mhurhangee/ep-ind-claims huggingface dataset:
A method for maintaining configuration synchronization via an on-line reconfiguration of system configuration parameters in a communication system having at least a first communication entity and a second communication entity (104 1, 104 2,...,104 N) that employ a baseline configuration of system configuration parameters that include bit loading table, the method comprising the procedures of: monitoring changes to at least one channel characteristic in at least one communication channel (106 1, 106 2,..., 106 N) that links said first communication entity and said second communication entity; determining by said first communication entity an active configuration that is constructed based on at least one modification relative to said baseline configuration without changing said baseline configuration itself, according to at least one change to said changes to said at least one channel characteristic, where from among said baseline configuration and said active configuration, said active configuration is configured for use in encoding transmission signals; transmitting an OLR request from said first communication entity to said second communication entity via said at least one communication channel; receiving said OLR request by said second communication entity; employing said active configuration by said first communication entity and by said second communication entity determining a need for a change to said baseline configuration; wherein when said change to said baseline configuration is determined, communicating between said first communication entity and said second communication entity, an updated baseline configuration, and employing said updated baseline configuration by said first communication entity and by said second communication entity. monitoring changes to at least one channel characteristic in at least one communication channel (106 1, 106 2,..., 106 N) that links said first communication entity and said second communication entity; determining by said first communication entity an active configuration that is constructed based on at least one modification relative to said baseline configuration without changing said baseline configuration itself, according to at least one change to said changes to said at least one channel characteristic, where from among said baseline configuration and said active configuration, said active configuration is configured for use in encoding transmission signals; transmitting an OLR request from said first communication entity to said second communication entity via said at least one communication channel; receiving said OLR request by said second communication entity; employing said active configuration by said first communication entity and by said second communication entity determining a need for a change to said baseline configuration; wherein when said change to said baseline configuration is determined, communicating between said first communication entity and said second communication entity, an updated baseline configuration, and employing said updated baseline configuration by said first communication entity and by said second communication entity.
A furnace comprising a tank (1, 31) having an outer wall and an inner wall, arranged to define a closed canal between said inner wall and said outer wall, wherein the tank (1, 31) is configured to, in use of the furnace, be filled with molten metal which will circulate along said closed canal in a continuous and cyclical manner, said furnace comprising in said closed canal defined between said inner wall and said outer wall: - at least one heating area comprising heating means configured to transfer energy to the molten metal in use of the furnace, thus overheating said molten metal; - at least one loading area configured for loading metal or metallic waste into said molten metal to be melted or treated, said metal or metallic waste, in used of the furnace, being dragged by the overheated molten metal on its surface; - a melting/treatment area configured to, in use of the furnace, receive the overheated molten metal and the metal or metallic waste dragged on its surface, the overheated molten metal transferring its exceeding energy to the dragged metal or metallic waste thus causing its melting/treatment; wherein the tank (1, 31) comprises a central hollow delimited by said inner wall, the furnace further comprising at least one driving means located within said central hollow, wherein said at least one driving means comprises a rotor comprising at least two permanent magnets, the rotor being coupled to a motor and configured to rotate upon activation of said motor, thus generating a magnetic field capable of causing said circulation of the molten metal within said closed canal in a continuous and cyclical manner along the heating area, loading area and melting/treatment area. - at least one heating area comprising heating means configured to transfer energy to the molten metal in use of the furnace, thus overheating said molten metal; - at least one loading area configured for loading metal or metallic waste into said molten metal to be melted or treated, said metal or metallic waste, in used of the furnace, being dragged by the overheated molten metal on its surface; - a melting/treatment area configured to, in use of the furnace, receive the overheated molten metal and the metal or metallic waste dragged on its surface, the overheated molten metal transferring its exceeding energy to the dragged metal or metallic waste thus causing its melting/treatment;
