mhurhangee/ep-ind-claims huggingface dataset:
Method for the piloting of pneumatic members, particularly in a system for cleaning industrial filters, wherein said system comprises at least a power supply unit, a plurality of activation units (A 1 -A n) operatively connected to respective solenoid valves (EV 1 -EV n) for the command of pneumatic members, a single connection line between said power supply unit and said activation units (Ai-An), said method comprising: at least a step for producing on said line a voltage level (V x), selected from a set of predefined voltage levels (Vi-Vm); at least a step for maintaining said voltage level (V x) on said line for a time interval (Ty), selected from a set of predefined time intervals (T 1 -T q); characterized in that said voltage level (V x) and said time interval (Ty) together define a univocal address (V x, Ty) associated with one of said activation units (A x). at least a step for producing on said line a voltage level (V x), selected from a set of predefined voltage levels (Vi-Vm); at least a step for maintaining said voltage level (V x) on said line for a time interval (Ty), selected from a set of predefined time intervals (T 1 -T q); characterized in that said voltage level (V x) and said time interval (Ty) together define a univocal address (V x, Ty) associated with one of said activation units (A x).
An indoor unit of an air-conditioning device which supplies air to an indoor space, the indoor unit comprising: an indoor casing provided with outlet openings (24a to 24d) and an inlet opening; an airflow direction adjusting flap which is provided at each of the outlet openings (24a to 24d) and changes a direction of air coming from the outlet openings (24a to 24d) in a vertical direction; a temperature detector which detects a suction temperature of air sucked into the indoor casing from the inlet opening; a load detector which detects a load of the indoor space; and characterized by a controller which controls the airflow direction adjusting flap when the load of the indoor space is higher than a predetermined value in a heating operation, such that the direction of the air coming from the outlet opening (24a to 24d) is a horizontal direction or directed upward from the horizontal direction, wherein the load of the indoor space is higher than the predetermined value in the heating operation, when a difference between a set temperature in the heating operation and the suction temperature is greater than a predetermined difference. an indoor casing provided with outlet openings (24a to 24d) and an inlet opening; an airflow direction adjusting flap which is provided at each of the outlet openings (24a to 24d) and changes a direction of air coming from the outlet openings (24a to 24d) in a vertical direction; a temperature detector which detects a suction temperature of air sucked into the indoor casing from the inlet opening; a load detector which detects a load of the indoor space; and characterized by a controller which controls the airflow direction adjusting flap when the load of the indoor space is higher than a predetermined value in a heating operation, such that the direction of the air coming from the outlet opening (24a to 24d) is a horizontal direction or directed upward from the horizontal direction, wherein the load of the indoor space is higher than the predetermined value in the heating operation, when a difference between a set temperature in the heating operation and the suction temperature is greater than a predetermined difference.
A blocking bar for a load securing system, said blocking bar with a first end being able to be fixed in a first airline track of the load securing system and with a second end in a second airline track of the load securing system, wherein the first end and the second end of the blocking bar can each be positively fixed in the respective airline track in all directions and the blocking bar is designed in a telescopic manner, characterised in that at least one of the first and the second end (2, 3) of the blocking bar is provided with at least two positive-fit elements which are provided for fixation in the airline track and of which at least one is fixedly arranged on the blocking bar and the other is movably arranged in the longitudinal a direction of the blocking bar and that a spring-loaded bolt is provided, said bolt being extendable out of the end (2, 3) of the blocking bar and being positively fixable in the airline track, wherein the first, non-movable positive-fit element is a centring element which is arranged on an outer periphery of the spring bolt and which is designed to block a lateral displacement of the spring bolt in the airline track and that the second positive-fit element is movable and is formed by the spring-loaded bolt which is axially fixable in the airline track by a spring-loaded securing ring which is arranged on an outer periphery of the centring element and is displaceable along the outer periphery of the centring element.
