mhurhangee/ep-ind-claims huggingface dataset:
A method for transporting DSL backchannel data in a vectored, bonded-line DSL system, wherein the vectored, bonded-line DSL system includes a bonded DSL line group which comprises a plurality of upstream-end DSL devices coupled to a plurality of downstream-end DSL devices, the method comprising: generating, by the plurality of downstream-end DSL devices, backchannel data; encapsulating the backchannel data using Layer 2 encapsulation; packetizing upstream user data into Ethernet packets; combining the Layer 2 encapsulated backchannel data and the packetized upstream user data; processing the upstream combined data using Ethernet bonding processing to generate upstream modem data fragments; transmitting the upstream modem data fragments to upstream-end DSL apparatus; receiving, by the plurality of upstream-end DSL devices, the upstream modem data fragments; processing the upstream modem data fragments using Ethernet bonding processing to generate received upstream combined data; separating the received upstream combined data into the Layer 2 encapsulated backchannel data and the packetized upstream user data; decapsulating the Layer 2 encapsulated backchannel data; and routing the backchannel data to a vectoring control entity. generating, by the plurality of downstream-end DSL devices, backchannel data; encapsulating the backchannel data using Layer 2 encapsulation; packetizing upstream user data into Ethernet packets; combining the Layer 2 encapsulated backchannel data and the packetized upstream user data; processing the upstream combined data using Ethernet bonding processing to generate upstream modem data fragments; transmitting the upstream modem data fragments to upstream-end DSL apparatus; receiving, by the plurality of upstream-end DSL devices, the upstream modem data fragments; processing the upstream modem data fragments using Ethernet bonding processing to generate received upstream combined data; separating the received upstream combined data into the Layer 2 encapsulated backchannel data and the packetized upstream user data; decapsulating the Layer 2 encapsulated backchannel data; and routing the backchannel data to a vectoring control entity.
A method implemented at a policy control node in a wireless communication network, comprising: transmitting Diameter related attribute information to a network repository node during a registration procedure (801, 802) of the policy control node to enable the network repository node to provide the Diameter related attribute information to a session management node during a discovery procedure (803, 804) for the policy control node initiated by the session management node, wherein the Diameter related attribute information comprises an identifier of a diameter host and a diameter realm for the policy control node, wherein the session management node is a Session Management Function, and the Session Management Function is collocated with a Binding Support Function.
An article comprising a ligand functionalized substrate, the ligand functionalized substrate comprising a reaction product of a) a substrate having grafted electrophilic functional groups extending from a surface of the substrate, wherein the electrophilic functional groups are reactive to an amine or imine group and b) a ligand compound: wherein: each R 4 is individually H, alkyl or aryl, each R 6 is individually alkylene or arylene, c is zero or an integer from 1 to 500, and d is zero or 1, with the proviso that when d is zero, then c is 1 to 500; wherein the article further comprises a grafted ionic or hydrophilic group. each R 4 is individually H, alkyl or aryl, each R 6 is individually alkylene or arylene, c is zero or an integer from 1 to 500, and d is zero or 1, with the proviso that when d is zero, then c is 1 to 500; wherein the article further comprises a grafted ionic or hydrophilic group.
An electrochemical device comprising: - a SOEC/SOFC type solid oxide stack operating at high temperature and comprising a plurality of elementary electrochemical cells, each of the elementary electrochemical cells being formed of an electrolyte interposed between two electrodes of different type called respectively anode and cathode; - a clamping system provided with two clamping plates (300, 310) between which the solid oxide stack is clamped, each plate comprising two main faces which are essentially parallel and connected by a contour, one and/or the other of the two clamping plates (300, 310) being provided with at least one gas circulation conduit which allows the circulation of gas from a gas inlet to a gas outlet in order to supply gas or to discharge gases from the solid oxide stack, the circulation conduit being characterised in that it comprises at least one channel, called heat exchange channel, which extends in the volume of the clamping plate according to a plane which is essentially parallel to the main faces of said plate, such that in operation, the heat produced by the stack allows, by radiation and/or by thermal conduction, a heating of the gas circulating in said channel. - a SOEC/SOFC type solid oxide stack operating at high temperature and comprising a plurality of elementary electrochemical cells, each of the elementary electrochemical cells being formed of an electrolyte interposed between two electrodes of different type called respectively anode and cathode; - a clamping system provided with two clamping plates (300, 310) between which the solid oxide stack is clamped, each plate comprising two main faces which are essentially parallel and connected by a contour, one and/or the other of the two clamping plates (300, 310) being provided with at least one gas circulation conduit which allows the circulation of gas from a gas inlet to a gas outlet in order to supply gas or to discharge gases from the solid oxide stack,
An isolated antibody binding to human IL-18R1 and being characterized in comprising as heavy chain variable region CDRs a CDRH1 region of SEQ ID NO: 2 or SEQ ID NO:10, a CDRH2 region of SEQ ID NO:3 and a CDRH3 region of SEQ ID NO:4, and as light chain variable region CDRs a CDRL1 region of SEQ ID NO: 6, a CDRL2 region of SEQ ID NO:7 and a CDRL3 region of SEQ ID NO:8.
