mhurhangee/ep-ind-claims huggingface dataset:
A communication system comprising: a first communication network acting as home communication network of a mobile terminal (102, 200, 301, 401, 602); a second communication network acting as visited communication network of the mobile terminal; a data rate quota storage component configured to store, for a network slice (106, 107, 201, 202, 203) and for the mobile terminal (102, 200, 301, 401, 602), a specification of a limit of the total data rate over all communication sessions provided in said network slice for said mobile terminal; a data rate management component; and a notification component configured to notify the data rate management component about the limit, wherein the data rate management component is configured to monitor and control the data rate of one or more communication connections of said mobile terminal in the communication system such that the total data rate over all communication sessions provided in the network slice for the mobile terminal does not exceed the limit; and wherein the data rate quota storage component is a part of the first communication network, the notification component is a part of the first communication network and/or a part of the second communication network, and the data rate management component is part of the second communication network. a first communication network acting as home communication network of a mobile terminal (102, 200, 301, 401, 602); a second communication network acting as visited communication network of the mobile terminal; a data rate quota storage component configured to store, for a network slice (106, 107, 201, 202, 203) and for the mobile terminal (102, 200, 301, 401, 602), a specification of a limit of the total data rate over all communication sessions provided in said network slice for said mobile terminal; a data rate management component; and a notification component configured to notify the data rate management component about the limit, wherein the data rate management component is configured to monitor and control the data rate of one or more communication connections of said mobile terminal in the communication system such that the total data rate over all communication sessions provided in the network slice for the mobile terminal does not exceed the limit; and wherein the data rate quota storage component is a part of the first communication network, the notification component is a part of the first communication network and/or a part of the second communication network, and the data rate management component is part of the second communication network.
Method for the functional testing of floating plates (1, 2, 3, 4) as parts of a test bench for testing, measuring and / or adjusting work on a vehicle, wherein the floating plates (1, 2, 3, 4) each have a vehicle-related wheel tread part, which is movable in the horizontal plan (X,Y) relative to a test bench part of the respective floating plate (1, 2, 3, 4) in a dissolved operating position of the floating plate (1, 2, 3, 4) and which is rigidly connected to the test bench part of the respective floating plate (1, 2, 3, 4) related to a movement in the horizontal plane (X, Y) in a clamped operating position of the floating plate (1, 2, 3, 4), characterized in that in the dissolved operating position of all floating plates (1, 2, 3, 4) and a vehicle being positioned in a test bench on the floating plates (1, 2, 3, 4), the vehicle including the vehicle-related wheel tread parts of the floating plates (1, 2, 3, 4) are moved by means of adjustment means with a detection and evaluation of the force required for the movement of the vehicle together with the vehicle-related wheel tread parts of the floating plates (1, 2, 3, 4) and / or a detection and evaluation of a parameter correlated with this force.
An arc welding control method of performing arc welding, characterized in that a welding wire that is a consumable electrode is fed by alternately repeating forward feeding that feeds the welding wire toward a welding subject and reverse feeding that feeds the welding wire in a direction opposite to the forward feeding at a predetermined period and amplitude in a periodical manner, and a first heat input period having a first heat input amount and a second heat input period having a second heat input amount that is less than the first heat input amount are periodically repeated, wherein each of the first heat input period and the second heat input period includes a short-circuit period and an arc period, and when release of short-circuit of the welding wire is detected during the short-circuit period in the second heat input period, an arc is extinguished.
Damping unit for a lift for reducing vertical oscillations of a cage during standstill, with mutually opposite brake shoe holders (8, 8'), which are movable between a rest setting and an active setting by means of an actuator and which are provided with brake shoes (7, 7'), wherein the brake shoes (7, 7') in the rest setting are movable contactlessly along a guide rail during cage travel and in the active setting are pressable against the guide rail during standstill, wherein the brake shoe holders (8, 8') are connected with the actuator by a transmission, and wherein the damping unit comprises a housing or other support structure for the brake shoe holders (8, 8'), characterised in that for resilient mounting of the housing or support structure a spring device attached to the housing or the support structure is mountable on the cage, wherein the spring device is formed as a bending spring of metal.