A medical image data processing method for determining a clinical target volume for a medical treatment, wherein the method comprises executing, on at least one processor of at least one computer, steps of: a) acquiring first image data describing at least one image of an anatomical structure of a patient; b) acquiring second image data describing an indicator for a preferred spreading direction or probability distribution of a position of at least one target cell; c) determining registration data describing a registration of the first image data to the second image data by performing a co-registration between the first image data and the second image data using a registration algorithm; d) determining gross target region data describing a target region in the at least one image of the anatomical structure based on the first data; characterized by e) determining margin region data describing a margin around the target region based on the gross target region data; f) determining clinical target volume data describing a volume in the anatomical structure for the medical treatment based on the registration data, the gross target region data and the margin region data, wherein by considering the second image data an optimized target volume is determined, wherein the volume described by the clinical target volume data comprises the target region plus the margin; acquiring threshold data describing at least one threshold for a value described by the second image data, wherein determining the optimized clinical target volume data is further based on the threshold data for the target region plus the margin, wherein the optimized clinical target volume is generated automatically. a) acquiring first image data describing at least one image of an anatomical structure of a patient; b) acquiring second image data describing an indicator for a preferred spreading direction or probability distribution of a position of at least one target cell; c) determining registration data describing a registration of the first image data to the second image data by performing a co-registration between the first image data and the second image data using a registration algorithm; d) determining gross target region data describing a target region in the at least one image of the anatomical structure based on the first data; characterized by e) determining margin region data describing a margin around the target region based on the gross target region data; f) determining clinical target volume data describing a volume in the anatomical structure for the medical treatment based on the registration data, the gross target region data and the margin region data, wherein by considering the second image data an optimized target volume is determined, wherein the volume described by the clinical target volume data comprises the target region plus the margin; acquiring threshold data describing at least one threshold for a value described by the second image data,
A process for isolating 2,4-bis-(2,4-dihydroxyphenyl)-6-(4-methoxyphenyl)-1,3,5-triazine (DIOPAT) from an aqueous alkaline mixture M comprising (i) the 2,4-bis-(2,4-dihydroxyphenyl)-6-(4-methoxyphenyl)-1,3,5-triazine; (ii) 2,4-dihydroxybenzophenone; and (iii) aluminum salts; wherein the process comprises the steps of a) precipitating the 2,4-bis-(2,4-dihydroxyphenyl)-6-(4-methoxyphenyl)-1,3,5-triazine by acidifying the mixture M to a pH < 1; b) heating the acidified mixture M to a temperature in the range of from 80 °C to 95 °C; c) separating the precipitated 2,4-bis-(2,4-dihydroxyphenyl)-6-(4-methoxyphenyl)-1,3,5-triazine from the dissolved 2,4-dihydroxybenzophenone and the dissolved aluminium salts with a ceramic membrane by means of diafiltration with water, whereby the pH increases from < 1 to at most 3 and the temperature remains in the range of from 80 °C to 95 °C, wherein the separation step c) provides the precipitated 2,4-bis-(2,4-dihydroxyphenyl)-6-(4-methoxyphenyl)-1,3,5-triazine in the form of an aqueous suspension in the retentate, and the dissolved 2,4-dihydroxybenzophenone and the dissolved aluminum salts in the form of an aqueous solution in the permeate. (i) the 2,4-bis-(2,4-dihydroxyphenyl)-6-(4-methoxyphenyl)-1,3,5-triazine; (ii) 2,4-dihydroxybenzophenone; and (iii) aluminum salts; wherein the process comprises the steps of a) precipitating the 2,4-bis-(2,4-dihydroxyphenyl)-6-(4-methoxyphenyl)-1,3,5-triazine by acidifying the mixture M to a pH < 1; b) heating the acidified mixture M to a temperature in the range of from 80 °C to 95 °C; c) separating the precipitated 2,4-bis-(2,4-dihydroxyphenyl)-6-(4-methoxyphenyl)-1,3,5-triazine from the dissolved 2,4-dihydroxybenzophenone and the dissolved aluminium salts with a ceramic membrane by means of diafiltration with water, whereby the pH increases from < 1 to at most 3 and the temperature remains in the range of from 80 °C to 95 °C, a) precipitating the 2,4-bis-(2,4-dihydroxyphenyl)-6-(4-methoxyphenyl)-1,3,5-triazine by acidifying the mixture M to a pH < 1; b) heating the acidified mixture M to a temperature in the range of from 80 °C to 95 °C; c) separating the precipitated 2,4-bis-(2,4-dihydroxyphenyl)-6-(4-methoxyphenyl)-1,3,5-triazine from the dissolved 2,4-dihydroxybenzophenone and the dissolved aluminium salts with a ceramic membrane by means of diafiltration with water, whereby the pH increases from < 1 to at most 3 and the temperature remains in the range of from 80 °C to 95 °C, wherein the separation step c) provides the precipitated 2,4-bis-(2,4-dihydroxyphenyl)-6-(4-methoxyphenyl)-1,3,5-triazine in the form of an aqueous suspension in the retentate, and the dissolved 2,4-dihydroxybenzophenone and the dissolved aluminum salts in the form of an aqueous solution in the permeate.
