mhurhangee/ep-ind-claims huggingface dataset:
Method for calculating an energy consumption of a motor vehicle on a travel route, comprising the steps of: determining at least one vehicle speed on the travel route, determining at least one vehicle direction on the travel route, determining at least one wind direction and at least one wind speed on the travel route by means of a determination device, calculating an energy consumption on the basis of the determined at least one vehicle speed, the determined at least one vehicle direction, the determined at least one wind direction and the determined at least one wind speed by means of a calculation device, outputting or providing the calculated energy consumption as a consumption signal by means of an output device, the at least one vehicle speed and/or the at least one vehicle direction and/or the at least one wind direction and/or the at least one wind speed being separately determined and taken into account for individual route sections of the travel route, characterized in that splitting into route sections is performed depending on an available spatial resolution of data relating to wind directions and/or wind speeds. determining at least one vehicle speed on the travel route, determining at least one vehicle direction on the travel route, determining at least one wind direction and at least one wind speed on the travel route by means of a determination device, calculating an energy consumption on the basis of the determined at least one vehicle speed, the determined at least one vehicle direction, the determined at least one wind direction and the determined at least one wind speed by means of a calculation device, outputting or providing the calculated energy consumption as a consumption signal by means of an output device, the at least one vehicle speed and/or the at least one vehicle direction and/or the at least one wind direction and/or the at least one wind speed being separately determined and taken into account for individual route sections of the travel route, characterized in that splitting into route sections is performed depending on an available spatial resolution of data relating to wind directions and/or wind speeds.
A light detecting device comprising: a light input device configured to receive light; a plurality of waveguides extending from the light input device, the plurality of waveguides being configured to transmit portions of the light received by the light input device, respectively; a plurality of modulators provided on the plurality of waveguides and configured to modulate phases of the portions of light transmitted in the plurality of waveguides, respectively; at least one graphene layer configured to absorb the portions of light transmitted in the plurality of waveguides; and at least one first electrode and at least one second electrode electrically connected to the at least one graphene layer, respectively, and characterized in that the a plurality of modulators each comprise a first electrode and a second electrode and are configured to form a phase profile by independently modulating a phase of each of the portions of light transmitted in the plurality of waveguides by applying an electric signal between the first electrode and the second electrodes of each modulator, so as to improve the light-receiving efficiency of the portions of light in a specific direction. a light input device configured to receive light; a plurality of waveguides extending from the light input device, the plurality of waveguides being configured to transmit portions of the light received by the light input device, respectively; a plurality of modulators provided on the plurality of waveguides and configured to modulate phases of the portions of light transmitted in the plurality of waveguides, respectively; at least one graphene layer configured to absorb the portions of light transmitted in the plurality of waveguides; and at least one first electrode and at least one second electrode electrically connected to the at least one graphene layer, respectively, and characterized in that the a plurality of modulators each comprise a first electrode and a second electrode and are configured to form a phase profile by independently modulating a phase of each of the portions of light transmitted in the plurality of waveguides by applying an electric signal between the first electrode and the second electrodes of each modulator, so as to improve the light-receiving efficiency of the portions of light in a specific direction.
A device for a flushing device of a urinal, wherein the device has at least a mounting and a sensor head having a sensor head housing, wherein adjustment means are also provided for changing a relative position between the mounting and the sensor head, characterized in that the device also has a mounting attachment, which extends from the mounting into an interior space of the sensor head housing, wherein a spacer ring comprising a locking mechanism is formed between the sensor head housing and the mounting attachment, wherein the spacer ring is capable of sliding on the mounting attachment for adjusting the relative position between the mounting and the sensor head if the locking mechanism is released and a relative movement between the spacer ring and the mounting attachment can be blocked by the locking mechanism upon reaching a desired relative position, and wherein the spacer ring and the mounting attachment cannot turn when clamped against each other and function as a further locking mechanism.
