mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a seating device of a motor vehicle when a virtual reality application is operated by a user arranged in a motor vehicle during a movement or acceleration of the motor vehicle, wherein the seating device comprises at least one seating unit, at least one drive for moving the seating unit and at least one control apparatus, which is or can be functionally assigned to a sensor unit of the motor vehicle, and wherein the seating device is linked to the virtual reality application, which comprises at least one computing unit, including the steps of: a. Detecting at least one real ACTUAL value of the movement or acceleration of the motor vehicle by the sensor unit functionally assigned to the control apparatus and transmitting the real ACTUAL value of the movement or acceleration of the motor vehicle to the control apparatus, b. Detecting and/or calculating a simulated virtual ACTUAL value of at least one movement or acceleration within the virtual reality application by the computing unit and transmitting the virtual ACTUAL value of the movement or acceleration within the virtual reality application to the control apparatus, c. Calculating a real SETPOINT value of a correction movement or correction acceleration by the seating unit depending on the real ACTUAL value of the movement or acceleration of the motor vehicle, such that the superimposition of correction movement or correction acceleration by the seating unit and movement or acceleration of the motor vehicle substantially corresponds in terms of magnitude and direction to the virtual ACTUAL value of the movement or acceleration within the virtual reality application, d. Actuating the drive of the seating unit by the control apparatus depending at least on the SETPOINT value to perform the correction movement or correction acceleration by the seating unit. a. Detecting at least one real ACTUAL value of the movement or acceleration of the motor vehicle by the sensor unit functionally assigned to the control apparatus and transmitting the real ACTUAL value of the movement or acceleration of the motor vehicle to the control apparatus, b. Detecting and/or calculating a simulated virtual ACTUAL value of at least one movement or acceleration within the virtual reality application by the computing unit and transmitting the virtual ACTUAL value of the movement or acceleration within the virtual reality application to the control apparatus, c. Calculating a real SETPOINT value of a correction movement or correction acceleration by the seating unit depending on the real ACTUAL value of the movement or acceleration of the motor vehicle, such that the superimposition of correction movement or correction acceleration by the seating unit and movement or acceleration of the motor vehicle substantially corresponds in terms of magnitude and direction to the virtual ACTUAL value of the movement or acceleration within the virtual reality application, d. Actuating the drive of the seating unit by the control apparatus depending at least on the SETPOINT value to perform the correction movement or correction acceleration by the seating unit.
A device for treating the vaginal canal or other natural or surgically obtained orifices by means of a laser beam, the device comprising a for the wall of said canal or orifice associated with a laser beam scanning system; wherein: said retractor comprises a pyramidal or truncated pyramidal laser beam reflection mirror, which is provided with a plurality of planar reflecting surfaces arranged around the retractor axis and inclined with respect thereto, and is located near a retractor distal end; the laser beam scanning system is configured and controlled to direct the laser beam sequentially towards each planar reflecting surface of the laser beam reflection mirror, a series of laser spots according to an irradiation treatment pattern being generated on each reflecting surface and being reflected thereby outside the retractor. said retractor comprises a pyramidal or truncated pyramidal laser beam reflection mirror, which is provided with a plurality of planar reflecting surfaces arranged around the retractor axis and inclined with respect thereto, and is located near a retractor distal end; the laser beam scanning system is configured and controlled to direct the laser beam sequentially towards each planar reflecting surface of the laser beam reflection mirror, a series of laser spots according to an irradiation treatment pattern being generated on each reflecting surface and being reflected thereby outside the retractor.
An apparatus for inspecting a composite structure, said apparatus comprising: a housing (300, 902); a movement system (306, 1204) associated with the housing (300, 902), wherein the movement system (306, 1204) is configured to move the housing (300, 902) on a surface (127, 700) of the composite structure (104, 600); a light source (310, 1226) associated with the housing (300, 902), wherein the light source (310, 1266) is configured to emit a beam of light that includes both visible light and infrared light; an infrared measurement system (302, 1200) associated with an interior of the housing (300, 902), wherein the infrared measurement system (302, 1200) is configured to generate infrared measurement information in response to detecting infrared light reflected from the composite structure (104, 600); a visible light sensor system (304, 1202) configured to generate image information in response to light reflected from the composite structure (104, 600); and a computer system in communication with the infrared measurement system, wherein the computer system (204, 806) is configured to receive the infrared measurement information generated by the infrared measurement system (302, 1200) and identify a thickness of layers in a composite substrate of the composite structure. a housing (300, 902); a movement system (306, 1204) associated with the housing (300, 902), wherein the movement system (306, 1204) is configured to move the housing (300, 902) on a surface (127, 700) of the composite structure (104, 600); a light source (310, 1226) associated with the housing (300, 902), wherein the light source (310, 1266) is configured to emit a beam of light that includes both visible light and infrared light; an infrared measurement system (302, 1200) associated with an interior of the housing (300, 902), wherein the infrared measurement system (302, 1200) is configured to generate infrared measurement information in response to detecting infrared light reflected from the composite structure (104, 600); a visible light sensor system (304, 1202) configured to generate image information in response to light reflected from the composite structure (104, 600); and a computer system in communication with the infrared measurement system, wherein the computer system (204, 806) is configured to receive the infrared measurement information generated by the infrared measurement system (302, 1200) and identify a thickness of layers in a composite substrate of the composite structure.
