mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: collecting cross-layer information associated with a software defined networking-based communication network, the cross-layer information comprising real-time traffic state information collected from two or more layers in the communication network; and determining a best protection path based on the cross-layer information; updating the present protection path set locally on the network elements with the best protection path, upon determining the present protection path set locally on the network elements is not the best one; wherein the step of updating comprises: sending one or more updates related to the best protection path to one or more network elements in the software defined networking-based communication network to control one or more local decisions comprising protection path switching made at the one or more network elements following a failure of a working path, wherein the one or more updates are based on the collected cross-layer information; wherein the method is performed by at least one processing device comprising a processor coupled to a memory. collecting cross-layer information associated with a software defined networking-based communication network, the cross-layer information comprising real-time traffic state information collected from two or more layers in the communication network; and determining a best protection path based on the cross-layer information; updating the present protection path set locally on the network elements with the best protection path, upon determining the present protection path set locally on the network elements is not the best one; wherein the step of updating comprises: sending one or more updates related to the best protection path to one or more network elements in the software defined networking-based communication network to control one or more local decisions comprising protection path switching made at the one or more network elements following a failure of a working path, wherein the one or more updates are based on the collected cross-layer information; wherein the method is performed by at least one processing device comprising a processor coupled to a memory. sending one or more updates related to the best protection path to one or more network elements in the software defined networking-based communication network to control one or more local decisions comprising protection path switching made at the one or more network elements following a failure of a working path, wherein the one or more updates are based on the collected cross-layer information; wherein the method is performed by at least one processing device comprising a processor coupled to a memory.
Method of manufacturing an implant configured for application on one or more bones (14, 16, 18, 23, 68 70), the method comprising: - providing a dataset of at least a part of each of the one or more bones (14, 16, 18, 23, 68 70); - creating a model of the one or more bones (14, 16, 18, 23, 68 70) on the basis of the dataset; - defining in the model a range of motion of the one or more bones (14, 16, 18, 23, 68 70) within predetermined boundaries; - positioning a model of an implant (42, 142) with predetermined shape in the model of the one or more bones (14, 16, 18, 23, 68 70), wherein a first rotation point of the model implant (42, 142) is placed at a most probable position in the model of the one or more bones (14, 16, 18, 23, 68 70); - modifying the positioned model implant by removing parts of the model implant (42, 142) which overlap the model of the one or more bones (14, 16, 18, 23, 68 70); - simulating movements of the model of the one or more bones with the modified model implant (42, 142), wherein the simulated movements are encompassed by the defined range of motion of the one or more bones (14, 16, 18, 23, 68 70) in the model; - selecting parts of the model implant (42, 142) which during the simulation limit the simulated movements which cause the defined range of motion not to be reached; - further modifying the model implant (42, 142) by removing the selected parts; - manufacturing the further modified model implant (42, 142) so that the implant is obtained. - providing a dataset of at least a part of each of the one or more bones (14, 16, 18, 23, 68 70); - creating a model of the one or more bones (14, 16, 18, 23, 68 70) on the basis of the dataset; - defining in the model a range of motion of the one or more bones (14, 16, 18, 23, 68 70) within predetermined boundaries; - positioning a model of an implant (42, 142) with predetermined shape in the model of the one or more bones (14, 16, 18, 23, 68 70), wherein a first rotation point of the model implant (42, 142) is placed at a most probable position in the model of the one or more bones (14, 16, 18, 23, 68 70); - modifying the positioned model implant by removing parts of the model implant (42, 142) which overlap the model of the one or more bones (14, 16, 18, 23, 68 70); - simulating movements of the model of the one or more bones with the modified model implant (42, 142), wherein the simulated movements are encompassed by the defined range of motion of the one or more bones (14, 16, 18, 23, 68 70) in the model; - selecting parts of the model implant (42, 142) which during the simulation limit the simulated movements which cause the defined range of motion not to be reached; - further modifying the model implant (42, 142) by removing the selected parts; - manufacturing the further modified model implant (42, 142) so that the implant is obtained.
