mhurhangee/patent-ind-claim-en huggingface dataset:
Thermal conditioning device for a motor vehicle, comprising an air conditioning circuit (A) in which a refrigerant fluid circulates, and which comprises: - a compressor - at least one main condenser , - at least one evaporator , and - at least one expansion member , the air conditioning circuit (A) also comprising a unit for heating the refrigerant fluid, located upstream of the compressor , in the direction of circulation of the refrigerant fluid in the air conditioning circuit (A), characterized in that the air conditioning circuit (A) is connected to a thermal conditioning circuit (B) of a battery of the vehicle, - the thermal conditioning circuit (B) of the battery being connected in parallel with the evaporator , - the air conditioning circuit (A) and the thermal regulation circuit (B) of the battery are connected to each other at: - a first connection point arranged between the main condenser and the expansion member , - a second connection point arranged between the evaporator and the heating unit , the thermal regulation circuit (B) comprising: - a first bypass valve and a first expansion device that are arranged between the first connection point and the battery , - a second bypass valve and a second expansion device that are arranged between the battery and the second connection point . - a compressor - at least one main condenser , - at least one evaporator , and - at least one expansion member , - the thermal conditioning circuit (B) of the battery being connected in parallel with the evaporator , - the air conditioning circuit (A) and the thermal regulation circuit (B) of the battery are connected to each other at: - a first connection point arranged between the main condenser and the expansion member , - a second connection point arranged between the evaporator and the heating unit , the thermal regulation circuit (B) comprising: - a first bypass valve and a first expansion device that are arranged between the first connection point and the battery , - a second bypass valve and a second expansion device that are arranged between the battery and the second connection point . - a first connection point arranged between the main condenser and the expansion member , - a second connection point arranged between - a first bypass valve and a first expansion device that are arranged between the first connection point and the battery , - a second bypass valve and a second expansion device that are arranged between the battery and the second connection point .
A bag-based filtering device for collecting debris from a cleaning robot via a debris evacuation station, the filtering device comprising: a filter bag at least partially forming a receptacle for receiving at least a portion of the evacuated debris, the filter bag configured to separate at least the portion of the evacuated debris from a flow of air generated by the evacuation station; an inlet configured to interface with an outlet of the evacuation station ; and a conduit extending inward from an opening of the filter bag into the receptacle, the conduit comprising an opening proximate the inlet, the opening of the conduit having a width greater than a width (W3) of an opening of the inlet, wherein the conduit is configured to pneumatically connect the receptacle with the inlet of the filtering device to direct the flow of air generated by the evacuation station through the filter bag to separate at least the portion of the evacuated debris from the flow of air. a filter bag at least partially forming a receptacle for receiving at least a portion of the evacuated debris, the filter bag configured to separate at least the portion of the evacuated debris from a flow of air generated by the evacuation station; an inlet configured to interface with an outlet of the evacuation station ; and a conduit extending inward from an opening of the filter bag into the receptacle, the conduit comprising an opening proximate the inlet, the opening of the conduit having a width greater than a width (W3) of an opening of the inlet, wherein the conduit is configured to pneumatically connect the receptacle with the inlet of the filtering device to direct the flow of air generated by the evacuation station through the filter bag to separate at least the portion of the evacuated debris from the flow of air.