An optical flow cell (100, 300) for bioprocessing comprising: a fluid inlet (102, 302); a fluid outlet (104, 304); a fluid flow channel (106, 306) provided between said fluid inlet (102, 302) and said fluid outlet (104, 304); an output optical waveguide (108, 308) configured to emit light into said fluid flow channel (106, 306); a collector optical waveguide (110, 310) configured to collect light from said fluid flow channel (106, 306); an optical pathlength adjuster (120, 320) for varying the optical pathlength (130, 330) between said output optical waveguide (108, 308) and said collector optical waveguide (110, 310), wherein the optical pathlength adjuster (120, 320) comprises an optical pathlength modifier (124, 324) retractably provided within the fluid flow channel (106, 306), a removable chamber module, and wherein the optical pathlength adjuster (120, 320) is partially provided within the removable chamber module. a fluid inlet (102, 302); a fluid outlet (104, 304); a fluid flow channel (106, 306) provided between said fluid inlet (102, 302) and said fluid outlet (104, 304); an output optical waveguide (108, 308) configured to emit light into said fluid flow channel (106, 306); a collector optical waveguide (110, 310) configured to collect light from said fluid flow channel (106, 306); an optical pathlength adjuster (120, 320) for varying the optical pathlength (130, 330) between said output optical waveguide (108, 308) and said collector optical waveguide (110, 310), wherein the optical pathlength adjuster (120, 320) comprises an optical pathlength modifier (124, 324) retractably provided within the fluid flow channel (106, 306), a removable chamber module, and wherein the optical pathlength adjuster (120, 320) is partially provided within the removable chamber module.
A method for inspecting a nozzle inside a cleaning device for cleaning or deburring a workpiece by using a jet produced from a nozzle to hit the workpiece, whereby the cleaning device comprises: the nozzle configured to produce the jet; a cleaning table; a moving unit configured to move the nozzle relative to the cleaning table; the method comprising the steps of: producing the jet from the nozzle; moving the nozzle to cause the jet to approach a stylus of a touch probe; generating a contact signal under a force acting on the stylus; and determining that the jet is appropriate in response to a contact signal received first after an axis of the jet is positioned at a distance from the stylus that is equal to or less than a first normal distance calculated from a normal jet shape by assuming that the shape of the nozzle and its jet shape and its direction are as designed. the nozzle configured to produce the jet; a cleaning table; a moving unit configured to move the nozzle relative to the cleaning table; the method comprising the steps of: producing the jet from the nozzle; moving the nozzle to cause the jet to approach a stylus of a touch probe; generating a contact signal under a force acting on the stylus; and determining that the jet is appropriate in response to a contact signal received first after an axis of the jet is positioned at a distance from the stylus that is equal to or less than a first normal distance calculated from a normal jet shape by assuming that the shape of the nozzle and its jet shape and its direction are as designed. producing the jet from the nozzle; moving the nozzle to cause the jet to approach a stylus of a touch probe; generating a contact signal under a force acting on the stylus; and determining that the jet is appropriate in response to a contact signal received first after an axis of the jet is positioned at a distance from the stylus that is equal to or less than a first normal distance calculated from a normal jet shape by assuming that the shape of the nozzle and its jet shape and its direction are as designed.
A transformant which is defective in the functions of the gene encoding a phosphate transporter protein and the gene encoding a phosphate ester transporter protein and into which a gene encoding a hypophosphite transporter protein is introduced, the transformant being incapable of utilizing phosphate for proliferation but capable of utilizing phosphite for proliferation, the transformant being a microorganism or a plant, the phosphate transporter protein having activity to take both phosphate and a reduced phosphorous compound into cells, the phosphate ester transporter protein having activity to take phosphate ester into cells, the hypophosphite transporter protein having a function to transport a reduced phosphorous compound to cells but transport no phosphate.
Tyre for heavy load vehicle wheels having a tread comprising a central annular portion astride an equatorial plane (X-X) and two shoulder annular portions, located on axially opposite sides with respect to the central annular portion, said central annular portion being separated from each shoulder annular portion by a respective first circumferential groove, said central annular portion comprising at least one second circumferential groove, at least one of the first and the second circumferential grooves (201, 202) has a radial depth D not smaller than 8 mm and a cross section A expressed in mm 2, wherein defining A 1 the cross section of a radially outer portion of a circumferential groove extending over a depth D 1 equal to 50% of the radial depth D, said at least one second circumferential groove is formed so that A 1 > 0,5A and that A/D has a numerical value between 0,5 and 3, characterized in that said at least one second circumferential groove has a radially innermost portion with substantially parallel walls joined to a radially outermost portion with walls diverging in the radial direction towards the tread surface so as to have a Y-shaped geometry.