A method of removing soluble lignin for increasing chemical efficiency of papermaking additives in a papermaking system, said method comprising the steps of: providing thick stock pulp comprising soluble lignin, process water, and at least about 2% by weight of cellulosic fiber based on total weight of thick stock pulp, and adding at least one laccase enzyme and at least one organic polymer to the thick stock pulp to reduce the amount of soluble lignin therein; wherein the organic polymer is chosen from cationic polymers, non-ionic polymers and combinations thereof; wherein the laccase enzyme is added to the process water in an amount of from about 4.54 grams (0.01 pound) to about 453.59g (1.0 pound) per ton of oven dried pulp; wherein the organic polymer is added to the process water in an amount of from about 22.68 dry grams (0.05 dry pounds) to about 2267.96 dry grams (5 dry pounds) of the organic polymer per ton of oven dried pulp. providing thick stock pulp comprising soluble lignin, process water, and at least about 2% by weight of cellulosic fiber based on total weight of thick stock pulp, and adding at least one laccase enzyme and at least one organic polymer to the thick stock pulp to reduce the amount of soluble lignin therein; wherein the organic polymer is chosen from cationic polymers, non-ionic polymers and combinations thereof; wherein the laccase enzyme is added to the process water in an amount of from about 4.54 grams (0.01 pound) to about 453.59g (1.0 pound) per ton of oven dried pulp; wherein the organic polymer is added to the process water in an amount of from about 22.68 dry grams (0.05 dry pounds) to about 2267.96 dry grams (5 dry pounds) of the organic polymer per ton of oven dried pulp.
A case, comprising a fan arranged on a case wall of the case, an air inlet and an air outlet in communication with the air inlet arranged in the case wall of the case; wherein, the fan is arranged inside the case and is located between the air inlet and the air outlet; the fan is mounted in a bottom-to-top manner with an air inlet of the fan facing downwards and an air outlet of the fan facing upwards; the air inlet is located at a lower end of the case, the air outlet is located at an upper end of the case, and an air duct from bottom to top is formed by the air inlet, the fan and the air outlet; and wherein the fan is mounted inside the case via a mounting mechanism, and characterized in that, the mounting mechanism comprises one mounting plate, one guide slot, each of the fan is mounted on the mounting plate, and the mounting plate is inserted into the guide slot from one side of the guide slot; or, the mounting mechanism comprises two mounting plates and one guide slot, in a case that the number of the fan is plural, the plurality of fans are divided into two groups and the two groups of fans are respectively mounted on the two mounting plates, and the two mounting plates are inserted into the guide slot respectively from two opposite sides of the guide slot; and wherein, the mounting mechanism further comprises a baffle, the baffle is mounted in the guide slot, and an end, inserted into the guide slot, of the mounting plate is provided with a clamp slot, and the clamp slot is engaged with a side of the baffle facing the corresponding clamp slot after the mounting plate is inserted into the guide slot.
A roller carriage for accommodating a sliding door, including a roller module for displaceably affixing to a roller running path, and a basic body for attaching to a sliding door, wherein the roller module includes a bearing device with at least one, in particular at least two rotatable rollers, wherein the roller module is made from a first material and the basic body from a second material, characterized in that the first material conducts structure borne sound in a first sound conducting range and in a second sound conducting range dampens the structure borne sound, and the second material dampens structure borne sound in the first sound conducting range and conducts the structure borne sound in the second sound conducting range, and in that the E-modulus of the first material to the E-modulus of the second material is between 1.5:1 and 2.5:1 and/or the shear modulus of the first material to the shear modulus of the second material is between 2.5:1 and 3.5:1.
A method comprising: receiving, by a computing device that communicates with a peripheral device using short-range wireless communication, first data indicating a unique identifier of the peripheral device; responsive to receiving a user input that defines a first configuration operation for at least one application of the computing device, generating, by the computing device, an association between the first configuration operation and the unique identifier of the peripheral device; after generating the association, receiving, by the computing device using short-range wireless communication, second data; if the computing device recognizes the unique identifier of the peripheral device in the second data, determining, by the computing device, the first configuration operation, which changes a first, current operating state of the at least one application executing on the computing device to a second, different operating state; and if the computing device does not recognize the unique identifier of the peripheral device in the second data, sending, by the computing device, a lookup request to a network resource external to the computing device, wherein the lookup request comprises a request to the network resource for data specifying a second configuration operation for the computing device based on the unique identifier of the peripheral device. receiving, by a computing device that communicates with a peripheral device using short-range wireless communication, first data indicating a unique identifier of the peripheral device; responsive to receiving a user input that defines a first configuration operation for at least one application of the computing device, generating, by the computing device, an association between the first configuration operation and the unique identifier of the peripheral device; after generating the association, receiving, by the computing device using short-range wireless communication, second data; if the computing device recognizes the unique identifier of the peripheral device in the second data, determining, by the computing device, the first configuration operation, which changes a first, current operating state of the at least one application executing on the computing device to a second, different operating state; and if the computing device does not recognize the unique identifier of the peripheral device in the second data, sending, by the computing device, a lookup request to a network resource external to the computing device, wherein the lookup request comprises a request to the network resource for data specifying a second configuration operation for the computing device based on the unique identifier of the peripheral device.