Method for dispensing plant protection product onto an agricultural field by way of a spraying device associated with a vehicle, wherein, during the dispensing of plant protection product, location or position data of the vehicle are sensed in particular by means of a satellite navigation system and transmitted to a computer unit preferably in the form of an on-board computer, wherein the location or position data of at least one body of water (3a, 3b) are stored in the computer unit and when a predefined distance (a, a1, a2) from the body of water is reached or fallen below, the manner of operation of the spraying device is controlled or regulated by the computer unit such that the dispensing of plant protection product is adapted and/or reduced and/or ended, wherein, in the computer unit, an application map is predefined, in which the agricultural field to be treated and the amounts of plant protection product dispensed or to be dispensed are stored, characterized in that - the predefined distance (a, a1, a2) from the particular body of water (3a, 3b) is input, loaded or read into the computer unit, - the body of water (3a, 3b) is approximated on the application map by means of a marker polygon, - the marker polygon is expanded by the predefined distance (a, a1, a2) from the body of water (3a, 3b) in order to form an expanded polygon (5, 5a, 5b), - an overlap line (6, 6a, 6b) is determined where the expanded polygon (5, 5a, 5b) overlaps the agricultural field to be treated, and in that - as soon as the vehicle reaches and crosses the overlap line (6, 6a, 6b), the computer unit automatically controls or regulates the spraying device such that the dispensing of the plant protection product is adapted and/or reduced and/or ended, in order not to pollute the body of water (3a, 3b) with the plant protection product. - the predefined distance (a, a1, a2) from the particular body of water (3a, 3b) is input, loaded or read into the computer unit, - the body of water (3a, 3b) is approximated on the application map by means of a marker polygon, - the marker polygon is expanded by the predefined distance (a, a1, a2) from the body of water (3a, 3b) in order to form an expanded polygon (5, 5a, 5b), - an overlap line (6, 6a, 6b) is determined where the expanded polygon (5, 5a, 5b) overlaps the agricultural field to be treated, and in that - as soon as the vehicle reaches and crosses the overlap line (6, 6a, 6b), the computer unit automatically controls or regulates the spraying device such that the dispensing of the plant protection product is adapted and/or reduced and/or ended, in order not to pollute the body of water (3a, 3b) with the plant protection product.
Method for the state-based maintenance of a coupling arrangement of a track-bound vehicle, the coupling arrangement having at least one coupling head for coupling to a diametrically opposed coupling head of a mating coupling and optionally at least one line coupling for coupling to a line coupling of a mating coupling to transmit electrical charge and/or data and/or liquid or gaseous media, comprising: a) providing coupling arrangement data in the form of operating data and optionally state data relating to the coupling arrangement; b) providing surroundings data for describing information relating to the ambient conditions to which the coupling arrangement is subject; c) transmitting the provided data - coupling arrangement data and/or surroundings data - to a data processing system and determining a target specification (Xsoll) for a maintenance requirement of the coupling arrangement as a function of the provided coupling arrangement data and surroundings data; d) recording images of the coupling arrangement for optical reproduction of the actual state and transmission to the data processing system; e) evaluating the optical actual state of the coupling arrangement from the images taking account of the target specification (Xsoll), which is formed from the operating and state data, in particular coupling arrangement data and surroundings data, for the maintenance requirement at an evaluation time and taking the evaluation as a basis for correcting the target specification (Xsoll) of the maintenance requirement. a) providing coupling arrangement data in the form of operating data and optionally state data relating to the coupling arrangement; b) providing surroundings data for describing information relating to the ambient conditions to which the coupling arrangement is subject; c) transmitting the provided data - coupling arrangement data and/or surroundings data - to a data processing system and determining a target specification (Xsoll) for a maintenance requirement of the coupling arrangement as a function of the provided coupling arrangement data and surroundings data; d) recording images of the coupling arrangement for optical reproduction of the actual state and transmission to the data processing system; e) evaluating the optical actual state of the coupling arrangement from the images taking account of the target specification (Xsoll), which is formed from the operating and state data, in particular coupling arrangement data and surroundings data, for the maintenance requirement at an evaluation time and taking the evaluation as a basis for correcting the target specification (Xsoll) of the maintenance requirement.
A seeder having a grain separation apparatus for separating the grains to be sown and having seed lines that can be acted on by compressed air for transporting the separated grains from the grain separation apparatus to sowing elements, wherein the grain separation apparatus is connectable to the seed lines by feed openings so that grains fed into the seed lines from the grain separation apparatus are entrained by the compressed air flow in the seed lines, wherein the seed lines each have at least one bypass opening for releasing compressed air in the transfer region between the grain separation apparatus and the seed lines, characterized in that the bypass opening opens into the grain separation apparatus and/or is in flow communication with an inner space of the grain separation apparatus.
Use of peptidyl arginine deiminase (EC 3.5.3.15) to improve solubility of a plant protein at a pH of between 5 and 8.5, wherein the plant protein is pea, soy or cereal.