A driving support apparatus for a saddle type vehicle having a back mirror apparatus which reflects a situation behind the vehicle, wherein a driving support system is adapted to carry out, when a different vehicle exists in a communication area of the own vehicle, transmission and reception of at least position information between the own vehicle and the different vehicle and provides driving support information of traveling relating to a risk of the own vehicle with regard to the different vehicle based on the position information is mounted, said driving support apparatus comprising: display means (110, 120) adapted to display the driving support information; and display controlling means adapted to control a display mode of said display means based on a positional relationship between the own vehicle and the different vehicle; said display means includes: first display means adapted to display the driving support information when a different vehicle exists at a position ahead of the own vehicle; and second display means adapted to display the driving support information when a different vehicle exists at a position behind the own vehicle; characterized in that said second display means is formed as a separate body from said first display means and is provided on a mirror base portion of the back mirror apparatus. display means (110, 120) adapted to display the driving support information; and display controlling means adapted to control a display mode of said display means based on a positional relationship between the own vehicle and the different vehicle; said display means includes: first display means adapted to display the driving support information when a different vehicle exists at a position ahead of the own vehicle; and second display means adapted to display the driving support information when a different vehicle exists at a position behind the own vehicle; first display means adapted to display the driving support information when a different vehicle exists at a position ahead of the own vehicle; and second display means adapted to display the driving support information when a different vehicle exists at a position behind the own vehicle; characterized in that said second display means is formed as a separate body from said first display means and is provided on a mirror base portion of the back mirror apparatus.
A method for forming a GCIB-treated resistive device (102, 202, 402, 502, 602, 702, 802), comprising: forming a lower electrode (107, 207, 440, 540, 640, 740); forming an oxide material (446, 546, 646, 746) on the lower electrode (107, 207, 440, 540, 640, 740); exposing the oxide material (446, 546, 646, 746) to a gas cluster ion beam (GCIB) until a change occurs in resistance of a first portion (104, 204, 304, 448, 548, 649, 752, 806-1, 806-2) of the oxide material relative to the resistance of a second portion (106, 206, 306, 447, 547, 647, 747, 804-1, 804-2) of the oxide material; and forming an upper electrode (105, 205, 450, 550, 650, 750) on the first portion (104, 204, 304, 448, 548, 649, 752, 806-1, 806-2). forming a lower electrode (107, 207, 440, 540, 640, 740); forming an oxide material (446, 546, 646, 746) on the lower electrode (107, 207, 440, 540, 640, 740); exposing the oxide material (446, 546, 646, 746) to a gas cluster ion beam (GCIB) until a change occurs in resistance of a first portion (104, 204, 304, 448, 548, 649, 752, 806-1, 806-2) of the oxide material relative to the resistance of a second portion (106, 206, 306, 447, 547, 647, 747, 804-1, 804-2) of the oxide material; and forming an upper electrode (105, 205, 450, 550, 650, 750) on the first portion (104, 204, 304, 448, 548, 649, 752, 806-1, 806-2).
Motor vehicle comprising a storage compartment in an interior trim of said motor vehicle, whereby said storage compartment comprises: - a hatch element that is disposed at a side panel of a first area of the storage compartment, said hatch element connecting the first area of the storage compartment with the exterior of the motor vehicle; and - an access element that is disposed at a panel of a second area of the storage compartment, said access element connecting the second area of the storage compartment with a passenger compartment of the motor vehicle; wherein the motor vehicle comprises: - a conveyor element arranged in the storage compartment, wherein said conveyor element extends from the first area to the second area of the storage compartment, and wherein said conveyor element is constructed to transport an object from one of said areas (20, 28) to the other of said areas (20, 28); wherein the motor vehicle is characterized by a divider element for at least partially separating the first area from the second area of the storage compartment. - a hatch element that is disposed at a side panel of a first area of the storage compartment, said hatch element connecting the first area of the storage compartment with the exterior of the motor vehicle; and - an access element that is disposed at a panel of a second area of the storage compartment, said access element connecting the second area of the storage compartment with a passenger compartment of the motor vehicle; - a conveyor element arranged in the storage compartment, wherein said conveyor element extends from the first area to the second area of the storage compartment, and wherein said conveyor element is constructed to transport an object from one of said areas (20, 28) to the other of said areas (20, 28);