A surgical drape comprising: a tearable first sheet, the first sheet comprising: at least one notch disposed at a periphery of the first sheet; at least one fenestration, and wherein the at least one fenestration provides access to a surgical site; and an imperforate portion extending from the at least one notch to the at least one fenestration, and wherein tearing the first sheet via the at least one notch creates a linear tear line extending along the imperforate portion from the at least one notch to the at least one fenestration, and characterized in that, the surgical drape comprises a reinforcing material disposed on an upper surface of the first sheet wherein the reinforcing material is absorbent, and wherein, the linear tear line does not intersect the reinforcing material. a tearable first sheet, the first sheet comprising: at least one notch disposed at a periphery of the first sheet; at least one fenestration, and wherein the at least one fenestration provides access to a surgical site; and an imperforate portion extending from the at least one notch to the at least one fenestration, and at least one notch disposed at a periphery of the first sheet; at least one fenestration, and wherein the at least one fenestration provides access to a surgical site; and an imperforate portion extending from the at least one notch to the at least one fenestration, and wherein tearing the first sheet via the at least one notch creates a linear tear line extending along the imperforate portion from the at least one notch to the at least one fenestration, and characterized in that, the surgical drape comprises a reinforcing material disposed on an upper surface of the first sheet wherein the reinforcing material is absorbent, and wherein, the linear tear line does not intersect the reinforcing material.
A process for preparing an aldaric acid and/or lactone(s) thereof, the process comprising: reacting (i) an aldose of formula and/or lactone(s) thereof: HOCH 2 (HCOH) w CHO wherein w is an integer from 0 to 10; or (ii) an aldonic acid of formula and/or lactone(s) thereof: HOCH 2 (HCOH) x COOH where x is an integer from 0 to 10; or (iii) a uronic acid of formula and/or lactone(s) thereof: HOOC(HCOH) y CHO wherein y is an integer from 0 to 10; in the presence of oxygen, a first catalyst comprising platinum, and a second catalyst comprising gold in a reaction zone to form a reaction mixture comprising the aldaric acid of formula and/or lactone(s) thereof, wherein the first catalyst and second catalyst are different and wherein the aldaric acid and/or lactone(s) thereof is of formula: HOOC(HCOH) z COOH wherein z is an integer from 0 to 10; and wherein in alternative (i) the reaction zone further comprises an oxidation catalyst. reacting (i) an aldose of formula and/or lactone(s) thereof: HOCH 2 (HCOH) w CHO wherein w is an integer from 0 to 10; or (ii) an aldonic acid of formula and/or lactone(s) thereof: HOCH 2 (HCOH) x COOH where x is an integer from 0 to 10; or (iii) a uronic acid of formula and/or lactone(s) thereof: HOOC(HCOH) y CHO wherein y is an integer from 0 to 10; (i) an aldose of formula and/or lactone(s) thereof: HOCH 2 (HCOH) w CHO wherein w is an integer from 0 to 10; or (ii) an aldonic acid of formula and/or lactone(s) thereof: HOCH 2 (HCOH) x COOH where x is an integer from 0 to 10; or (iii) a uronic acid of formula and/or lactone(s) thereof: HOOC(HCOH) y CHO wherein y is an integer from 0 to 10; in the presence of oxygen, a first catalyst comprising platinum, and a second catalyst comprising gold in a reaction zone to form a reaction mixture comprising the aldaric acid of formula and/or lactone(s) thereof, wherein the first catalyst and second catalyst are different and wherein the aldaric acid and/or lactone(s) thereof is of formula: HOOC(HCOH) z COOH wherein z is an integer from 0 to 10; and wherein in alternative (i) the reaction zone further comprises an oxidation catalyst.