Device for the collection of liquid wastes, in particular hazardous substances, with a collecting container (32, 43, 44) that has a collecting opening for the wastes, and with a connection piece that cooperates with the collecting opening and has a filling opening for filling the wastes into the collecting container (32, 43, 44), wherein the filling opening is connected with a pipe (34, 35, 36) for the wastes, characterised in that the connection piece is designed as a quick closure that causes the connection piece to automatically connect to the collecting container (32, 43, 44) when the collecting container (32, 43, 44) is being set up in a collection position, the quick closure possesses a connecting head (37, 38, 39) in which the connection piece is arranged to be moveable in a direction of closure, and the connection piece is resiliently pre-stressed in the direction of closure.
Apparatus for forming plastic preforms into plastic containers, having at least one forming station which has a blow mold, within which the plastic preforms can be formed into the plastic containers by being acted upon by a flowable medium, and having an application device which applies the plastic preforms with the flowable medium, wherein the apparatus has a compressed air supply device which provides the flowable medium and this compressed air supply device is arranged in a stationary manner, wherein the compressed air supply device is constructed as a modular device which has an aeration and/or venting device for high pressure, wherein this modular device can be equipped with additional supply components depending on the application, wherein the application device is a blowing nozzle, wherein the apparatus having a movable carrier on which the forming station is arranged, characterized in that these supply components are selected from a group of components comprising filter devices. wherein this modular device can be equipped with additional supply components depending on the application, wherein the application device is a blowing nozzle, wherein the apparatus having a movable carrier on which the forming station is arranged, characterized in that these supply components are selected from a group of components comprising filter devices.
An articulated arm CMM comprising: an articulated arm comprising a plurality of articulated arm members, a measuring probe at a distal end, and a base at a proximal end; and a docking portion on the base, the docking portion configured to form a connection with a modular feature pack, the modular feature pack being arranged to provide additional functionality to the CMM; wherein the docking portion comprises an electronic connector configured to form an electronic connection with the feature pack. an articulated arm comprising a plurality of articulated arm members, a measuring probe at a distal end, and a base at a proximal end; and a docking portion on the base, the docking portion configured to form a connection with a modular feature pack, the modular feature pack being arranged to provide additional functionality to the CMM; wherein the docking portion comprises an electronic connector configured to form an electronic connection with the feature pack.
A light-emitting unit constructing the unit of light emission of a display unit or the unit of light emission of an ornamental display, which receives an address setting signal comprising an address to be set in the light-emitting unit and a display control signal comprising image data, the light-emitting unit comprising, an infrared receiving element that receives the address setting signal transmitted by infrared light from a setting unit, an address storage section that stores the address, and a controller that recognizes an address from the address setting signal and stores the address in the address storage section, characterized in that: the controller stores a predetermined time longer than a quiescent time of the display control signal, and determines whether its quiescent mode is continued for a first time equal or over the predetermined time immediately before the reception of a signal wherein only when its quiescent mode is continued for said first time equal or over the predetermined time, the controller recognizes the signal as an address setting signal, and the controller determines whether its quiescent mode is continued during a second time from the recognition of the input of the address setting signal to the completion of the extraction of the address from the address setting signal, or from the recognition of the input of the address setting signal to the completion of the verification of the format of the address setting signal, wherein only when its quiescent mode is continued, the controller stores the address in the address storage section wherein, the controller gets out of the quiescent mode when the address setting signal or the display control signal is received by the controller. the controller stores a predetermined time longer than a quiescent time of the display control signal, and determines whether its quiescent mode is continued for a first time equal or over the predetermined time immediately before the reception of a signal wherein only when its quiescent mode is continued for said first time equal or over the predetermined time, the controller recognizes the signal as an address setting signal, and the controller determines whether its quiescent mode is continued during a second time from the recognition of the input of the address setting signal to the completion of the extraction of the address from the address setting signal, or from the recognition of the input of the address setting signal to the completion of the verification of the format of the address setting signal, wherein only when its quiescent mode is continued, the controller stores the address in the address storage section wherein, the controller gets out of the quiescent mode when the address setting signal or the display control signal is received by the controller.