Gear pump for the delivery of a fluid in a high-pressure injection system, which pump has a rotatably mounted externally toothed gear and an internally toothed ring, which are mounted eccentrically with respect to one another, together form a toothing and are in meshing engagement in order to generate a delivery action, wherein the toothing forms a multiplicity of delivery chambers, and wherein a suction-side feed channel is arranged in a first angle range, in which the delivery chambers increase in size during a rotation of the toothed gear and of the toothed ring, and a pressure-side discharge channel is arranged in a second angle range, in which the delivery chambers decrease in size during the rotation of the toothed gear and of the toothed ring, wherein a sealing region is formed between the feed channel and the discharge channel, wherein in the sealing region, on the side on which the delivery chambers decrease in size during the rotation of the toothed gear and of the toothed ring, there is formed an opening, characterized in that the discharge channel is fluidically connected via a first hydraulic path (Q 1) to a high-pressure accumulator, and the opening is fluidically connected via a second hydraulic path (Q 2) to the high-pressure accumulator.
A method for reducing the effects of distortions on the baseline of an absorption signal within an absorption spectroscopy system, comprising the steps of: controlling a source of electromagnetic radiation to emit a wavelength modulated beam; detecting the modulated beam or beams after transmission through a test medium; processing the detected beam or beams to obtain an absorption signal indicative of the absorption effects of one or more measurands in the test medium, wherein the processing includes correlating or convolving the absorption signal with a kernel function (801, 802, 803, 805) that is selective for a predicted signal distortion effect arising from at least one of optical interference or electromagnetic interference, wherein the kernel function is a frequency-selective variable gain function that is adapted to either suppress or enhance a predicted signal distortion effect. controlling a source of electromagnetic radiation to emit a wavelength modulated beam; detecting the modulated beam or beams after transmission through a test medium; processing the detected beam or beams to obtain an absorption signal indicative of the absorption effects of one or more measurands in the test medium, wherein the processing includes correlating or convolving the absorption signal with a kernel function (801, 802, 803, 805) that is selective for a predicted signal distortion effect arising from at least one of optical interference or electromagnetic interference, wherein the kernel function is a frequency-selective variable gain function that is adapted to either suppress or enhance a predicted signal distortion effect.
Proof test arrangement for executing and performing a proof test for a switchgear or a switchgear device or component (12,14), which switchgear device or component (12, 14) controls a consumer or consumer load, and which comprises at least one data processing unit providing at least one executable data structure and/or program code means, and at least one measurement sensor and at least one interface for the transmission of sensor and/or measurement data, wherein a stimulation value is generated by processing an existing measurement value of the consumer or consumer load acquired by the measurement sensor, and wherein by processing said measurement value, the data processing unit is configured to generate and determine a stimulation value for stimulating the respective switchgear device or component with an input value and detect and monitor the reaction of the switchgear device or component, characterized in that the consumer is a motor, that the measurement sensor is a combined measurement sensor, which is provided and equipped to at least measure a current and a voltage of the motor, that the data processing unit is configured to measure the timing, and in that a currently voltage of the motor is used to calculate a stimulating current value for the proof test of a motor control center and/or at least one of a motor control, motor protection and timing control.
