mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: receiving , by a network device , a message ; determining , by the network device, that the message includes return information indicating a path to an initial device that generated the message; modifying the message by adding, by the network device to the return information, an upstream device identifier, wherein the upstream device identifier identifies a device from which the message is received; modifying the message by adding, by the network device to the return information, an indication of whether the initial device is reachable by the network device, wherein the initial device is reachable by the network device if the initial device provides the message to the network device using a single segment identifier; providing , by the network device, the modified message to a downstream device; receiving, by the network device, a return message including the return information; and selectively forwarding , by the network device, the return message to the device from which the message is received, or to the initial device, based on the indication of whether the initial device is reachable by the network device. receiving , by a network device , a message ; determining , by the network device, that the message includes return information indicating a path to an initial device that generated the message; modifying the message by adding, by the network device to the return information, an upstream device identifier, wherein the upstream device identifier identifies a device from which the message is received; modifying the message by adding, by the network device to the return information, an indication of whether the initial device is reachable by the network device, wherein the initial device is reachable by the network device if the initial device provides the message to the network device using a single segment identifier; providing , by the network device, the modified message to a downstream device; receiving, by the network device, a return message including the return information; and selectively forwarding , by the network device, the return message to the device from which the message is received, or to the initial device, based on the indication of whether the initial device is reachable by the network device.
A method for the hydrodeoxygenation of an oxygenate feedstock comprising contacting said feedstock with a sulphided catalyst composition under hydrodeoxygenation conditions, under addition of hydrogen sulphide or precursors thereof such that the hydrogen sulphide is present in the hydrogen gas in an amount between 10ppm and 10000 ppm, wherein the oxygenate feedstock comprises triglycerides, wherein said catalyst composition comprises: i) a porous carrier substantially comprised of alumina, said carrier comprising between 0 to 1 wt.% phosphorous and between 0 and 1 wt. % silicon, both calculated as oxides, and having a mean pore diameter in the range from 5 nm to 40 nm; and, ii) from 1 to 20 wt. % of an active metal component, calculated as oxides based on the weight of the composition, borne on said porous carrier and which comprises at least one Group VIB metal and at least one Group VIII metal. i) a porous carrier substantially comprised of alumina, said carrier comprising between 0 to 1 wt.% phosphorous and between 0 and 1 wt. % silicon, both calculated as oxides, and having a mean pore diameter in the range from 5 nm to 40 nm; and, ii) from 1 to 20 wt. % of an active metal component, calculated as oxides based on the weight of the composition, borne on said porous carrier and which comprises at least one Group VIB metal and at least one Group VIII metal.
A method of operation of a network node implementing a second network function in a core network of a cellular communications system , comprising: receiving (508; 608; 700), at a main service of the second network function, a request from a first network function for a desired service via Hypertext Transfer Protocol / Representational State Transfer, HTTP/REST, signaling, the request comprising information that identifies one or more delegate endpoints of the first network function that expose one or more delegate services, respectively, of the first network function for providing the desired service using one or more different communication styles; and initiating (530-532; 616 and 620 or 616 and 634; 702-706) the desired service using a selected delegate endpoint from the one or more delegate endpoints identified by the information comprised in the request. receiving (508; 608; 700), at a main service of the second network function, a request from a first network function for a desired service via Hypertext Transfer Protocol / Representational State Transfer, HTTP/REST, signaling, the request comprising information that identifies one or more delegate endpoints of the first network function that expose one or more delegate services, respectively, of the first network function for providing the desired service using one or more different communication styles; and initiating (530-532; 616 and 620 or 616 and 634; 702-706) the desired service using a selected delegate endpoint from the one or more delegate endpoints identified by the information comprised in the request.