A hair bleach or dye composition, which comprises an amino-modified silicone, a highly polymerized silicone having a number-average degree of polymerization of 1000 or greater, a cationic polymer, an oxidizing agent, an alkali agent and optionally other silicones in such a ratio that the reduced amino equivalent expressed by the following equation: Re duced a ⁢ min o equivalent g / m o l = total weight o f a l l t h e silicones i n 1 g o f t h e whole composition g / g / total moles o f a ⁢ min o, i ⁢ min o a n d ammonium groups o f t h e a ⁢ min o − mod ified silicone i n 1 g o f t h e whole composition m o l / g falls within a range of from 1000 to 50000 g/mol, wherein the cationic polymer is selected from cationic cellulose derivatives, cationic starches, cationic guar gum derivatives, polymers or copolymers of a diallyl quaternary ammonium salt, and quaternized polyvinylpyrrolidone derivatives. an amino-modified silicone, a highly polymerized silicone having a number-average degree of polymerization of 1000 or greater, a cationic polymer, an oxidizing agent, an alkali agent and optionally other silicones in such a ratio that the reduced amino equivalent expressed by the following equation: Re duced a ⁢ min o equivalent g / m o l = total weight o f a l l t h e silicones i n 1 g o f t h e whole composition g / g / total moles o f a ⁢ min o, i ⁢ min o a n d ammonium groups o f t h e a ⁢ min o − mod ified silicone i n 1 g o f t h e whole composition m o l / g
A support unit for rolls of a labelling machine for containers, in particular bottles, the support unit comprising a support surface for a roll; a central pin, which projects from the support surface so as to receive the roll; and a locking ring, which is fitted on the central pin so as to axially lock the roll against the support surface; and comprises a sleeve, which is coupled to the central pin in a sliding manner, and at least two coupling blocks, which are mobile, relative to the sleeve, between an extracted operating position, in which the coupling blocks are fastened to the central pin, and a retracted rest position, in which the coupling blocks disengage the central pin itself; the coupling blocks being coupled to the sleeve in a sliding manner so as to move transversely to a longitudinal axis of the central pin between said operating and rest positions; wherein the sleeve has an inner diameter that approximates by excess an outer diameter of the central pin, characterized in that the sleeve has, for each coupling block, a respective limit stop device to stop the coupling block itself in its operating position; and wherein each coupling block substantially has the shape of a cylindrical segment and the sleeve has, for each coupling block, a respective cavity, which is delimited by two lateral sides, which converge towards a longitudinal axis of the central pin so as to define the limit stop device.
Test bench for testing a drive axle for a motor vehicle having at least one drive device, at least one loading device and at least one receptacle device for receiving the drive axle of a motor vehicle, characterised in that the receptacle device has at least one outer unit for connection to the test bench and at least one inner unit enclosed at least in part by the outer unit, wherein the inner unit is translationally fixed relative to the outer unit and is designed to be flexibly rotatable about more than one axis, and wherein the inner unit has a recess suitable for receiving the drive axle.
A method to route data communications based on non-routing criteria, comprising: receiving, by a network element, a data packet; identifying by a routing engine, in a routing table of the network element, a first route according to routing criteria, for routing the data packet; providing an interface to the routing engine for an application running on the network element, the application comprising an application programming interface, API, for gathering data from other network elements; computing, by the application executing on the network element, a routing score for the first route based on one or more non-routing criteria; computing, by the application, a routing score for a second route for routing the data packet based on the one or more non-routing criteria; and upon determining that the routing score for the second route is less than the routing score of the first route, overriding the routing table to cause the network element to route the data packet according to the second route. receiving, by a network element, a data packet; identifying by a routing engine, in a routing table of the network element, a first route according to routing criteria, for routing the data packet; providing an interface to the routing engine for an application running on the network element, the application comprising an application programming interface, API, for gathering data from other network elements; computing, by the application executing on the network element, a routing score for the first route based on one or more non-routing criteria; computing, by the application, a routing score for a second route for routing the data packet based on the one or more non-routing criteria; and upon determining that the routing score for the second route is less than the routing score of the first route, overriding the routing table to cause the network element to route the data packet according to the second route.