A hopper railroad car top hatch cover assembly for a hopper railroad car including a roof including an upwardly extending coaming, the hopper railroad car hatch cover assembly comprising: a hatch cover pivotally connectable on one side of the coaming and including a movable hatch pivotally movable from a closed position engaging the coaming to an open position disengaged from the coaming; and a hatch cover securer movably connectable on an opposite side of the coaming, characterised in that the hatch cover securer further includes an icebreaker assembly engageable with an underside of the movable hatch and rotatable to provide a force to cause the movable hatch to move from the closed position toward the open position. a hatch cover pivotally connectable on one side of the coaming and including a movable hatch pivotally movable from a closed position engaging the coaming to an open position disengaged from the coaming; and a hatch cover securer movably connectable on an opposite side of the coaming, characterised in that the hatch cover securer further includes an icebreaker assembly engageable with an underside of the movable hatch and rotatable to provide a force to cause the movable hatch to move from the closed position toward the open position.
A method comprising: detecting, by an event module, a door event in a pressurized vehicle, the door event indicating that a door is not secure and air within the pressurized vehicle is being released through a passive pressure control device operably coupled to the door; determining, by an altitude module, an altitude of the pressurized vehicle in response to detecting the door event; and using an electronic pressure control device for reducing air inflow into the pressurized vehicle and/or increasing air outflow out of the pressurized vehicle through an active pressure control device (110a-n), in response to the altitude of the pressurized vehicle being below a cutoff altitude. detecting, by an event module, a door event in a pressurized vehicle, the door event indicating that a door is not secure and air within the pressurized vehicle is being released through a passive pressure control device operably coupled to the door; determining, by an altitude module, an altitude of the pressurized vehicle in response to detecting the door event; and using an electronic pressure control device for reducing air inflow into the pressurized vehicle and/or increasing air outflow out of the pressurized vehicle through an active pressure control device (110a-n), in response to the altitude of the pressurized vehicle being below a cutoff altitude.
A light-emitting device comprising: at least one light-emitting element; a casing; and a reflective layer, wherein the light-emitting element comprises: a light-emitting layer provided between a transparent electrode and an electrode; a transparent substrate provided on a side of the transparent electrode that is opposite to a side on which the electrode is provided; and a particle layer provided between the transparent electrode and the transparent substrate; and an adhesive layer provided between the transparent electrode and the particle layer, wherein the particle layer includes light-scattering particles having a refraction index that is higher than a refraction index of the transparent electrode, the reflective layer is provided between ends of the transparent substrate and the casing, and the particle layer and the adhesive layer are further provided between the reflective layer and the ends of the transparent substrate. at least one light-emitting element; a casing; and a reflective layer, wherein the light-emitting element comprises: a light-emitting layer provided between a transparent electrode and an electrode; a transparent substrate provided on a side of the transparent electrode that is opposite to a side on which the electrode is provided; and a particle layer provided between the transparent electrode and the transparent substrate; and a light-emitting layer provided between a transparent electrode and an electrode; a transparent substrate provided on a side of the transparent electrode that is opposite to a side on which the electrode is provided; and a particle layer provided between the transparent electrode and the transparent substrate; and an adhesive layer provided between the transparent electrode and the particle layer, wherein the particle layer includes light-scattering particles having a refraction index that is higher than a refraction index of the transparent electrode, the reflective layer is provided between ends of the transparent substrate and the casing, and the particle layer and the adhesive layer are further provided between the reflective layer and the ends of the transparent substrate.
An oxide catalyst for use in a vapor-phase catalytic oxidation or a vapor-phase catalytic ammoxidation of propane or isobutane, the oxide catalyst being represented by the following compositional formula: Mo 1 V a Sb b Nb c Mn d W e Y f O n wherein Y represents at least one element selected from alkaline earth metals and rare earth metals; a, b, c, d, e, f, and n each represents an atomic ratio based on one atom of Mo; 0.1 ≤ a ≤ 1, 0.01 ≤ b ≤ 1, 0.01 ≤ c ≤ 1, 0 < d < 0.08, 0 < e < 0.08; 0 < (d+e) ≤ 0.08, 0 ≤ f ≤ 1; and n is a number determined by valencies of the constituent metals.
A method for wireless communication at a first user equipment, UE, comprising: identifying information corresponding to a second discontinuous reception cycle configured for the first UE, wherein the information corresponding to the second discontinuous reception cycle comprises a paging periodicity that is shorter than an extended paging periodicity; transmitting a request for paging assistance to a second UE, wherein the request for paging assistance comprises the information corresponding to the second discontinuous reception cycle and an identification of the first UE; configuring a first discontinuous reception cycle associated with the extended paging periodicity based at least in part on the transmitted request; and receiving paging information from the second UE in response to the configured first discontinuous reception cycle, wherein the paging information comprises paging information from a base station. identifying information corresponding to a second discontinuous reception cycle configured for the first UE, wherein the information corresponding to the second discontinuous reception cycle comprises a paging periodicity that is shorter than an extended paging periodicity; transmitting a request for paging assistance to a second UE, wherein the request for paging assistance comprises the information corresponding to the second discontinuous reception cycle and an identification of the first UE; configuring a first discontinuous reception cycle associated with the extended paging periodicity based at least in part on the transmitted request; and receiving paging information from the second UE in response to the configured first discontinuous reception cycle, wherein the paging information comprises paging information from a base station.