A calibration gas delivery apparatus for delivering a selectively humidified calibration gas to a measurement probe, the apparatus comprising: a) a delivery conduit having a conduit inlet receiving a carrier gas stream and a conduit outlet delivering a calibration gas stream; b) a mass flow controller located adjacent the conduit inlet of the delivery conduit controlling the flow of the carrier gas; c) a first injection unit having a first intake in fluid communication with a first reservoir and a first outlet in fluid communication with the delivery conduit, the first reservoir holding an ionic mercury solution in liquid form; d) a second injection unit having a second intake in fluid communication with a second reservoir and a second outlet in fluid communication with the delivery conduit, the second reservoir holding water as a humidificant in liquid form; and e) at least one vaporizer downstream of the first and second outlets (32, 42) and upstream of the conduit outlet converting the ionic mercury solution and the water to vapor form and delivering the calibration gas including the carrier gas, ionic mercury solution vapor, and water vapor to the conduit outlet. a) a delivery conduit having a conduit inlet receiving a carrier gas stream and a conduit outlet delivering a calibration gas stream; b) a mass flow controller located adjacent the conduit inlet of the delivery conduit controlling the flow of the carrier gas; c) a first injection unit having a first intake in fluid communication with a first reservoir and a first outlet in fluid communication with the delivery conduit, the first reservoir holding an ionic mercury solution in liquid form; d) a second injection unit having a second intake in fluid communication with a second reservoir and a second outlet in fluid communication with the delivery conduit, the second reservoir holding water as a humidificant in liquid form; and e) at least one vaporizer downstream of the first and second outlets (32, 42) and upstream of the conduit outlet converting the ionic mercury solution and the water to vapor form and delivering the calibration gas including the carrier gas, ionic mercury solution vapor, and water vapor to the conduit outlet.
A log saw machine for cutting logs of wound web material, comprising: a first arm; a second arm generally parallel to the first arm, both arms having an elongated shape and extending in use about and generally perpendicularly to the axial direction of the log; a shaft comprising a first end and an opposite second end, the first end rotatably installed on the free end of the first arm, and the second end rotatably installed on the free end of the second arm; and a circular knife fixed on the shaft, the circular knife being positioned between the first and second arms (21, 22), and the circular knife defining a plane generally parallel to the first and second arms (21, 22). a first arm; a second arm generally parallel to the first arm, both arms having an elongated shape and extending in use about and generally perpendicularly to the axial direction of the log; a shaft comprising a first end and an opposite second end, the first end rotatably installed on the free end of the first arm, and the second end rotatably installed on the free end of the second arm; and a circular knife fixed on the shaft, the circular knife being positioned between the first and second arms (21, 22), and the circular knife defining a plane generally parallel to the first and second arms (21, 22).
Pneumatic vehicle tyre with a carcass, a tread rubber, a breaker belt, arranged between the tread rubber and the carcass, and also a belt bandage, which is arranged on the radially outer side of the breaker belt, comprises one or two bandage plies and has reinforcing elements applied in the circumferential direction, the belt bandage being divided in its axial extent into two side regions and a middle region, each comprising a bandage ply part,, the reinforcing elements of the bandage ply part in the middle region being formed from PA 6.6 and the reinforcing elements of the bandage ply parts in the two side regions having a higher modulus of elasticity than PA 6.6, characterized in that each bandage ply of the belt bandage is divided in its axial extent into two side regions and a middle region, each comprising a bandage ply part, and in that the reinforcing elements of the bandage ply parts in the two side regions are formed from normally shrinking PET.
A method of transmitting a Physical Sidelink Shared Channel, PSSCH, which is transmitted by a Device-to-Device, D2D, user equipment, UE, in a wireless communication system, the method comprising the steps of: selecting, by the UE, one or more resource blocks to be used for transmitting the PSSCH on a subchannel; and transmitting, by the UE, the PSSCH via the one or more selected resource blocks, wherein the number of the one or more selected resource blocks corresponds to the greatest value not exceeding the total number of resource blocks usable for transmitting the PSSCH on the subchannel among values corresponding to 2 α 2 ' 3 α 3 ' 5 α 5, eachof α 2, α 3, α 5 is a non-negative integer, wherein, based on that the resource blocks, RBs, the PSSCH and the RBs of a Physical Sidelink Control Channel, PSCCH, are consecutive, the number of RBs used for a transmission of the PSCCH is excluded from the total number of RBs of the one or more subchannels to determine the total number of RBs usable for transmitting the PSSCH. selecting, by the UE, one or more resource blocks to be used for transmitting the PSSCH on a subchannel; and transmitting, by the UE, the PSSCH via the one or more selected resource blocks, wherein the number of the one or more selected resource blocks corresponds to the greatest value not exceeding the total number of resource blocks usable for transmitting the PSSCH on the subchannel among values corresponding to 2 α 2 ' 3 α 3 ' 5 α 5, eachof α 2, α 3, α 5 is a non-negative integer, wherein, based on that the resource blocks, RBs, the PSSCH and the RBs of a Physical Sidelink Control Channel, PSCCH, are consecutive, the number of RBs used for a transmission of the PSCCH is excluded from the total number of RBs of the one or more subchannels to determine the total number of RBs usable for transmitting the PSSCH.