A device for producing processed cheese portions, comprising a plurality of modules disposed successively in the direction of production, in which the processed cheese is formed into a strip, cooled and divided into portions, wherein the modules define a production space through which the processed cheese passes during production of the processed cheese portions, characterized in that a spray-proof encapsulation encloses the production space, wherein the encapsulation comprises a frame structure (1, 2) and a plurality of sheet metal elements, which are detachably connected to the frame structure, and that a sealing tube is disposed between a sheet metal element (4, 5) and the region of the frame structure opposite thereto and encircles the sheet metal element or the region of the frame structure opposite thereto.
A method for accessing a channel in a vehicular communication network, where successive cycles, each of which comprises N time slots, are defined in the channel, comprising: a first communication device mounted on a first node receiving a channel allocation advertisement message from a second communication device mounted on a second node, where the channel allocation advertisement message comprises information of how a communication area is divided into M regions and a mapping between the M regions and the N time slots,; the first communication device determining in which region the first node is located based on a position of the first node and the information; the first communication device identifying a time slot based on the determined region and the mapping; and the first communication device competing for the identified time slot; and wherein the channel allocation advertisement message further comprises information of a life time of itself, after which the channel allocation advertisement message is expired. a first communication device mounted on a first node receiving a channel allocation advertisement message from a second communication device mounted on a second node, where the channel allocation advertisement message comprises information of how a communication area is divided into M regions and a mapping between the M regions and the N time slots,; the first communication device determining in which region the first node is located based on a position of the first node and the information; the first communication device identifying a time slot based on the determined region and the mapping; and the first communication device competing for the identified time slot; and wherein the channel allocation advertisement message further comprises information of a life time of itself, after which the channel allocation advertisement message is expired.
A method of classifying a stator winding fault in a brushless synchronous generator comprising steps to: • measure current of the stator main armature winding; • calculate positive and negative harmonic sequence components of the current; • compare each sequence to a threshold range; and • classify the fault if (i) neither of the sequences deviates from the threshold range and (ii) magnitude of measured exciter field current or exciter field voltage increases. • measure current of the stator main armature winding; • calculate positive and negative harmonic sequence components of the current; • compare each sequence to a threshold range; and • classify the fault if (i) neither of the sequences deviates from the threshold range and (ii) magnitude of measured exciter field current or exciter field voltage increases.
An optical waveguide forming epoxy resin composition comprising: a liquid epoxy resin; and a photoacid generator; wherein the liquid epoxy resin comprises a liquid epoxy resin represented by the following general formula as a major component thereof in a proportion of 40 to 75 wt% based on the overall amount of a resin component: wherein R 1 and R 2 are each a hydrogen atom or a methyl group; wherein R 3 to R 6 are each a hydrogen atom, a methyl group, a chlorine atom or a bromine atom; wherein X is a C 2 to C 15 alkylene group, an ethyleneoxy group, a di(ethyleneoxy) group, a tri(ethyleneoxy) group, a propyleneoxy group, a propyleneoxypropyl group, a di(propyleneoxy)propyl group or a tri(propyleneoxy)propyl group; wherein n is a natural number and has an average value of 1.2 to 5, wherein the optical waveguide forming epoxy resin composition is free from a diluent component irrelevant to a curing reaction, wherein the optical waveguide forming epoxy resin composition is free from a solid epoxy resin component, and wherein the optical waveguide forming epoxy resin composition has a viscosity satisfying the following conditions: (x) the viscosity is 50 to 80 Pa·s as measured at 25°C; and (y) the viscosity is 2 to 6 Pa·s as measured at 50°C with heating. a liquid epoxy resin; and a photoacid generator; (x) the viscosity is 50 to 80 Pa·s as measured at 25°C; and (y) the viscosity is 2 to 6 Pa·s as measured at 50°C with heating.