A method for determining the total saponin content of a sample, the method comprising at least the following steps, in this order: carrying out a reaction by adding p-anisaldehyde and sulfuric acid to said sample, which is solubilized in at least one solvent, the sulfuric acid being present in an amount ranging from 40% to 50%, most preferably an amount equal to 45%, by volume relative to the total volume of the reaction mixture; heating the reaction mixture to a temperature ranging from 45°C to 75°C, preferably ranging from 55°C to 65°C, most preferably a temperature equal to 60°C, to obtain a chromophore in solution; measuring the absorbance of the solution of the obtained chromophore at a wavelength ranging from 580 nm to 610 nm, preferably from 590 nm to 605 nm, most preferably a wavelength equal to 600 nm; producing a range of standard saponin solutions under the reaction conditions of steps and , i.e., using the same solvent, using the same amounts of p-anisaldehyde and sulfuric acid, at the same temperature and using the same heating durations on the basis of solutions of a saponin standard in different concentrations, the absorbances of which standard saponin solutions after chromogenic reaction are obtained at the wavelength defined in step ; quantifying the saponin content of the sample by comparing the absorbance of the solution of the chromophore measured in step with the range of absorbances of the standard solutions produced in step . carrying out a reaction by adding p-anisaldehyde and sulfuric acid to said sample, which is solubilized in at least one solvent, the sulfuric acid being present in an amount ranging from 40% to 50%, most preferably an amount equal to 45%, by volume relative to the total volume of the reaction mixture; heating the reaction mixture to a temperature ranging from 45°C to 75°C, preferably ranging from 55°C to 65°C, most preferably a temperature equal to 60°C, to obtain a chromophore in solution; measuring the absorbance of the solution of the obtained chromophore at a wavelength ranging from 580 nm to 610 nm, preferably from 590 nm to 605 nm, most preferably a wavelength equal to 600 nm; producing a range of standard saponin solutions under the reaction conditions of steps and , i.e., using the same solvent, using the same amounts of p-anisaldehyde and sulfuric acid, at the same temperature and using the same heating durations on the basis of solutions of a saponin standard in different concentrations, the absorbances of which standard saponin solutions after chromogenic reaction are obtained at the wavelength defined in step ; quantifying the saponin content of the sample by comparing the absorbance of the solution of the chromophore measured in step with the range of absorbances of the standard solutions produced in step .
A method for use in a coating process, the method comprising: locating at least one component within a coating chamber with respect to a source of coating material; characterised by : dynamically changing differential gas pressures of multiple localized zones in the coating chamber with respect to each other to dynamically shift a balance between coating material deposited onto surfaces of the at least one component that are in a line-of-sight of the source and coating material deposited onto surfaces of the at least one component that are shadowed from the line-of-sight to the source , the multiple localized zones including a first localized zone around the at least one component , a second localized zone adjacent the source of coating material, a third localized zone that diverges from the second localized zone toward the first localized zone , and a fourth localized zone that circumscribes at least the third localized zone , including increasing the gas pressure in the first localized zone with respect to the third localized zone to form a gas screen to limit or eliminate entry of coating material into the first localized zone from a plume of coating material within the third localized zone . locating at least one component within a coating chamber with respect to a source of coating material; characterised by : dynamically changing differential gas pressures of multiple localized zones in the coating chamber with respect to each other to dynamically shift a balance between coating material deposited onto surfaces of the at least one component that are in a line-of-sight of the source and coating material deposited onto surfaces of the at least one component that are shadowed from the line-of-sight to the source , the multiple localized zones including a first localized zone around the at least one component , a second localized zone adjacent the source of coating material, a third localized zone that diverges from the second localized zone toward the first localized zone , and a fourth localized zone that circumscribes at least the third localized zone , including increasing the gas pressure in the first localized zone with respect to the third localized zone to form a gas screen to limit or eliminate entry of coating material into the first localized zone from a plume of coating material within the third localized zone .
A method of forming a surface layer on a substrate , the method comprising: • forming a first layer (L1) of a first material (M1), • applying a second layer (L2) of a second material (M2) on the first layer (L1), • mixing the first and second layers (L1, L2) into a mix comprising the first (M1) and the second (M2) material, and • applying the mix on a substrate for forming a surface layer , wherein the first material (M1) comprises fibres and the second material (M2) comprises a thermosetting binder or wherein the first material (M1) comprises a thermosetting binder and the second material (M2) comprises fibres , wherein the first and second layers (L1, L2) are applied on a moveable transportation device (27a-d; 33), and wherein the first material (M1) and the second material (M2) are applied as essentially separate layers and are thereafter mixed when they pass an oscillating and/or rotating brush . • forming a first layer (L1) of a first material (M1), • applying a second layer (L2) of a second material (M2) on the first layer (L1), • mixing the first and second layers (L1, L2) into a mix comprising the first (M1) and the second (M2) material, and • applying the mix on a substrate for forming a surface layer , wherein the first material (M1) comprises fibres and the second material (M2) comprises a thermosetting binder or wherein the first material (M1) comprises a thermosetting binder and the second material (M2) comprises fibres , wherein the first and second layers (L1, L2) are applied on a moveable transportation device (27a-d; 33), and wherein the first material (M1) and the second material (M2) are applied as essentially separate layers and are thereafter mixed when they pass an oscillating and/or rotating brush .