A blend consisting essentially of: from 50 to 95 percent by weight polycarbonate; and from 5 to 50 percent by weight modified methyl methacrylate polymer, wherein the modified methyl methacrylate polymer is selected from the group consisting of the modified methyl methacrylate homopolymer, modified methyl methacrylate copolymers, and combinations thereof; wherein the modified methyl methacrylate polymer has one or more end groups provided by reaction with one or more chain transfer agents selected from the group consisting of mercapto esters, and wherein the modified methyl methacrylate polymer has a weight average molecular weight, Mw, determined by gel permeation chromatography as shown in the description, of from 5,000 to 100,000 g/mole; and wherein the blend exhibits a pencil hardness equal to or greater than F measured according to ASTM D3363 - 05. from 50 to 95 percent by weight polycarbonate; and from 5 to 50 percent by weight modified methyl methacrylate polymer, wherein the modified methyl methacrylate polymer is selected from the group consisting of the modified methyl methacrylate homopolymer, modified methyl methacrylate copolymers, and combinations thereof; wherein the modified methyl methacrylate polymer has one or more end groups provided by reaction with one or more chain transfer agents selected from the group consisting of mercapto esters, and wherein the modified methyl methacrylate polymer has a weight average molecular weight, Mw, determined by gel permeation chromatography as shown in the description, of from 5,000 to 100,000 g/mole; and wherein the modified methyl methacrylate polymer is selected from the group consisting of the modified methyl methacrylate homopolymer, modified methyl methacrylate copolymers, and combinations thereof; wherein the modified methyl methacrylate polymer has one or more end groups provided by reaction with one or more chain transfer agents selected from the group consisting of mercapto esters, and wherein the modified methyl methacrylate polymer has a weight average molecular weight, Mw, determined by gel permeation chromatography as shown in the description, of from 5,000 to 100,000 g/mole; and wherein the blend exhibits a pencil hardness equal to or greater than F measured according to ASTM D3363 - 05.
A video and/or image projecting structure comprising: a first transparent layer (21, 41) having a surface on which random irregularities are formed; a reflection layer formed on the surface of the first transparent layer (21, 41); and a second transparent layer (22, 42) formed on the reflection layer, characterized in that an average roughness Ra of the irregularities of the first transparent layer (21, 41) satisfies less than or equal to 1.2 μm and greater than or equal to 0.01 μm, wherein an autocorrelation r of the random irregularities expressed by Equation 7, after obtaining an extreme value when a degree h is changed from 0 to positive or negative, is less than or equal to 0.7, r = ∑ n = 1 N z x n − z m z x n + h − z m ∑ n = 1 N z x n − z m 2 wherein: x n represents the coordinate of a plane parallel to a main plane of the first transparent layer (21, 41); z ( x n) represents the heights of the irregularities of the coordinates x n; z m represents the average value of the height in the measuring range; N represents a positive integer; and n represents integers from 1 to N. a first transparent layer (21, 41) having a surface on which random irregularities are formed; a reflection layer formed on the surface of the first transparent layer (21, 41); and a second transparent layer (22, 42) formed on the reflection layer, characterized in that an average roughness Ra of the irregularities of the first transparent layer (21, 41) satisfies less than or equal to 1.2 μm and greater than or equal to 0.01 μm, wherein an autocorrelation r of the random irregularities expressed by Equation 7, after obtaining an extreme value when a degree h is changed from 0 to positive or negative, is less than or equal to 0.7, r = ∑ n = 1 N z x n − z m z x n + h − z m ∑ n = 1 N z x n − z m 2 wherein: x n represents the coordinate of a plane parallel to a main plane of the first transparent layer (21, 41); z ( x n) represents the heights of the irregularities of the coordinates x n; z m represents the average value of the height in the measuring range; N represents a positive integer; and n represents integers from 1 to N. x n represents the coordinate of a plane parallel to a main plane of the first transparent layer (21, 41); z ( x n) represents the heights of the irregularities of the coordinates x n; z m represents the average value of the height in the measuring range; N represents a positive integer; and n represents integers from 1 to N.