A polyurethane composition comprising at least one polymer containing isocyanate groups, obtained from the reaction of at least one polyol and at least one diisocyanate, and at least one oxazolidine of the formula where R 1 is an alkyl or cycloalkyl or arylalkyl radical having 1 to 8 carbon atoms, R 2 is H or methyl, and G is an aromatic radical selected from the group consisting of furanyl, thiophenyl, pyridinyl, indenyl, indanyl, benzodioxolyl, benzodioxanyl, naphthyl, tetrahydronaphthyl, anthracenyl and a radical of the formula where R 3 is fluoro, chloro, bromo, nitro, cyano, phenyl, phenoxy, (C 1 to Cs)-alkyl or (C 1 to Cs)-alkoxy, and n is 0, 1, 2 or 3. R 1 is an alkyl or cycloalkyl or arylalkyl radical having 1 to 8 carbon atoms, R 2 is H or methyl, and G is an aromatic radical selected from the group consisting of furanyl, thiophenyl, pyridinyl, indenyl, indanyl, benzodioxolyl, benzodioxanyl, naphthyl, tetrahydronaphthyl, anthracenyl and a radical of the formula where R 3 is fluoro, chloro, bromo, nitro, cyano, phenyl, phenoxy, (C 1 to Cs)-alkyl or (C 1 to Cs)-alkoxy, and n is 0, 1, 2 or 3.
A network device, the network device comprising: a first acquiring unit, configured to: when load of a macro cell is greater than or equal to a load threshold, or when a timer reaches a system preset time, acquire a first almost blank subframe, ABS, subframe proportion parameter of the macro cell and at least one cell range expansion, CRE, parameter, wherein the at least one CRE parameter is a CRE parameter for the macro cell and at least one micro cell, and the at least one micro cell is a micro cell within a coverage area of the macro cell; and a first configuration unit, configured to configure the first ABS subframe proportion parameter for the macro cell and configure the at least one CRE parameter for the macro cell and the at least one micro cell according to the first ABS subframe proportion parameter and the at least one CRE parameter that are acquired by the first acquiring unit; characterized in that the first acquiring unit is configured to: traverse K ABS subframe proportion parameters and L CRE parameters, to acquire the first ABS subframe proportion parameter and the at least one CRE parameter that correspond to maximum system capacity, wherein the system capacity is the total capacity of N user equipments, UEs, K is an integer greater than or equal to 1, L is an integer greater than or equal to 1, and N is an integer greater than or equal to 1. a first acquiring unit, configured to: when load of a macro cell is greater than or equal to a load threshold, or when a timer reaches a system preset time, acquire a first almost blank subframe, ABS, subframe proportion parameter of the macro cell and at least one cell range expansion, CRE, parameter, wherein the at least one CRE parameter is a CRE parameter for the macro cell and at least one micro cell, and the at least one micro cell is a micro cell within a coverage area of the macro cell; and a first configuration unit, configured to configure the first ABS subframe proportion parameter for the macro cell and configure the at least one CRE parameter for the macro cell and the at least one micro cell according to the first ABS subframe proportion parameter and the at least one CRE parameter that are acquired by the first acquiring unit; characterized in that the first acquiring unit is configured to: traverse K ABS subframe proportion parameters and L CRE parameters, to acquire the first ABS subframe proportion parameter and the at least one CRE parameter that correspond to maximum system capacity, wherein the system capacity is the total capacity of N user equipments, UEs, K is an integer greater than or equal to 1, L is an integer greater than or equal to 1, and N is an integer greater than or equal to 1. traverse K ABS subframe proportion parameters and L CRE parameters, to acquire the first ABS subframe proportion parameter and the at least one CRE parameter that correspond to maximum system capacity, wherein the system capacity is the total capacity of N user equipments, UEs, K is an integer greater than or equal to 1, L is an integer greater than or equal to 1, and N is an integer greater than or equal to 1.