A curable resin composition comprising the following unsaturated urethane oligomer (A) and the monomer (B): unsaturated urethane oligomer (A): an unsaturated urethane oligomer having from 2 to 3 curable functional groups as mentioned below, on average per molecule, which is a reaction product of the following polyol component (A1), a polyisocyanate (A2) and the following unsaturated hydroxy compound (A3), or a reaction product of the following polyol component (A1) and an unsaturated isocyanate (A4) having the following curable functional group, polyol component (A1): a polyol component containing the following polyol (a1), polyol (a1): a polyoxyalkylene polyol having a hydroxy value of from 15 to 30 mgKOH/g and an oxyethylene group content of from 8 to 50 mass% in the total oxyalkylene groups of 100 mass%, which is obtained by reacting a monoepoxide having at least three carbon atoms and ethylene oxide with an initiator having from 2 to 4 active hydrogen atoms on average, unsaturated hydroxy compound (A3): a compound having the following curable functional group and a hydroxy group, and curable functional group: a group represented by CH 2 =C(R)C(O)O- (wherein R is a hydrogen atom or a methyl group); monomer (B): a compound represented by CH 2 =C(R)C(O)O-R 2 (wherein R is a hydrogen atom or a methyl group, and R 2 is a C 3-8 hydroxyalkyl group having from 1 to 2 hydroxy groups). unsaturated urethane oligomer (A): an unsaturated urethane oligomer having from 2 to 3 curable functional groups as mentioned below, on average per molecule, which is a reaction product of the following polyol component (A1), a polyisocyanate (A2) and the following unsaturated hydroxy compound (A3), or a reaction product of the following polyol component (A1) and an unsaturated isocyanate (A4) having the following curable functional group, polyol component (A1): a polyol component containing the following polyol (a1), polyol (a1): a polyoxyalkylene polyol having a hydroxy value of from 15 to 30 mgKOH/g and an oxyethylene group content of from 8 to 50 mass% in the total oxyalkylene groups of 100 mass%, which is obtained by reacting a monoepoxide having at least three carbon atoms and ethylene oxide with an initiator having from 2 to 4 active hydrogen atoms on average, unsaturated hydroxy compound (A3): a compound having the following curable functional group and a hydroxy group, and curable functional group: a group represented by CH 2 =C(R)C(O)O- (wherein R is a hydrogen atom or a methyl group); monomer (B): a compound represented by CH 2 =C(R)C(O)O-R 2 (wherein R is a hydrogen atom or a methyl group, and R 2 is a C 3-8 hydroxyalkyl group having from 1 to 2 hydroxy groups).
System for fluid connection, comprising a male tip and a female socket capable of being connected in a sealed manner onto the tip by a translation along an axis of the socket , the system comprising retention means for maintaining the socket on the tip by snapping on, the retention means comprising a shoulder made on the tip , a retention element carried by the socket and capable of being housed against the shoulder in such a way as to hinder the extraction of the socket from the tip in a locking position, and unlocking means for freeing the socket from the tip by removing the retention element from the shoulder , the retention element comprising at least one pin extending in a direction perpendicular to the axis of the socket in a notch of the socket having an opening face inclined with respect to the axis of the socket in such a direction that the pin , sliding on the opening face , moves away from the front end of the socket while moving away from the axis of the socket , the pin being capable of being housed against the shoulder of the tip , the retention element further comprising means for elastic return of the pin that tend to move the pin towards the axis of the socket characterised in that the socket comprises a bearing face of the notch , facing the opening face and in which the shoulder is conical and forms an angle with the axis of the tip greater than the angle between the axis of the socket and the bearing face , the axis of the tip and that of the socket being the same.
A method of accurately determining the maxillary arch relationship of a dental patient comprising; a) positioning one or more dental impression pads on the top surface of a bite fork , wherein the one or more dental impression pads comprises a backing strip , an impressionable material on one side of the backing strip , and an adhesive on another side of the backing strip ; b) positioning the bite fork within the patient's mouth; c) making an impression of one or more maxillary teeth of the patient; d) removing the bite fork from the patient's mouth; e) securing an elastically deformable bite fork stabilizer to a bottom surface of the bite fork , the elastically deformable bite fork stabilizer comprising an elastically deformable layer and an adhesive layer on one side of the elastically deformable layer, wherein the adhesive layer is disposed between the elastically deformable layer and the bite fork; f) repositioning the bite fork in the patient's mouth such that maxillary teeth are fitted into the imprints that were previously made, wherein a handle of the bite fork is coupled to a facebow or earbow , and wherein the facebow or earbow is secured to the patient's head; g) instructing the patient to bite down on the bite fork whereby the bite fork is stabilized within the patient's mouth; h) recording the maxillary arch relationship. a) positioning one or more dental impression pads on the top surface of a bite fork , wherein the one or more dental impression pads comprises a backing strip , an impressionable material on one side of the backing strip , and an adhesive on another side of the backing strip ; b) positioning the bite fork within the patient's mouth; c) making an impression of one or more maxillary teeth of the patient; d) removing the bite fork from the patient's mouth; e) securing an elastically deformable bite fork stabilizer to a bottom surface of the bite fork , the elastically deformable bite fork stabilizer comprising an elastically deformable layer and an adhesive layer on one side of the elastically deformable layer, wherein the adhesive layer is disposed between the elastically deformable layer and the bite fork; f) repositioning the bite fork in the patient's mouth such that maxillary teeth are fitted into the imprints that were previously made, wherein a handle of the bite fork is coupled to a facebow or earbow , and wherein the facebow or earbow is secured to the patient's head; g) instructing the patient to bite down on the bite fork whereby the bite fork is stabilized within the patient's mouth; h) recording the maxillary arch relationship.