A lipid having a structural Formula: X-A-Y-Z; or salts thereof, wherein: X is alkylamino; A is C 1 to C 6 optionally substituted alkyl or cycloalkyl, wherein said C 1 to C 6 optionally substituted alkyl or cycloalkyl can be saturated or unsaturated, wherein A may or may not be present, and wherein the term "optionally substituted alkyl or cycloalkyl" refers to replacement of at least one hydrogen atom with a substituent, selected from the group consisting of oxo, halogen, heterocycle, -CN, -OR x, -NR x R y, -NR x C(=O)R y, -NR x SO 2 R y, -C(=O)R x, -C(=O)OR x, -C(=O)NR x R y, -SO n R x, and -SO n NR x R y, wherein n is 0, 1, or 2, R x and R y are the same or different and are independently hydrogen, alkyl, or heterocycle, and each of the alkyl and heterocycle substituents may be further substituted with one or more of oxo, halogen, -OH, -CN, alkyl, -OR x, heterocycle, -NR x R y, -NR x C(=O)R y, -NR x SO 2 R y, -C(=O)R x, -C(=O)OR x, -C(=O)NR x R y, -SO n R x, and -SO n NR x R y; Y is selected from the group consisting of ketal, ester, carbamate optionally substituted with a saturated or unsaturated C 1 to C 6 alkyl group, ether, and amide optionally substituted with a saturated or unsaturated C 1 to C 6 alkyl group; and Z has the formula: wherein, R 1, R 2, and R 3 are each independently selected from the group consisting of C 8 to C 11 alkyl, wherein each of R 1, R 2, and R 3 can independently be saturated or unsaturated, and wherein each of R 1, R 2, and R 3 is optionally substituted with a hydroxyl group. X is alkylamino; A is C 1 to C 6 optionally substituted alkyl or cycloalkyl, wherein said C 1 to C 6 optionally substituted alkyl or cycloalkyl can be saturated or unsaturated, wherein A may or may not be present, and wherein the term "optionally substituted alkyl or cycloalkyl" refers to replacement of at least one hydrogen atom with a substituent, selected from the group consisting of oxo, halogen, heterocycle, -CN, -OR x, -NR x R y, -NR x C(=O)R y, -NR x SO 2 R y, -C(=O)R x, -C(=O)OR x, -C(=O)NR x R y, -SO n R x, and -SO n NR x R y, wherein n is 0, 1, or 2, R x and R y are the same or different and are independently hydrogen, alkyl, or heterocycle, and each of the alkyl and heterocycle substituents may be further substituted with one or more of oxo, halogen, -OH, -CN, alkyl, -OR x, heterocycle, -NR x R y, -NR x C(=O)R y, -NR x SO 2 R y, -C(=O)R x, -C(=O)OR x, -C(=O)NR x R y, -SO n R x, and -SO n NR x R y; Y is selected from the group consisting of ketal, ester, carbamate optionally substituted with a saturated or unsaturated C 1 to C 6 alkyl group, ether, and amide optionally substituted with a saturated or unsaturated C 1 to C 6 alkyl group; and Z has the formula: wherein, R 1, R 2, and R 3 are each independently selected from the group consisting of C 8 to C 11 alkyl, wherein each of R 1, R 2, and R 3 can independently be saturated or unsaturated, and wherein each of R 1, R 2, and R 3 is optionally substituted with a hydroxyl group.
A method for spray forming metal deposits, the method comprising providing a substrate having a spraying pattern for receiving sprayed metal particles and spraying metal particles onto the spraying pattern to form a metal deposit on the spraying pattern for at least a first spray period characterised in that the method further comprises controlling the spraying step during the first spray period so that the temperature of the deposited metal particles increases at an average rate of about 15°C per minute wherein the first spray period either: a) lasts until the temperature of the deposited metal particles is at a steady state temperature and the steady state temperature is 330°C to 370°C, or b) lasts until the thickness of the metal deposit is about 1 millimetre thick. a) lasts until the temperature of the deposited metal particles is at a steady state temperature and the steady state temperature is 330°C to 370°C, or b) lasts until the thickness of the metal deposit is about 1 millimetre thick.