mhurhangee/ep-ind-claims huggingface dataset:
An encoder (100, 200) comprising a processor and a memory, wherein said processor is operable to: determine, for a picture of a video sequence comprising multiple pictures each having a respective depth in a hierarchical coding structure, a value of a deblocking parameter based on a depth of said picture within said hierarchical coding structure, wherein said value of said deblocking parameter is determined to be equal to or higher for the picture when having a higher depth in said hierarchical coding structure as compared to another picture having a lower depth in said hierarchical coding structure so that not all pictures in said hierarchical coding structure have a same value of said deblocking parameter; encode said value of said deblocking parameter to form an encoded value of said deblocking parameter; and send said encoded value to a decoder (85, 95, 400, 500, 600, 800). determine, for a picture of a video sequence comprising multiple pictures each having a respective depth in a hierarchical coding structure, a value of a deblocking parameter based on a depth of said picture within said hierarchical coding structure, wherein said value of said deblocking parameter is determined to be equal to or higher for the picture when having a higher depth in said hierarchical coding structure as compared to another picture having a lower depth in said hierarchical coding structure so that not all pictures in said hierarchical coding structure have a same value of said deblocking parameter; encode said value of said deblocking parameter to form an encoded value of said deblocking parameter; and send said encoded value to a decoder (85, 95, 400, 500, 600, 800).
A bioreactor, in particular a fermentation reactor, comprising a cylindrical reactor tank with a vertical axis and a stirring mechanism which is arranged in a flow guide tube and conveys essentially vertically in the downward direction, as well as a heat exchanger arranged in the interior of the reactor tank, wherein the heat exchanger is arranged in the region of the outlet opening of the flow guide tube and comprises vertical flow guide elements which face radially to the outside with respect to the vertical axis of the reactor tank, characterised in that several, preferably all, flow guide elements each have an upper tube fed by a first ring line and a lower tube fed by a second ring line, wherein the two tubes (6, 8) of each flow guide element are designated for the supply and removal of a heating or cooling medium, and a vertical guide plate is arranged between the two pipes (6, 8).
Method for generating and purifying a synthesis gas stream, having the steps of: - generating a CO- and H 2 -containing synthesis gas stream from a hydrocarbon-containing insert in a gas generating unit, - separating at least CO 2 from the synthesis gas stream, and - cryogenically separating CO from the synthesis gas stream, characterized in that CO2, which is present at a concentration in the range of 5 vol% to 30 vol% in the synthesis gas stream, is depleted to less than 10 vol. ppm by means of a temperature change adsorption from the synthesis gas stream upstream of the cryogenic separation of CO, wherein CO 2 is adsorbed at an adsorbent, and wherein upon adsorption of CO 2 the adsorbent is cooled by means of indirect thermal transfer from the adsorbent to the thermal transfer medium, and the adsorbent charged with CO 2 is at least partially heated via indirect thermal transfer from a thermal transfer medium to the adsorbent for desorption of CO 2, wherein the adsorbed CO 2 is desorbed at a pressure ranging from 5 bar to 90 bars, preferably 15 bar to 60 bar, and is returned into the gas generating unit as an educt for the generation of synthesis gas. - generating a CO- and H 2 -containing synthesis gas stream from a hydrocarbon-containing insert in a gas generating unit, - separating at least CO 2 from the synthesis gas stream, and - cryogenically separating CO from the synthesis gas stream, characterized in that
A method of operating a hydraulic brake system of a motor vehicle having a mechatronic brake booster, the method comprising: monitoring a position of an accelerator pedal; upon detection of an accelerator pedal release rate threshold, actuating a motor of the mechatronic brake booster to increase pressure in the hydraulic brake system, wherein said pressure is used to apply wheel brakes; closing pressure feed valves in the brake system to isolate the wheel brakes from pressure in the hydraulic brake system; controlling a speed of the motor; and opening the pressure feed valves (250; 270) in response to a braking request or expiration of a predetermined time interval after the propulsion request has ended or been reduced; characterized in that said step of controlling the speed of the motor comprises to build a pressure head. monitoring a position of an accelerator pedal; upon detection of an accelerator pedal release rate threshold, actuating a motor of the mechatronic brake booster to increase pressure in the hydraulic brake system, wherein said pressure is used to apply wheel brakes; closing pressure feed valves in the brake system to isolate the wheel brakes from pressure in the hydraulic brake system; controlling a speed of the motor; and opening the pressure feed valves (250; 270) in response to a braking request or expiration of a predetermined time interval after the propulsion request has ended or been reduced; said step of controlling the speed of the motor comprises to build a pressure head.