Safety harness, in particular a fall-arrest harness, with two shoulder parts and two leg parts, wherein the shoulder parts are joined together at one end to form a back part and are each joined at the other end with the leg parts, wherein the leg parts are also joined with the back part, characterised in that shoulder parts, leg parts and back part are each edged with at least one binding tape and the binding tapes of the shoulder parts, leg parts and the back part are connected with one another such that the binding tapes form the load-bearing elements of the harness.
A method of detecting an anomaly in a wheelset of a train comprising: taking data acquired by a distributed acoustic sensor having a sensing optical fibre deployed along at least part of a rail track (201; 302) as the train moves along that part of the track, wherein the data corresponds to acoustic signals detected by a plurality of longitudinal sensing portions (401, 402, 403) of said sensing optical fibre; characterised by: analysing the acoustic signals to determine the train speed and to identify at least a first section of track where the train travels with a first speed and a second section of track where the train travels with a second different speed; and analysing the acoustic signals from the longitudinal sensing portions from the first section of track based on the first speed and analysing the acoustic signals from the longitudinal sensing portions from the second section of track based on the second speed for a characteristic acoustic signal so as to detect an anomaly in a wheelset; wherein said characteristic acoustic signal comprises a repetitive signal at a frequency that varies proportional to the determined train speed. taking data acquired by a distributed acoustic sensor having a sensing optical fibre deployed along at least part of a rail track (201; 302) as the train moves along that part of the track, wherein the data corresponds to acoustic signals detected by a plurality of longitudinal sensing portions (401, 402, 403) of said sensing optical fibre; characterised by: analysing the acoustic signals to determine the train speed and to identify at least a first section of track where the train travels with a first speed and a second section of track where the train travels with a second different speed; and analysing the acoustic signals from the longitudinal sensing portions from the first section of track based on the first speed and analysing the acoustic signals from the longitudinal sensing portions from the second section of track based on the second speed for a characteristic acoustic signal so as to detect an anomaly in a wheelset; wherein said characteristic acoustic signal comprises a repetitive signal at a frequency that varies proportional to the determined train speed.
Rolling bearing, comprising a first and a second bearing body (11, 12) which are arranged to be rotatable relative to one another about an axis, wherein the bearing bodies (11, 12) comprise first and second bearing rings (13, 14) having running surfaces (15, 16) which face one another and are designed and adapted to receive a plurality of rolling bodies, wherein the rolling bodies are arranged between the running surfaces (15, 16) of the bearing rings (13, 14), wherein the bearing rings (13, 14) are designed in multipart form by means of bearing ring segments (19, 20) which are detachable from one another, the first bearing body is adapted and designed to be displaceable in the axial direction relative to the second bearing body, characterized in that the bearing bodies (11, 12) each comprise a first ring element and a second ring element, wherein the first bearing ring segments are detachably arranged on the first ring element and the second bearing ring segments are detachably arranged on the second ring element over the entire periphery by means of connection means, and the first ring element and/or the second ring element are/is at least substantially disc-shaped and the first bearing body is connected to a hydraulic coupling for fastening the first bearing body to the axis. a first and a second bearing body (11, 12) which are arranged to be rotatable relative to one another about an axis, wherein the bearing bodies (11, 12) comprise first and second bearing rings (13, 14) having running surfaces (15, 16) which face one another and are designed and adapted to receive a plurality of rolling bodies, wherein the rolling bodies are arranged between the running surfaces (15, 16) of the bearing rings (13, 14), wherein the bearing rings (13, 14) are designed in multipart form by means of bearing ring segments (19, 20) which are detachable from one another,