A method for performing an earthmoving operation with a work vehicle, the work vehicle having an articulable implement, the method comprising: receiving, with a computing device, an input associated with a target profile of a worksite; receiving, with the computing device, data indicative of a soil composition of a worksite below a surface of the worksite; generating, with the computing device, an earthmoving prescription map based at least in part on the target profile of the worksite and the soil composition of the worksite, the earthmoving prescription map indicating soil composition layers between the surface of the worksite and the target profile of the worksite; and controlling, with the computing device, an operation of the work vehicle based at least in part on the earthmoving prescription map to automatically perform an earthmoving operation to separate the different soil composition layers based on the earthmoving prescription map; the method is characterized in that controlling the operation of the work vehicle comprises controlling the operation of the work vehicle to perform an earthmoving operation with the implement at the worksite based at least in part on the earthmoving prescription map, wherein the earthmoving prescription map identifies the depth range across which each soil composition layer extends for each position within the worksite. receiving, with a computing device, an input associated with a target profile of a worksite; receiving, with the computing device, data indicative of a soil composition of a worksite below a surface of the worksite; generating, with the computing device, an earthmoving prescription map based at least in part on the target profile of the worksite and the soil composition of the worksite, the earthmoving prescription map indicating soil composition layers between the surface of the worksite and the target profile of the worksite; and controlling, with the computing device, an operation of the work vehicle based at least in part on the earthmoving prescription map to automatically perform an earthmoving operation to separate the different soil composition layers based on the earthmoving prescription map; the method is characterized in that controlling the operation of the work vehicle comprises controlling the operation of the work vehicle to perform an earthmoving operation with the implement at the worksite based at least in part on the earthmoving prescription map, wherein the earthmoving prescription map identifies the depth range across which each soil composition layer extends for each position within the worksite.
A curable composition comprising - a fluoroelastomer that contains a cyano group in a main chain and/or a side chain thereof, and - an amide compound which has an azo structure and produces NH 3 when decomposed. - a fluoroelastomer that contains a cyano group in a main chain and/or a side chain thereof, and - an amide compound which has an azo structure and produces NH 3 when decomposed.
Gas-insulated medium-voltage switch (1,2) comprising: - a first contact element having an arcing contact surface and a nominal contact surface, wherein the first contact element is moveable along an axis of the switch (1,2) for opening and closing the switch (1,2); - a second contact element configured to make contact with the first contact element for closing the switch (1,2); and - a shield, wherein the shield and the first contact element are movable relative to each other along the axis between an exposing configuration and a shielding configuration, such that the shield and the first contact element are in the exposing configuration when the switch (1, 2) is in a closed state and in the shielding configuration during opening of the switch (1,2), wherein in the exposing configuration, the shield and the first contact element are arranged to expose the nominal contact surface to the second contact element, and in the shielding configuration, the shield and the first contact element are arranged to shield the nominal contact surface of the first contact element from the second contact element, characterised in that the shield is configured to be moved during a current breaking operation along the axis of the switch (1, 2) between the exposing configuration and the shielding configuration. - a first contact element having an arcing contact surface and a nominal contact surface, wherein the first contact element is moveable along an axis of the switch (1,2) for opening and closing the switch (1,2); - a second contact element configured to make contact with the first contact element for closing the switch (1,2); and - a shield,
A method of seismic acquisition comprising: (a) positioning a first seismic source array comprising a plurality of seismic sources over a seismic survey region, the seismic source array generating an output amplitude; (b) activating the first seismic source array according to one of a plurality of different firing patterns so as to generate a plurality of seismic signals, the firing patterns comprising a plurality of different time intervals between the activation of each seismic source within the first seismic source array, wherein each firing pattern is optimized so as to minimize the output amplitude and each firing pattern creating a plurality of notches in a frequency spectrum of seismic signals recorded therefrom; (c) recording the plurality of seismic signals reflected from one or more subterranean formations; and (d) using a sparse inversion method to process the plurality of seismic signals to solve the following equation: d ≈ A C m wherein d is an acquired dataset from recording the plurality of seismic signals in (c), m is a desired dataset, A is a convolution operator chosen such that the notches correspond to a null space of A, and C is an operator that ensures that m is spatially continuous. (a) positioning a first seismic source array comprising a plurality of seismic sources over a seismic survey region, the seismic source array generating an output amplitude; (b) activating the first seismic source array according to one of a plurality of different firing patterns so as to generate a plurality of seismic signals, the firing patterns comprising a plurality of different time intervals between the activation of each seismic source within the first seismic source array, wherein each firing pattern is optimized so as to minimize the output amplitude and each firing pattern creating a plurality of notches in a frequency spectrum of seismic signals recorded therefrom; (c) recording the plurality of seismic signals reflected from one or more subterranean formations; and (d) using a sparse inversion method to process the plurality of seismic signals to solve the following equation: d ≈ A C m