A perforating equipment (111; 206) for continuous forms (122, 123; 58, 129) in movement comprising a first transversal perforating device (54, 231) and a second transversal perforating device (56, 207) for executing transversal perforations on requested positions of the form (122, 123; 58, 129), and in which each transversal perforating device includes a contrast member (61, 62; 238, 217) with a contrast surface (lateral surface of 61, 62; surface 213 of 238, 217) having possibility of tangency with the movement surface of the form (122, 123; 58, 129) and in synchronism with the form, a blade support (112, 113, 233, 208) provided for rotation and mounting a perforating blade (124b, 126b), said blade having possibility of interference with the form (122, 123; 58, 129) in movement for executing transversal perforations; and a blade servomechanism servoized to indications of position of the form (122, 123; 58, 129) and controlling the rotation of the blade support (112, 113, 233, 208) for a condition of interference of the blade or a selected blade (124b, 126b) in the requested position of the form; the said equipment (111; 206) being characterized in that it is provided for perforating continuous forms (122; 58) to be divided into three longitudinal sections and comprises a third transversal perforating device (57; 232) similar to the first perforating device (54, 231), and an activation group (104, 106, 107; 241, 218, 242) of each perforating device for positioning the contrast surface against the blade or a selected blade (124b, 126b) in transit, in which the blade supports (112 and 113, 233 and 208) of the first perforating device (54, 231) and the second perforating device (56, 207) mount two blades (124b, 124a; 126b, 126a) of which a blade (124b, 126b) for two section forms is associated to the perforation of continuous forms (123, 129) to be divided in two longitudinal sections and a blade (124a, 126a) for three section forms is associated to the perforation of continuous forms (122; 58) to be divided in three longitudinal sections; and in which the activation group (104, 106, 107; 241, 218, 242) is functional to the positioning of the contrast surface (lateral surface of 61, 62; surface 213 of 238, 217) against the blade (124a, 126a, 127a) for three section forms for perforating the forms (122; 58) to be divided into three sections, or functional to the positioning of the contrast surface against the blade (124b, 126b) for two section forms for perforating the forms (123, 129) to be divided into two longitudinal sections.
Method for detecting and locating hydrocarbon deposits under a body of water, the method comprising: - acquiring superposable images of a surface of the body of water taken at different times; - for each image: • identifying traces (2, 201, 202) of hydrocarbon leaks; • generating a detection map indicative of probabilities of the presence of a hydrocarbon source around the identified traces of hydrocarbon leaks, by processing the image at least on the basis of a criterion of distance from the identified traces of hydrocarbon leaks; - combining the detection maps generated to produce a location map (500, 510) of the sources of hydrocarbon leaks, the method being characterised in that the processing of each image on the basis of at least one criterion of distance from the traces of identified hydrocarbon leaks comprises assigning to each point i of the image a value calculated on the basis of the distance d i of the point i from the trace of the identified hydrocarbon leak closest to point i. - acquiring superposable images of a surface of the body of water taken at different times; - for each image: • identifying traces (2, 201, 202) of hydrocarbon leaks; • generating a detection map indicative of probabilities of the presence of a hydrocarbon source around the identified traces of hydrocarbon leaks, by processing the image at least on the basis of a criterion of distance from the identified traces of hydrocarbon leaks; • identifying traces (2, 201, 202) of hydrocarbon leaks; • generating a detection map indicative of probabilities of the presence of a hydrocarbon source around the identified traces of hydrocarbon leaks, by processing the image at least on the basis of a criterion of distance from the identified traces of hydrocarbon leaks; - combining the detection maps generated to produce a location map (500, 510) of the sources of hydrocarbon leaks,
A method for inventorying a Radio Frequency Identification (RFID) tag comprising: directing a first synthesized-beam reader and a second synthesized-beam reader to steer a first beam from the first synthesized-beam reader to a target location and a second beam from the second synthesized-beam reader to the target location; transmitting, simultaneously, from the first synthesized-beam reader a modulated RF inventory signal and from the second synthesized-beam reader an unmodulated RF signal; receiving, responsive to the modulated RF inventory signal, a tag reply at one of the first and second synthesized-beam readers; and transmitting, from one of the first and second synthesized-beam readers, a modulated RF acknowledgment signal responsive to the tag reply, and from the other of the first and second synthesized-beam readers an unmodulated RF signal. directing a first synthesized-beam reader and a second synthesized-beam reader to steer a first beam from the first synthesized-beam reader to a target location and a second beam from the second synthesized-beam reader to the target location; transmitting, simultaneously, from the first synthesized-beam reader a modulated RF inventory signal and from the second synthesized-beam reader an unmodulated RF signal; receiving, responsive to the modulated RF inventory signal, a tag reply at one of the first and second synthesized-beam readers; and transmitting, from one of the first and second synthesized-beam readers, a modulated RF acknowledgment signal responsive to the tag reply, and from the other of the first and second synthesized-beam readers an unmodulated RF signal.