Ultrasonic transducer , for an ultrasonic flowmeter , wherein the ultrasonic transducer comprises at least one electro-acoustic element , at least one housing , at least one acoustic window and at least one control unit , wherein the electro-acoustic element is arranged within the housing on the acoustic window such that, during operation, an ultrasonic signal generated by the electro-acoustic element leaves the housing through the acoustic window , wherein the electro-acoustic element has at least two electro-acoustic discs , wherein the at least two electro-acoustic discs are arranged one above the other, and wherein at least one electro-acoustic disc can be excited separately, at least temporarily, by the control unit characterized in that the ultrasonic transducer is operated using the method according to claim 10. wherein the electro-acoustic element is arranged within the housing on the acoustic window such that, during operation, an ultrasonic signal generated by the electro-acoustic element leaves the housing through the acoustic window , wherein the electro-acoustic element has at least two electro-acoustic discs , wherein the at least two electro-acoustic discs are arranged one above the other, and wherein at least one electro-acoustic disc can be excited separately, at least temporarily, by the control unit characterized in that the ultrasonic transducer is operated using the method according to claim 10.
An electrophotographic photoconductor comprising: a conductive substrate; and a photoconductive layer, wherein an outermost surface layer of the electrophotographic photoconductor contains a binder resin, a charge transporting material, fluorine-containing resin particles, and an acidic compound, the number of carboxyl groups in the fluorine-containing resin particles is 0 or more and 30 or less per 10 6 carbon atoms of the fluorine-containing resin particles and is measured in accordance with the description, and a content of the charge transporting material in the outermost surface layer is 59 mass% or more and 72 mass% or less with respect to the binder resin; wherein the acidic compound is at least one selected from the group consisting of a sulfonic acid compound, a carboxylic acid compound, a phosphoric acid compound, and a nitric acid compound; and wherein the sulfonic acid compound is a sulfonic acid compound having a benzene ring, and the carboxylic acid compound is a carboxylic acid compound having 2 or more and 4 or less carboxyl groups. a conductive substrate; and a photoconductive layer, wherein an outermost surface layer of the electrophotographic photoconductor contains a binder resin, a charge transporting material, fluorine-containing resin particles, and an acidic compound, the number of carboxyl groups in the fluorine-containing resin particles is 0 or more and 30 or less per 10 6 carbon atoms of the fluorine-containing resin particles and is measured in accordance with the description, and a content of the charge transporting material in the outermost surface layer is 59 mass% or more and 72 mass% or less with respect to the binder resin; wherein the acidic compound is at least one selected from the group consisting of a sulfonic acid compound, a carboxylic acid compound, a phosphoric acid compound, and a nitric acid compound; and wherein the sulfonic acid compound is a sulfonic acid compound having a benzene ring, and the carboxylic acid compound is a carboxylic acid compound having 2 or more and 4 or less carboxyl groups.
A process for producing a pipe comprising the steps of: (a) providing a recycled polyethylene having a melt flow rate (5kg, 190°C) (MFR 0 ) in the range of 0.5 to 100 g/10 min, (b) extruding the recycled polyethylene in the presence of a free radical generator so as to form a modified polyethylene, wherein the amount of the free radical generator is in a range of 200 ppm to 4000 ppm, based on the amount of recycled polyethylene, and wherein the modified polyethylene has a melt flow rate (5kg, 190°C) (MFR f ) in the range of 0.2 to 3.0 g/10 min and which is less than the melt flow rate of the recycled polyethylene, and wherein the melt flow rate of the recycled polyethylene, the melt flow rate of the modified polyethylene and the amount of the free radical generator meet the exponential decay (equation (I)) in respect of the starting melt flow rate (5kg, 190°C) (MFR 0 ) and the concentration (X) of the free radical generator based on the amount of recycled polyethylene, MFRf = MFR 0 × e − μ X wherein the exponential decay constant μ in the exponential decay (equation (I)) is greater than zero, and (c) forming said modified polyethylene into a pipe or layer of a pipe consisting of said modified polyethylene and optionally a filler and/or other additive(s). (a) providing a recycled polyethylene having a melt flow rate (5kg, 190°C) (MFR 0 ) in the range of 0.5 to 100 g/10 min, (b) extruding the recycled polyethylene in the presence of a free radical generator so as to form a modified polyethylene, wherein the amount of the free radical generator is in a range of 200 ppm to 4000 ppm, based on the amount of recycled polyethylene, and wherein the modified polyethylene has a melt flow rate (5kg, 190°C) (MFR f ) in the range of 0.2 to 3.0 g/10 min and which is less than the melt flow rate of the recycled polyethylene, and wherein the melt flow rate of the recycled polyethylene, the melt flow rate of the modified polyethylene and the amount of the free radical generator meet the exponential decay (equation (I)) in respect of the starting melt flow rate (5kg, 190°C) (MFR 0 ) and the concentration (X) of the free radical generator based on the amount of recycled polyethylene, MFRf = MFR 0 × e − μ X wherein the exponential decay constant μ in the exponential decay (equation (I)) is greater than zero, and (c) forming said modified polyethylene into a pipe or layer of a pipe consisting of said modified polyethylene and optionally a filler and/or other additive(s).