An agricultural revisit machine to carry out a revisit operation of a planted plot, including a tool actuated by an actuating module , which includes a calculator able to compare the absolute position of the tool and an absolute position of a current revisit point, selected from revisit points of a revisit plan stored in the memory means of the calculator, the calculator being able to control the actuating module depending on the relative distance between the absolute position of the tool and the absolute position of the current revisit point, and whose calculator is able to determine a path allowing the displacement of the machine through the plot so that the tool can perform the revisit operation for each point of the revisit plan, characterized in that it includes a dual-frequency satellite positioning module , able to take into account corrections related to the disturbances affecting the propagation of the radionavigation signals emitted by each of the visible radionavigation satellites and which are induced by the ionosphere, so as to determine, at any time, an absolute position and precise to the nearest centimeter of the tool.
A method implemented in a wireless device for transmitting data in a wireless communication network , the method comprising: transmitting an access request message to a wireless access node in the wireless communication network: the access request message including a first information element indicating that the wireless device is requesting radio resources for a small data transmission and a second information element identifying a number of radio resources needed for the small data transmission ; receiving an assignment message from the wireless access node in response to the access request message, wherein the assignment message includes an indication of the radio resources assigned for the small data transmission; coding a first data block in the small data transmission according to a first predetermined coding scheme , wherein the first data block includes an indication of a second coding scheme for additional data blocks in the small data transmission; coding one or more additional data blocks in the small data transmission according to the second coding scheme specified in the first data block ; and transmitting the first data block and the one or more additional data blocks on the radio resources indicated by the assignment message . the access request message including a first information element indicating that the wireless device is requesting radio resources for a small data transmission and a second information element identifying a number of radio resources needed for the small data transmission ; receiving an assignment message from the wireless access node in response to the access request message, wherein the assignment message includes an indication of the radio resources assigned for the small data transmission; coding a first data block in the small data transmission according to a first predetermined coding scheme , wherein the first data block includes an indication of a second coding scheme for additional data blocks in the small data transmission; coding one or more additional data blocks in the small data transmission according to the second coding scheme specified in the first data block ; and transmitting the first data block and the one or more additional data blocks on the radio resources indicated by the assignment message .
A load detection sensor unit which is disposed below a sheet cushion (SC), comprising: a load detection sensor which includes a pair of electrodes facing each other with a predetermined gap interposed therebetween and a metal plate covering at least a part of one electrode located near the sheet cushion (SC) among the pair of electrodes from the sheet cushion (SC); a pressing member that includes a pressing portion pressed against the sheet cushion (SC) and harder than the sheet cushion (SC), wherein the pair of electrodes contacts each other when the metal plate is bent in a case in which the pressing portion presses a part of the metal plate , characterized by the load detection sensor unit further comprising a first movement regulation member that regulates a relative movement between the pressing member and the metal plate in a plane direction of the metal plate , wherein the first movement regulation member is a rib provided on the pressing member and inserted into a penetration hole formed in the metal plate . a load detection sensor which includes a pair of electrodes facing each other with a predetermined gap interposed therebetween and a metal plate covering at least a part of one electrode located near the sheet cushion (SC) among the pair of electrodes from the sheet cushion (SC); a pressing member that includes a pressing portion pressed against the sheet cushion (SC) and harder than the sheet cushion (SC), wherein the pair of electrodes contacts each other when the metal plate is bent in a case in which the pressing portion presses a part of the metal plate , characterized by the load detection sensor unit further comprising a first movement regulation member that regulates a relative movement between the pressing member and the metal plate in a plane direction of the metal plate , wherein the first movement regulation member is a rib provided on the pressing member and inserted into a penetration hole formed in the metal plate .
Apparatus for separating gas atmospheres in a lock, which comprises at least one blowing-in unit and one suction-extracting unit respectively on opposite walls over the transverse extent of the lock, the blowing-in units being provided directly opposite and the suction-extracting units being arranged downstream in the direction of material flow (M), characterized in that the blowing-in units respectively comprise at least two rows of a plurality of slotted nozzles with interruptions lying inbetween, the slotted nozzles of the rows being arranged offset in relation to one another, and the interruptions being shorter than the slotted nozzles of the neighboring row, in order that the slotted nozzles of the rows overlap in the direction of material flow (M), and in that the slotted nozzles of one blowing-in unit respectively lie opposite an interruption of the opposite blowing-in unit .