A method for installing a pre-assembled powerplant and pylon assembly on an aircraft, comprising: determining a first length of a first link with a first end and a second end, the first link being positionable between the pylon and the aircraft; determining a second length of a second link with a third end and a fourth end, the second link being positionable between the pylon and the aircraft; determining a first distance between a first position on the pylon and a second position on the aircraft, wherein the first position and the first end are in register when the first link connects the pylon to the aircraft and the second position and the second end are in register when the first link connects the pylon to the aircraft; determining a second distance between a third position on the pylon and a fourth position on the aircraft, wherein the third position and the third end are in register when the second link connects the pylon to the aircraft and the fourth position and the fourth end are in register when the second link connects the pylon to the aircraft; determining a first result by subtracting the first distance from the first length; determining a second result by subtracting the second distance from the second length; determining a third result by adding the first result and the second result; if the third result is less than or equal to zero, installing the first link between the pylon and the aircraft before installing the second link; and if the third result is greater than zero, installing the second link between the pylon and the aircraft before installing the first link. determining a first length of a first link with a first end and a second end, the first link being positionable between the pylon and the aircraft; determining a second length of a second link with a third end and a fourth end, the second link being positionable between the pylon and the aircraft; determining a first distance between a first position on the pylon and a second position on the aircraft, wherein the first position and the first end are in register when the first link connects the pylon to the aircraft and the second position and the second end are in register when the first link connects the pylon to the aircraft; determining a second distance between a third position on the pylon and a fourth position on the aircraft, wherein the third position and the third end are in register when the second link connects the pylon to the aircraft and the fourth position and the fourth end are in register when the second link connects the pylon to the aircraft; determining a first result by subtracting the first distance from the first length; determining a second result by subtracting the second distance from the second length; determining a third result by adding the first result and the second result; if the third result is less than or equal to zero, installing the first link between the pylon and the aircraft before installing the second link; and if the third result is greater than zero, installing the second link between the pylon and the aircraft before installing the first link.
Floor covering, which is composed of panels (12,14;112), which comprise a core made from a plastic material and two cover layers (28,30) which laminate the upper side of the core and which are provided on their connected side edges (16,18) with complementary and form-fitting interconnecting locking profiles (20,22; 120), wherein to form a joint between two connected panels (12,14; 112) at least one of said panels is provided on the upper side of its side edge with a milling groove (60; 160), over the width of which the cover layers (28,30) are completely removed, so that the base (62; 162) of the milling groove (60; 160) is formed by the core material, wherein a decorative layer consisting of a printed decorative film and a wearing layer on top of the latter made from a resistant transparent plastic are arranged on the core as cover layers (28, 30), the base (62; 162) of the milling groove (60; 160) forms a horizontal bottom of the joint which has an essentially rectangular cross-section with approximately perpendicular side walls (64; 164) which are provided with chamfers (70; 170) on their upper edges, characterised in that the chamfers (70; 170) only extend within the wearing layer and in that the wearing layer always covers the decorative layer.
A manufacturing method for a pneumatic tire, wherein a rubber composition is used in the tread of the pneumatic tire, wherein the rubber composition contains 30 to 150 parts by mass of silica and 0.5 to 10 parts by mass of an organic vulcanization agent to 100 parts by mass of a rubber component, wherein the method comprises a first kneading step of kneading the organic vulcanization agent and silica into the rubber component, and a second kneading step of kneading thereafter a vulcanization agent and a vulcanization accelerator into the kneaded product obtained in the first kneading step, wherein the organic vulcanization agent is represented by the following general formula: R 1 -(R-S x) n -R 2, in which R is (CH 2 -CH 2 -O) m -CH 2 -CH, and R 1 and R 2 are independently hydrogen, a methyl group, a thiol group, a hydroxy group, a carboxyl group, or an aldehyde group, X is an integer of 3 to 6, n is an integer of 10 to 400, and m is an integer of 1 to 5.