Method for controlling of a biofilm, for removing of a formed biofilm and/or for controlling a growth of microorganisms selected from bacteria, in an aqueous environment of an industrial manufacturing process comprising cellulosic fibre material, by administering to the aqueous environment of the process a composition comprising a compound according to Formula I where R1, R2 and R3 independently represent a hydrogen atom; halogen atom; hydroxy group; amino group; alkylamino group, alkyl group, hydroxyalkyl group, haloalkyl group or alkoxy group having 1 to 4 carbon atoms; or an acylamido group having 1 to 10 carbon atoms; and A represents 2-thiazolamine; 2-propenenitrile; 2-propenoic acid; alkyl ester or hydroxyalkyl ester of 2-propenoic acid having 1 to 4 carbon atoms; or - CHCHCONR5R6 group, where R5 and R6 represent independently hydrogen atom, alkyl or hydroxyalkyl having 1 to 4 carbon atoms, with the proviso that the said compound is not 3-[(4-methylphenyl)sulphonyl]-2-propenenitrile or 4-amino-N-2-thiazolyl-benzenesulphonamide. R1, R2 and R3 independently represent a hydrogen atom; halogen atom; hydroxy group; amino group; alkylamino group, alkyl group, hydroxyalkyl group, haloalkyl group or alkoxy group having 1 to 4 carbon atoms; or an acylamido group having 1 to 10 carbon atoms; and A represents 2-thiazolamine; 2-propenenitrile; 2-propenoic acid; alkyl ester or hydroxyalkyl ester of 2-propenoic acid having 1 to 4 carbon atoms; or - CHCHCONR5R6 group, where R5 and R6 represent independently hydrogen atom, alkyl or hydroxyalkyl having 1 to 4 carbon atoms, with the proviso that the said compound is not 3-[(4-methylphenyl)sulphonyl]-2-propenenitrile or 4-amino-N-2-thiazolyl-benzenesulphonamide.
A light emitting device (100A, 100D) comprising: a mounting board; a plurality of light sources arranged on the mounting board, each of the light sources including a light-emitting element having an upper face and lateral faces; a light diffuser arranged above the plurality of light sources; a wavelength conversion layer located at least between the light sources and the light diffuser, the wavelength conversion layer covering each of the plurality of light sources entirely including the lateral faces and being configured to absorb at least a portion of light from the light sources and to emit light having a wavelength which is different from a wavelength of the light from the light sources; and a plurality of scatter reflection portions arranged on a surface of the wavelength conversion layer that is closer to the light diffuser, each of the scatter reflection portions being arranged above at least a portion of an upper face of a corresponding one of the light sources, characterized in that each of the light sources includes a light reflecting layer disposed on and covering the entire upper face of the light-emitting element so that light is extracted from the lateral faces of the light-emitting element in each of the light sources; and in that the light emitting device comprises a partitioning member including walls (15ax, 15ay) defining a plurality of regions and surrounding each of the light sources on the mounting board, with each of the walls (15ax, 15ay) having an apex in a cross section. a mounting board; a plurality of light sources arranged on the mounting board, each of the light sources including a light-emitting element having an upper face and lateral faces; a light diffuser arranged above the plurality of light sources; a wavelength conversion layer located at least between the light sources and the light diffuser, the wavelength conversion layer covering each of the plurality of light sources entirely including the lateral faces and being configured to absorb at least a portion of light from the light sources and to emit light having a wavelength which is different from a wavelength of the light from the light sources; and a plurality of scatter reflection portions arranged on a surface of the wavelength conversion layer that is closer to the light diffuser, each of the scatter reflection portions being arranged above at least a portion of an upper face of a corresponding one of the light sources, characterized in that each of the light sources includes a light reflecting layer disposed on and covering the entire upper face of the light-emitting element so that light is extracted from the lateral faces of the light-emitting element in each of the light sources; and in that the light emitting device comprises a partitioning member including walls (15ax, 15ay) defining a plurality of regions and surrounding each of the light sources on the mounting board, with each of the walls (15ax, 15ay) having an apex in a cross section.
A process for the recovery of industrial carbon material from a mixture of materials (100; 200; 300; 400), wherein the mixture (100; 200; 300; 400) comprises drilling fluids, drilled solids, and industrial carbon from a mud system (217; 317; 420), the process comprising: separating at least a portion of the drilled solids from the mixture (100; 200; 300; 400) to form a first effluent (106; 206; 306; 406) and a drilled solids fraction (104; 204; 304; 404); separating at least a portion of the industrial carbon from the first effluent (106; 206; 306; 406) to form a second effluent (110; 210; 310; 410) and a recovered industrial carbon fraction (112; 216; 316; 414); separating at least a portion of the recovered industrial carbon fraction (112; 216; 316; 414) to form at least one fraction of enhanced industrial carbon content; and recycling at least a portion of the recovered industrial carbon fraction (112; 216; 316; 414) to the mud system (217; 317; 420). separating at least a portion of the drilled solids from the mixture (100; 200; 300; 400) to form a first effluent (106; 206; 306; 406) and a drilled solids fraction (104; 204; 304; 404); separating at least a portion of the industrial carbon from the first effluent (106; 206; 306; 406) to form a second effluent (110; 210; 310; 410) and a recovered industrial carbon fraction (112; 216; 316; 414); separating at least a portion of the recovered industrial carbon fraction (112; 216; 316; 414) to form at least one fraction of enhanced industrial carbon content; and recycling at least a portion of the recovered industrial carbon fraction (112; 216; 316; 414) to the mud system (217; 317; 420).