A baling system comprising: a baling chamber in which bales are formed, the baling chamber having a first side wall and a second sidewall defining a width of the baling chamber ; a rotary feeder to lift forage into the baling chamber , the rotary feeder having a second width (W1) less than or equal to the width of the baling chamber ; a first lateral forage mover on a first side of the rotary feeder and extending from the rotary feeder outwardly beyond the first sidewall ; a second lateral forage mover on a second side of the rotary feeder and extending from the rotary feeder outwardly beyond the second sidewall ; and at least one conveyance system to convey forage to the rotary feeder , the first lateral forage mover and the second lateral forage mover , the at least one conveyance system having a width greater than the width of the baling chamber ; a forage accumulation chamber in front of the baling chamber , wherein the at least one conveyance system underlies the forage accumulation chamber and the baling chamber ; a vertical screed belt between the forage accumulation chamber and the baling chamber , the vertical screed belt turning about an end directly opposite to and spaced from the conveyance system by at least 10,16 cm, wherein the vertical screed belt is to lift forage in the forage accumulation chamber ; characterized in that the forage accumulation chamber comprises a front wall and sidewalls forming an upwardly facing input opening through which forage falls into the forage accumulation chamber . a baling chamber in which bales are formed, the baling chamber having a first side wall and a second sidewall defining a width of the baling chamber ; a rotary feeder to lift forage into the baling chamber , the rotary feeder having a second width (W1) less than or equal to the width of the baling chamber ; a first lateral forage mover on a first side of the rotary feeder and extending from the rotary feeder outwardly beyond the first sidewall ; a second lateral forage mover on a second side of the rotary feeder and extending from the rotary feeder outwardly beyond the second sidewall ; and at least one conveyance system to convey forage to the rotary feeder , the first lateral forage mover and the second lateral forage mover , the at least one conveyance system having a width greater than the width of the baling chamber ; a forage accumulation chamber in front of the baling chamber , wherein the at least one conveyance system underlies the forage accumulation chamber and the baling chamber ; a vertical screed belt between the forage accumulation chamber and the baling chamber , the vertical screed belt turning about an end directly opposite to and spaced from the conveyance system by at least 10,16 cm, wherein the vertical screed belt is to lift forage in the forage accumulation chamber ; characterized in that the forage accumulation chamber comprises a front wall and sidewalls forming an upwardly facing input opening through which forage falls into the forage accumulation chamber .
A vehicle differential inversion assembly for increasing vertical wheel travel of a vehicle while splitting the torque of said vehicle's power source two ways to opposite sides of said vehicle, to a set of a left wheel and a right wheel supported by respective independent left and right suspensions allowing vertical travel of each wheel, the assembly comprising: a differential module for splitting said torque two ways, said differential module disposed between said left wheel and said right wheel, said differential module comprising a left side output and a right side output , said outputs spinning at opposed directions; a left output axle coupled with said left side output and extending to the left of said differential module; a right output axle coupled with said right side output and extending to the right of said differential module; a left wheel axle cross-coupled with said right output axle by a right inversion joint disposed at a distance to the right of said differential module, the left wheel axle extending towards and turning said left wheel; and a right wheel axle cross-coupled with said left output axle by a left inversion joint disposed at a distance to the left of said differential module, the right wheel axle extending towards and turning said right wheel; wherein said right inversion joint and said left inversion joint provide angular articulation of said left wheel axle and said right wheel axle, respectively, thereby allowing vertical travel of each said wheel . a differential module for splitting said torque two ways, said differential module disposed between said left wheel and said right wheel, said differential module comprising a left side output and a right side output , said outputs spinning at opposed directions; a left output axle coupled with said left side output and extending to the left of said differential module; a right output axle coupled with said right side output and extending to the right of said differential module; a left wheel axle cross-coupled with said right output axle by a right inversion joint disposed at a distance to the right of said differential module, the left wheel axle extending towards and turning said left wheel; and a right wheel axle cross-coupled with said left output axle by a left inversion joint disposed at a distance to the left of said differential module, the right wheel axle extending towards and turning said right wheel; wherein said right inversion joint and said left inversion joint provide angular articulation of said left wheel axle and said right wheel axle, respectively, thereby allowing vertical travel of each said wheel .