Sensor unit insertable into an opening of a formwork wall of a lost formwork for building material construction, said sensor unit being configured to measure a lateral pressure exerted on formwork walls (3, 5) by building material filled into a space enclosed by the formwork walls (3, 5), comprising a pressure chamber; a pressure transducer connected to the pressure chamber; a control unit configured to control the pressure transducer; and an arrangement for fastening and releasing the sensor unit in the opening of the formwork wall, comprising an expansion member and an actuating device adapted to actuate the expansion member, wherein the expansion member, in an actuated state, is adapted to fasten the sensor unit in the opening of the formwork wall, and wherein the expansion member in a non-actuated state is adapted to release the sensor unit from its fastening in the opening of the formwork wall, the sensor unit being characterized in that, the expansion member is formed by a substantially cylindrical rubber element fitted around the substantially cylindrical pressure chamber and in that the actuating device comprises at least one lever arm (22a,22b), and end portion (22a1,22a2,22b1,22b2) of which is pivot mounted to a first plate, wherein the end portion has a substantially rectangular shape with first opposite sides (22c, 22d) having a first length and second opposite sides (22e, 22f) having a second length greater that the first length, wherein in an actuated position of the at least one lever arm (22a, 22b), the end portion (22a1, 22a2, 22b1, 22b2) of the actuating device is adapted to move the first plate in an axial direction, thereby exerting an axial force on the expansion member causing the expansion member to expand in a radial direction.
An autonomous vehicle comprising: one or more processors; a network interface; and a memory storing instructions executable by the one or more processors, wherein the instructions, when executed, cause the autonomous vehicle to perform operations comprising: storing identification information associated with a user of a computing device indicating that the computing device is authorized to provide guidance to the autonomous vehicle; receiving, via the network interface, a message associated with providing a first guidance to the autonomous vehicle; determining, based at least in part on the information, that the message is associated with the computing device; evaluating the message based at least in part on at least one of configuration data associated with maneuvering the autonomous vehicle or state information associated with the autonomous vehicle before the first guidance is executed by the autonomous vehicle; determining that the message does not comply with at least one of the configuration data or the state information; and controlling the autonomous vehicle based at least in part on evaluating the message, wherein controlling the autonomous vehicle comprises maintaining a current state of the autonomous vehicle. one or more processors; a network interface; and a memory storing instructions executable by the one or more processors, wherein the instructions, when executed, cause the autonomous vehicle to perform operations comprising: storing identification information associated with a user of a computing device indicating that the computing device is authorized to provide guidance to the autonomous vehicle; receiving, via the network interface, a message associated with providing a first guidance to the autonomous vehicle; determining, based at least in part on the information, that the message is associated with the computing device; evaluating the message based at least in part on at least one of configuration data associated with maneuvering the autonomous vehicle or state information associated with the autonomous vehicle before the first guidance is executed by the autonomous vehicle; determining that the message does not comply with at least one of the configuration data or the state information; and controlling the autonomous vehicle based at least in part on evaluating the message, wherein controlling the autonomous vehicle comprises maintaining a current state of the autonomous vehicle.
A method, comprising: receiving at least one setup message at a network entity from a plurality of front ends, wherein multiple connections are established between the network entity and the plurality of front ends; receiving at least one list of identifiers from the plurality front ends, wherein the at least one list of identifiers received from a first front end of the plurality of front ends has at least one identifier in common with the at least one list of identifiers received from a second front end of the plurality of front ends; choosing, utilising the list of identifiers, at least one of the multiple connections to transmit another message to one of the plurality of front ends which map back to a common set of at least one radio access points, network nodes, or cells; and transmitting the other message from the network entity through the chosen at least one of the multiple connections to the common set of at least one radio access points, network nodes, or cells. receiving at least one setup message at a network entity from a plurality of front ends, wherein multiple connections are established between the network entity and the plurality of front ends; receiving at least one list of identifiers from the plurality front ends, wherein the at least one list of identifiers received from a first front end of the plurality of front ends has at least one identifier in common with the at least one list of identifiers received from a second front end of the plurality of front ends; choosing, utilising the list of identifiers, at least one of the multiple connections to transmit another message to one of the plurality of front ends which map back to a common set of at least one radio access points, network nodes, or cells; and transmitting the other message from the network entity through the chosen at least one of the multiple connections to the common set of at least one radio access points, network nodes, or cells.