Component, comprising - a ceramic matrix; - at least one internal electrode, which is arranged in the ceramic matrix and is exposed at a first surface; - at least one electrically conductive collective contact, which is electrically connected to the internal electrode; - an insulation layer on a surface of the ceramic matrix, which is arranged between the ceramic matrix and the collective contact, wherein the insulation layer has at least one opening, which exposes at least one part of the internal electrode; and - a further, electrically conductive layer, which is arranged between the internal electrode and the collective contact and also between the insulation layer and the collective contact; wherein the further layer is embodied as a multilayer having at least two layers (30A, 30B), wherein the multilayer comprises as a first layer a current collector layer, which adjoins the collective contact, and as a second layer a diffusion barrier layer, which adjoins the insulation layer and the internal electrode, characterized in that the current collector layer adjoining the collective contact consists of silver-palladium and provides for adhesion promotion with respect to the collective contact. - a ceramic matrix; - at least one internal electrode, which is arranged in the ceramic matrix and is exposed at a first surface; - at least one electrically conductive collective contact, which is electrically connected to the internal electrode; - an insulation layer on a surface of the ceramic matrix, which is arranged between the ceramic matrix and the collective contact, wherein the insulation layer has at least one opening, which exposes at least one part of the internal electrode; and - a further, electrically conductive layer, which is arranged between the internal electrode and the collective contact and also between the insulation layer and the collective contact; wherein the further layer is embodied as a multilayer having at least two layers (30A, 30B), wherein the multilayer comprises as a first layer a current collector layer, which adjoins the collective contact, and as a second layer a diffusion barrier layer, which adjoins the insulation layer and the internal electrode, characterized in that the current collector layer adjoining the collective contact consists of silver-palladium and provides for adhesion promotion with respect to the collective contact.
A method for producing 225 actinium from 226 radium, said method comprising the steps of: - providing a liquid target solution containing 226 radium; - irradiating said liquid target solution in an irradiation device to produce 225 actinium in the liquid target solution starting from the 226 radium contained therein, the liquid target solution being circulated during the irradiation step in a first closed loop over said irradiation device and over a heat exchanger; and - separating at least part of the produced 225 actinium from the remaining 226 radium in a first extraction step which is carried out in a first extraction device, characterised in that at least part of said 225 actinium is extracted from the liquid target solution, in said first extraction step, in said first extraction device while the 226 radium is maintained in the liquid target solution; in that the liquid target solution is circulated during said irradiation step, in said first closed loop, over a container and said irradiation device and during said first extraction step, in a second closed loop, over said container and said first extraction device; and in that the method comprises the further step of: - irradiating the liquid target solution from which part of said 225 actinium has been extracted again in said irradiation device to produce further 225 actinium in the liquid target solution starting from the 226 radium contained therein. - providing a liquid target solution containing 226 radium; - irradiating said liquid target solution in an irradiation device to produce 225 actinium in the liquid target solution starting from the 226 radium contained therein, the liquid target solution being circulated during the irradiation step in a first closed loop over said irradiation device and over a heat exchanger; and - separating at least part of the produced 225 actinium from the remaining 226 radium in a first extraction step which is carried out in a first extraction device, - irradiating the liquid target solution from which part of said 225 actinium has been extracted again in said irradiation device to produce further 225 actinium in the liquid target solution starting from the 226 radium contained therein.
A lighting device comprising: - a lighting source, and - an electric power supply circuit for said lighting source, said lighting source and said power supply circuit being separated by respective walls (202, 204) defining an air separation gap between them, said air separation gap having an at least approximately constant thickness, characterized in that said walls (202, 204) have complementary concave shapes with a first one of said walls directed towards said lighting source (12, 120) to form with respect thereto a heat-insulating shield, said wall with its concavity directed towards said lighting source (12, 120). - a lighting source, and - an electric power supply circuit for said lighting source, said lighting source and said power supply circuit being separated by respective walls (202, 204) defining an air separation gap between them, said air separation gap having an at least approximately constant thickness,