A procedure for tapping metal elements, in which a tap provided with an external threading is placed in contact with a metal element, for realising a threading internally of the element, characterised by comprising the following working steps: a) setting the tap in rotation at a first predetermined velocity that is instantaneously adjustable as well as at a predetermined torque value that is instantaneously adjustable about a longitudinal axis thereof; b) setting a predetermined thrust that is instantaneously adjustable with very high precision, and therefore with displacements that are adjustable in terms of linear distance travelled equal to or greater than +/- 0.01mm on the metal element; c) a linear advancing of the metal element along the longitudinal axis at a second predetermined velocity instantaneously adjustable such that an inner surface of the metal element is threaded by the tap; and d) an instantaneous and continuous adjustment, with very high precision, of the first velocity, the torque value, the second velocity and the thrust. a) setting the tap in rotation at a first predetermined velocity that is instantaneously adjustable as well as at a predetermined torque value that is instantaneously adjustable about a longitudinal axis thereof; b) setting a predetermined thrust that is instantaneously adjustable with very high precision, and therefore with displacements that are adjustable in terms of linear distance travelled equal to or greater than +/- 0.01mm on the metal element; c) a linear advancing of the metal element along the longitudinal axis at a second predetermined velocity instantaneously adjustable such that an inner surface of the metal element is threaded by the tap; and d) an instantaneous and continuous adjustment, with very high precision, of the first velocity, the torque value, the second velocity and the thrust.
A method for processing a Non-access stratum, NAS, request, applied to a first network device, the method comprising: receiving, by the first network device, the NAS request of a terminal device and at least two tracking area identities, TAIs, for the terminal device from a second network device; and accepting, by the first network device, the NAS request, characterized in that receiving, by the first network device, the NAS request of the terminal device and the at least two TAIs for the terminal device from the second network device comprises: receiving, by the first network device, an N2 message from the second network device, the N2 message carrying the NAS request and user location information, ULI, and the ULI carrying the at least two TAIs for the terminal device, and wherein the first network device is an Access and Mobility Management Function, AMF, and the second network device is a base station. receiving, by the first network device, the NAS request of a terminal device and at least two tracking area identities, TAIs, for the terminal device from a second network device; and accepting, by the first network device, the NAS request, characterized in that receiving, by the first network device, the NAS request of the terminal device and the at least two TAIs for the terminal device from the second network device comprises: receiving, by the first network device, an N2 message from the second network device, the N2 message carrying the NAS request and user location information, ULI, and the ULI carrying the at least two TAIs for the terminal device, and wherein the first network device is an Access and Mobility Management Function, AMF, and the second network device is a base station. receiving, by the first network device, an N2 message from the second network device, the N2 message carrying the NAS request and user location information, ULI, and the ULI carrying the at least two TAIs for the terminal device, and wherein the first network device is an Access and Mobility Management Function, AMF, and the second network device is a base station.
A temperature homogenizing container for a refrigerator, comprising a body and an accommodating space enclosed by the body and provided for accommodating articles, wherein the body comprises a plurality of capillary tube cavities provided therein and provided for a heat exchange medium to flow, and the heat exchange medium being capable of flowing in the capillary tube cavity along the extension direction of the capillary tube cavity, characterized in that an inner wall of the capillary tube cavity being provided with a micro-tooth structure, wherein at least some of the capillary tube cavities comprise a first opening and a second opening provided oppositely along the extension direction thereof and the heat exchange medium is capable of flowing into and out of the capillary tube cavities through the first opening and the second opening and wherein the refrigerator comprises a cooling system pipeline, and the capillary tube cavities communicate with the cooling system pipeline through the first opening and the second opening so that the heat exchange medium is capable of flowing circularly in the capillary tube cavities and the cooling system pipeline.
