from the heater module and to humidify the gas within the flow of gas; and a hypodermic needle in serial connection with the humidification module, the hypodermic needle configured to receive the flow of gas from the humidification module and to inject the flow of gas into a tissue of a patient.
Floor cleaning device having an elongate carrier element to which the end of a handle that is able to be gripped with both hands is attached and which has two parallel grooves (3, 4) extending in the direction of longitudinal extent of the carrier element, wherein a fastening portion of a first cleaning element is inserted and fixed in one of the grooves (3, 4), and wherein a fastening portion of a second cleaning element is inserted and fixed in the other groove, and wherein the first cleaning element and the second cleaning element by a rotation of the floor cleaning device by 180 degrees about the direction of longitudinal extent of the handle are able to be brought in each case individually and successively into contact with a floor to be cleaned, characterized in that the grooves (3, 4) are of identical design.
A method for producing a fiber blended yarn comprising at least a thermoplastic resin fiber and a reinforcing fiber, the method comprising the step of blending the thermoplastic resin fiber and the reinforcing fiber with an interlace method that uses a gas in the presence of water.
Device for holding a shoe on a sliding board comprising a lower seat intended to be securely attached to the board, and into which the shoe can fit, and at least one upper strap able to close the device which is, firstly, coupled with the seat and, secondly, securely attached to a central tab intended to be rest on the said shoe, in a locking position, where the said central tab comprises a lower part including at least one protruding element which is engaged in a corresponding aperture made through an outer part of the central tab characterised by the fact that said protruding element comprises two roughly perpendicular branches, respectively, an intermediate branch and an end branch, where the said end branch extends at some distance and roughly in parallel to the outer part, demarcating a free intermediate space with the outer face of the said outer part, and enabling the said strap to pass through.
A trap system for deployment of a reserve parachute from a container, said reserve parachute secured within a free bag connected by a reserve bridle to a reserve pilot chute, said trap system comprising: a trap line with a first end configured to be coupled to a main parachute; and a trap configured to be attached to a surface of the container, said trap comprising a perimeter (34; 34'; 58") configured to removably hold a second end of the trap line and an interior within the perimeter configured to removably hold a portion of at least one of the free bag, the reserve bridle and the reserve pilot chute, such that the trap line and the portion of at least one of the free bag, the reserve bridle and the reserve pilot chute are decoupled. a trap line with a first end configured to be coupled to a main parachute; and a trap configured to be attached to a surface of the container, said trap comprising a perimeter (34; 34'; 58") configured to removably hold a second end of the trap line and an interior within the perimeter configured to removably hold a portion of at least one of the free bag, the reserve bridle and the reserve pilot chute, such that the trap line and the portion of at least one of the free bag, the reserve bridle and the reserve pilot chute are decoupled.
An agent containing, in a cosmetic carrier, at least one non-ionic emulsifier having an HLB value of less than or equal to 8.0, characterized in that it additionally contains a combination of at least one blue direct dye and one red direct dye, the weight ratio between the sum of all blue direct dyes and the sum of all red direct dyes having a value of greater than or equal to 1, characterized in that the agent contains a compound according to formula and/or one of the physiologically acceptable salts thereof as a blue direct dye, where R1, R2, R3, R4, R5, R6, R7 and R8 represent bromine, and characterized in that the agent contains a compound according to formula and/or one of the physiologically acceptable salts thereof as a red direct dye, where R9, R10, R11 and R12 represent chlorine and R13, R14, R15 and R16 represent bromine, and in that it contains at least one fatty alcohol having 12, 14, 16 or 18 carbon atoms in the alkyl chain as a non-ionic emulsifier having an HLB value of less than or equal to 8.0.
An image projection apparatus in which a projection lens is interchangeable, the image projection apparatus comprising: an acquirer configured to acquire information on the projection lens; and a controller configured to set, based on the information on the projection lens, an image orientation of a projection image. an acquirer configured to acquire information on the projection lens; and a controller configured to set, based on the information on the projection lens, an image orientation of a projection image.
An implantable medical device, comprising: a first electrode node coupleable to a first electrode configured to make electrical contact with a patient's tissue, and a second electrode node coupleable to a second electrode configured to make electrical contact with the patient's tissue, wherein the first electrode node is configured to receive via the first electrode a tissue signal from the patient's tissue; an amplifier (110; 200; 210; 220; 230; 240; 250) with a first input connected to the first electrode node and with a second input connected to the second electrode node, wherein the amplifier (110; 200; 210; 220; 230; 240; 250) produces an amplifier output indicative of the tissue signal; first comparator circuitry (150+) configured to receive the first input and to generate a first output indicating whether the first input meets an input requirement of the amplifier (110; 200; 210; 220; 230; 240; 250); second comparator circuitry (150-) configured to receive the second input and to generate a second output indicating whether the second input meets an input requirement of the amplifier (110; 200; 210; 220; 230; 240; 250); and first logic circuitry configured to receive the first output and the second output and to generate an enable signal, wherein the enable signal indicates whether the amplifier output indicative of the tissue signal is valid or invalid. a first electrode node coupleable to a first electrode configured to make electrical contact with a patient's tissue, and a second electrode node coupleable to a second electrode configured to make electrical contact with the patient's tissue, wherein the first electrode node is configured to receive via the first electrode a tissue signal from the patient's tissue; an amplifier (110; 200; 210; 220; 230; 240; 250) with a first input connected to the first electrode node and with a second input connected to the second electrode node, wherein the amplifier (110; 200; 210; 220; 230; 240; 250) produces an amplifier output indicative of the tissue signal; first comparator circuitry (150+) configured to receive the first input and to generate a first output indicating whether the first input meets an input requirement of the amplifier (110; 200; 210; 220; 230; 240; 250); second comparator circuitry (150-) configured to receive the second input and to generate a second output indicating whether the second input meets an input requirement of the amplifier (110; 200; 210; 220; 230; 240; 250); and first logic circuitry configured to receive the first output and the second output and to generate an enable signal, wherein the enable signal indicates whether the amplifier output indicative of the tissue signal is valid or invalid.
A non-transitory computer-readable data storage medium storing computer-executable code executable by a replaceable item to perform a method characterised in that the method comprises: in response to receiving a request for a particular authentication value of a plurality of authentication values of the replaceable item from a host device to which the replaceable item has been connected, determining whether the replaceable item has already satisfactorily responded to authentication value requests a maximum permitted number of times; in response to determining that the replaceable item has already satisfactorily responded to authentication value requests the maximum permitted number of times, refusing to send the requested authentication value to the host device; and in response to determining that the replaceable item has not yet already satisfactorily responded to authentication value requests the maximum permitted number of times, sending the requested authentication value to the host device, wherein the host device is a printing device, and the replaceable item is a print substance cartridge for the printing device. in response to receiving a request for a particular authentication value of a plurality of authentication values of the replaceable item from a host device to which the replaceable item has been connected, determining whether the replaceable item has already satisfactorily responded to authentication value requests a maximum permitted number of times; in response to determining that the replaceable item has already satisfactorily responded to authentication value requests the maximum permitted number of times, refusing to send the requested authentication value to the host device; and in response to determining that the replaceable item has not yet already satisfactorily responded to authentication value requests the maximum permitted number of times, sending the requested authentication value to the host device, wherein the host device is a printing device, and the replaceable item is a print substance cartridge for the printing device.