A method for wireless communications by a user equipment, UE, the method being executed by the UE and comprising: identifying , within a set of subframes, one or more flexible subframes that may be dynamically managed for either uplink or downlink communications; determining whether a current flexible subframe is for either uplink or downlink communications; and performing at least one of channel measurement or interference measurement based on the determination; wherein performing channel measurement or interference measurement based on the determination comprises performing downlink channel measurement based on at least one of a channel state information reference signal, CSI-RS, or an interference measurement resource, IMR, in a last symbol of the current flexible subframe if the current flexible subframe is for uplink communications. identifying , within a set of subframes, one or more flexible subframes that may be dynamically managed for either uplink or downlink communications; determining whether a current flexible subframe is for either uplink or downlink communications; and performing at least one of channel measurement or interference measurement based on the determination; wherein performing channel measurement or interference measurement based on the determination comprises performing downlink channel measurement based on at least one of a channel state information reference signal, CSI-RS, or an interference measurement resource, IMR, in a last symbol of the current flexible subframe if the current flexible subframe is for uplink communications.
An assembly consisting of at least one injection-molded MID (Molded Interconnect Device) component , a metal part connected thereto, and an electro-optical element , the MID component being provided with at least one conductor path for a connection of the electro-optical element and at least one heat transfer element for a heat dissipation from the electro-optical element , wherein the heat transfer element is a direct heat-conducting operative connection between the electro-optical element and the metal part and the MID component provides a retainer for the heat transfer element .
A multi-cylinder engine comprising: a cylinder head including a plurality of combustion chambers , a plurality of intake ports , a first coolant flow passage , and a second coolant flow passage , wherein the plurality of combustion chambers are provided side by side in a longitudinal direction of the cylinder head, the plurality of intake ports are provided side by side in the longitudinal direction of the cylinder head and respectively communicate with the plurality of combustion chambers, the first coolant flow passage extends continuously in the longitudinal direction of the cylinder head along upper surfaces of the intake ports disposed side by side in the longitudinal direction and, in at least one of cross sections perpendicular to the longitudinal direction, is located between a flat plane and a central line plane, the flat plane including central axes of the plurality of combustion chambers and parallel to the longitudinal direction, the central line plane including central lines of the plurality of intake ports, and at least a portion of the second coolant flow passage is located between the combustion chamber and the first coolant flow passage in at least one of cross sections perpendicular to the longitudinal direction, and wherein a temperature of a coolant flowing in the first coolant flow passage is lower than a temperature of a coolant flowing in the second coolant flow passage. a cylinder head including a plurality of combustion chambers , a plurality of intake ports , a first coolant flow passage , and a second coolant flow passage , wherein the plurality of combustion chambers are provided side by side in a longitudinal direction of the cylinder head, the plurality of intake ports are provided side by side in the longitudinal direction of the cylinder head and respectively communicate with the plurality of combustion chambers, the first coolant flow passage extends continuously in the longitudinal direction of the cylinder head along upper surfaces of the intake ports disposed side by side in the longitudinal direction and, in at least one of cross sections perpendicular to the longitudinal direction, is located between a flat plane and a central line plane, the flat plane including central axes of the plurality of combustion chambers and parallel to the longitudinal direction, the central line plane including central lines of the plurality of intake ports, and at least a portion of the second coolant flow passage is located between the combustion chamber and the first coolant flow passage in at least one of cross sections perpendicular to the longitudinal direction, and wherein a temperature of a coolant flowing in the first coolant flow passage is lower than a temperature of a coolant flowing in the second coolant flow passage.
A trace element solution, which comprises at least the following metals: (a) zinc; (b) manganese; (c) selenium; and (d) copper; and which comprises Vitamin B12 and butaphosphan to stabilize the Vitamin B12, which is an injectable trace element solution in which: (a) the ratio of zinc to manganese is at least 2:1; (b) the ratio of zinc to manganese is at least 4:1; (c) the ratio of zinc to copper is at least 2:1; and/or (d) the ratio of zinc to selenium is at least 4:1. (a) zinc; (b) manganese; (c) selenium; and (d) copper; (a) the ratio of zinc to manganese is at least 2:1; (b) the ratio of zinc to manganese is at least 4:1; (c) the ratio of zinc to copper is at least 2:1; and/or (d) the ratio of zinc to selenium is at least 4:1.