A composition for producing a sheet material with a cellular structure, the composition including the following components: (a) about 5 to about 25 weight% gelatine, (b) about 25 to about 60 weight% filler material, (c) about 15 to about 40 weight% water, and (d) a cellular structure promoting agent, wherein the cellular structure promoting agent is selected from a composition comprising a peroxide group or a persulfate group. (a) about 5 to about 25 weight% gelatine, (b) about 25 to about 60 weight% filler material, (c) about 15 to about 40 weight% water, and (d) a cellular structure promoting agent,
A sanitary cleansing device comprising: a cleansing nozzle configured to discharge cleansing water; a cleansing water flow passage (202, 205) configured to allow the cleansing water from a supply source to flow toward the cleansing nozzle; and a controller, wherein the cleansing water flow passage (202, 205) has: a displacement pump configured to control a flow rate of the cleansing water discharged from the cleansing nozzle, an atmosphere open part disposed at an upstream side of the displacement pump, configured to open a part of the cleansing water flow passage to atmosphere, and having a tank for storing the cleansing water, and a water level sensor for detecting a water level in the tank to output a signal; and a solenoid valve configured to pass and block the cleansing water supplied from the supply source to the atmosphere open part, characterised in that the controller calculates a flow rate of the cleansing water supplied per unit time from the supply source based on the signal of the water level sensor, and corrects control of the displacement pump. a cleansing nozzle configured to discharge cleansing water; a cleansing water flow passage (202, 205) configured to allow the cleansing water from a supply source to flow toward the cleansing nozzle; and a controller, wherein the cleansing water flow passage (202, 205) has: a displacement pump configured to control a flow rate of the cleansing water discharged from the cleansing nozzle, an atmosphere open part disposed at an upstream side of the displacement pump, configured to open a part of the cleansing water flow passage to atmosphere, and having a tank for storing the cleansing water, and a water level sensor for detecting a water level in the tank to output a signal; and a solenoid valve configured to pass and block the cleansing water supplied from the supply source to the atmosphere open part, characterised in that the controller calculates a flow rate of the cleansing water supplied per unit time from the supply source based on the signal of the water level sensor, and corrects control of the displacement pump. a displacement pump configured to control a flow rate of the cleansing water discharged from the cleansing nozzle, an atmosphere open part disposed at an upstream side of the displacement pump, configured to open a part of the cleansing water flow passage to atmosphere, and having a tank for storing the cleansing water, and a water level sensor for detecting a water level in the tank to output a signal; and a solenoid valve configured to pass and block the cleansing water supplied from the supply source to the atmosphere open part, characterised in that the controller calculates a flow rate of the cleansing water supplied per unit time from the supply source based on the signal of the water level sensor, and corrects control of the displacement pump.
Process gas treatment device (5; 22) for treating process gas for an industrial furnace installation (1; 21), comprising a treatment reactor, which comprises, on the one hand, a heatable temperature-controlled catalytic converter to receive the consumed process gas from an industrial furnace (2; 23) via a supply line, as well as, on the other hand, to receive the process gas treated by the catalytic converter and supply it to the industrial furnace (2; 23) via a return line, wherein the treatment reactor is connected upstream of a compressor in the supply line, wherein the treatment reactor is also connected to the supply lines (13, 14), via which hydrocarbons and air may be supplied to the treatment reactor, and wherein a control device is provided to control the process gas treatment and recycling, characterized in that a shut-off valve is also provided in the supply line via which the supply of consumed process gas to the treatment reactor may be interrupted, while a functional state of the catalytic converter may be checked by the control device by means of a pressure difference measurement and a burn-off operation may be initiated in a targeted manner.
A selective hydrogenation catalyst having alumina as carrier and palladium as active component distributed on the surface of the carrier in an egg-shell form, characterized in that based on the total weight of the catalyst, it comprises: 0.2 to 0.5 wt% Pd as active component, 2 to 8 wt% lanthanum and/or cerium as aids, 2 to 8 wt% alkaline earth metal, and 0 to 2.0 wt% Ag and/or K, wherein said catalyst has a shell thickness of 0.07 to 0.15 mm, a specific surface area of 70 to 150 m 2 /g, a pore volume of 0.3 to 0.6 ml/g; and the crystal form of said carrier is θ form or θ,α mixed form mainly composed of θ form. 0.2 to 0.5 wt% Pd as active component, 2 to 8 wt% lanthanum and/or cerium as aids, 2 to 8 wt% alkaline earth metal, and 0 to 2.0 wt% Ag and/or K,
A differential assembly having a pump and a plenum housing body, the plenum housing body comprising: a. a low pressure inlet; b. a high pressure outlet configured to receive a control valve; c. a fluid inlet channel in fluid communication with the low pressure inlet via a first internal port and being configured to be in fluid communication with an inlet side of the pump when the plenum housing body is assembled onto the differential assembly; and d. a fluid outlet channel in fluid communication with the high pressure outlet via a second internal port and being configured to be in fluid communication with an outlet side of the pump when the plenum housing body is assembled onto the differential assembly; characterized in that: the plenum housing body is formed as a net-shape fiber reinforced plastic material including chopped fibers and an epoxy resin. a. a low pressure inlet; b. a high pressure outlet configured to receive a control valve; c. a fluid inlet channel in fluid communication with the low pressure inlet via a first internal port and being configured to be in fluid communication with an inlet side of the pump when the plenum housing body is assembled onto the differential assembly; and d. a fluid outlet channel in fluid communication with the high pressure outlet via a second internal port and being configured to be in fluid communication with an outlet side of the pump when the plenum housing body is assembled onto the differential assembly; characterized in that: the plenum housing body is formed as a net-shape fiber reinforced plastic material including chopped fibers and an epoxy resin.
LCAT in a therapeutically effective amount for use in treating a patient having a condition selected from sickle cell disease, thalassemia, and anaemia of inflammation.