A method of making a cemented carbide body comprising the steps of: - forming a powder blend comprising WC raw material powder and a metal binder phase powder, - subjecting said powder blend to a mixing operation using a non-contact mixer wherein acoustic waves achieving resonance conditions is used to form a mixed powder blend, - subjecting said mixed powder blend to a pressing and sintering operation wherein the WC raw material is single crystal and where the WC grains after sintering have a spherical or angular morphology. - forming a powder blend comprising WC raw material powder and a metal binder phase powder, - subjecting said powder blend to a mixing operation using a non-contact mixer wherein acoustic waves achieving resonance conditions is used to form a mixed powder blend, - subjecting said mixed powder blend to a pressing and sintering operation wherein the WC raw material is single crystal and where the WC grains after sintering have a spherical or angular morphology.
A molecule mixture for the insertion into living cells, comprising - an amphipathic molecule type A which has a positive total charge in the hydrophilic region and - an amphipathic molecule type B which is neutral in the hydrophilic region, and - a polyphenol C which contains at least two hydroxyl groups directly attached to an aromatic ring and belongs to the secondary plant substances, - wherein the molecule types A and B and the polyphenol C are present in a molecular ratio of A:B:C of 1(±0.2):1(±0.2):0.5-5 mol/mol. - an amphipathic molecule type A which has a positive total charge in the hydrophilic region and - an amphipathic molecule type B which is neutral in the hydrophilic region, and - a polyphenol C which contains at least two hydroxyl groups directly attached to an aromatic ring and belongs to the secondary plant substances, - wherein the molecule types A and B and the polyphenol C are present in a molecular ratio of A:B:C of 1(±0.2):1(±0.2):0.5-5 mol/mol.
A process for producing a reusable regenerant gas stream, the process comprising: compressing a reactor effluent from a catalyst dehydrogenation process to provide a compressed effluent; removing chlorides from the compressed effluent in a chloride removal zone to provide a treated effluent; removing water and hydrogen sulfide from the treated effluent in a dryer zone to provide a dryer output stream, the dryer zone having at least one vessel comprising a regenerable adsorbent; regenerating the regenerable adsorbent in the dryer zone with a regenerant gas stream to provide a spent regenerant gas stream, the spent regenerant stream including water and hydrogen sulfide; and, removing the hydrogen sulfide from the spent regenerant gas stream in a regenerant cleaning zone to provide a cleaned regenerant stream, the regenerant cleaning zone including one or more vessels having a sorbent configured to remove hydrogen sulfide from the spent regenerant gas stream; wherein the regenerant cleaning zone comprises two vessels operated in a lead-lag configuration; wherein at least one vessel is used as a heat exchanger to provide heat or remove heat from a stream of gas including regenerant; and wherein the heat exchanger cools the cleaned regenerant stream to provide a cooled regenerant stream; and wherein the process further comprises recycling the cooled regenerant stream to the dryer zone as the regenerant gas stream. compressing a reactor effluent from a catalyst dehydrogenation process to provide a compressed effluent; removing chlorides from the compressed effluent in a chloride removal zone to provide a treated effluent; removing water and hydrogen sulfide from the treated effluent in a dryer zone to provide a dryer output stream, the dryer zone having at least one vessel comprising a regenerable adsorbent; regenerating the regenerable adsorbent in the dryer zone with a regenerant gas stream to provide a spent regenerant gas stream, the spent regenerant stream including water and hydrogen sulfide; and, removing the hydrogen sulfide from the spent regenerant gas stream in a regenerant cleaning zone to provide a cleaned regenerant stream, the regenerant cleaning zone including one or more vessels having a sorbent configured to remove hydrogen sulfide from the spent regenerant gas stream; wherein the regenerant cleaning zone comprises two vessels operated in a lead-lag configuration; wherein at least one vessel is used as a heat exchanger to provide heat or remove heat from a stream of gas including regenerant; and wherein the heat exchanger cools the cleaned regenerant stream to provide a cooled regenerant stream; and wherein the process further comprises recycling the cooled regenerant stream to the dryer zone as the regenerant gas stream.