mhurhangee/ep-ind-claims huggingface dataset:
Method for optical in vitro detection of a movement in a biological sample and/or a movement of a component of the biological sample, comprising the steps: (a) providing an optical wide-field illumination apparatus for illuminating the sample, which is configured to illuminate the whole sample, and a detector for detecting radiation (9; 9a, 9b) coming from the biological sample, the detector having a detection area which is subdivided into a plurality of detection regions and is configured to form the derivative with respect to time of detection signals of individual detection regions, subsequently to rectify them, preferably by absolute value generation or squaring, and to sum or to average the differentiated and rectified detection signals of all the detection regions and then to provide them as an output signal. (b) illuminating the biological sample with the wide-field illumination apparatus; and (c) detecting a movement in the biological sample dependent upon the output signal of the detector. (a) providing an optical wide-field illumination apparatus for illuminating the sample, which is configured to illuminate the whole sample, and a detector for detecting radiation (9; 9a, 9b) coming from the biological sample, the detector having a detection area which is subdivided into a plurality of detection regions and is configured to form the derivative with respect to time of detection signals of individual detection regions, subsequently to rectify them, preferably by absolute value generation or squaring, and to sum or to average the differentiated and rectified detection signals of all the detection regions and then to provide them as an output signal. an optical wide-field illumination apparatus for illuminating the sample, which is configured to illuminate the whole sample, and a detector for detecting radiation (9; 9a, 9b) coming from the biological sample, the detector having a detection area which is subdivided into a plurality of detection regions and is configured to form the derivative with respect to time of detection signals of individual detection regions, subsequently to rectify them, preferably by absolute value generation or squaring, and to sum or to average the differentiated and rectified detection signals of all the detection regions and then to provide them as an output signal. (b) illuminating the biological sample with the wide-field illumination apparatus; and (c) detecting a movement in the biological sample dependent upon the output signal of the detector.
A method for restoring a tip rail of a turbine rotor blade, the method comprising: repairing a damaged area in a tip rail of a turbine rotor blade by advancing a first wire material into the damaged area while first laser irradiating the first wire material with a laser in an inert gas in a vicinity of the damaged area, wherein the first laser irradiating the first wire material includes modulated pulsing the laser through: a first warm up phase during which an on-power of the laser is increased over time to a maximum target on-power for the first laser irradiating, a first melt and bond phase during which the wire material is melted and during which the on-power for the first laser irradiating is less than the maximum target on-power for the first laser irradiating, and a first stress releasing phase during which the on-power of the laser is less than the on-power during the melt and bond phase, wherein the first laser irradiated wire material forms a first weld material (250, 350) in the damaged area; first spraying a bond coating (230, 360) on at least an inner rail surface of the tip rail and the repaired damaged area; and second spraying a thermal barrier coating coating on the bond coating (230, 360). repairing a damaged area in a tip rail of a turbine rotor blade by advancing a first wire material into the damaged area while first laser irradiating the first wire material with a laser in an inert gas in a vicinity of the damaged area, wherein the first laser irradiating the first wire material includes modulated pulsing the laser through: a first warm up phase during which an on-power of the laser is increased over time to a maximum target on-power for the first laser irradiating, a first melt and bond phase during which the wire material is melted and during which the on-power for the first laser irradiating is less than the maximum target on-power for the first laser irradiating, and a first stress releasing phase during which the on-power of the laser is less than the on-power during the melt and bond phase, a first warm up phase during which an on-power of the laser is increased over time to a maximum target on-power for the first laser irradiating, a first melt and bond phase during which the wire material is melted and during which the on-power for the first laser irradiating is less than the maximum target on-power for the first laser irradiating, and a first stress releasing phase during which the on-power of the laser is less than the on-power during the melt and bond phase, wherein the first laser irradiated wire material forms a first weld material (250, 350) in the damaged area; first spraying a bond coating (230, 360) on at least an inner rail surface of the tip rail and the repaired damaged area; and second spraying a thermal barrier coating coating on the bond coating (230, 360).
An aqueous detergent composition comprising: (a) 0.01 wt% to 0.5 wt% of a clay; (b) 0.01 wt% to 0.5 wt% of an external structuring agent, comprising particulate cellulose material containing, by dry weight, at least 60 % cellulose, 0.5-10 % pectin and 1-15 % hemicellulose, and having a volume-weighted median particle dimension within the range of 25-75 μm, as measured by laser light diffractometry. (a) 0.01 wt% to 0.5 wt% of a clay; (b) 0.01 wt% to 0.5 wt% of an external structuring agent, comprising particulate cellulose material containing, by dry weight, at least 60 % cellulose, 0.5-10 % pectin and 1-15 % hemicellulose, and having a volume-weighted median particle dimension within the range of 25-75 μm, as measured by laser light diffractometry.
A method of receiving a signal, which is received by a first user equipment, UE, from a base station, BS, in a wireless access system supporting full duplex radio, FDR, transmission, comprising the steps of: receiving a first reference signal for channel information Hsi from the BS; calculating channel information Hsi on self-interference using the first reference signal; receiving a second reference signal for channel information Hd from the BS and simultaneously receiving a third reference signal from a second UE at the time of receiving the second reference signal; calculating channel information Heff from which the self-interference is cancelled based on the second reference signal, the third reference signal, and the channel information Hsi; and receiving the signal using the channel information Hd on a channel on which the signal is received and the channel information Heff. receiving a first reference signal for channel information Hsi from the BS; calculating channel information Hsi on self-interference using the first reference signal; receiving a second reference signal for channel information Hd from the BS and simultaneously receiving a third reference signal from a second UE at the time of receiving the second reference signal; calculating channel information Heff from which the self-interference is cancelled based on the second reference signal, the third reference signal, and the channel information Hsi; and receiving the signal using the channel information Hd on a channel on which the signal is received and the channel information Heff.
Stretching device, comprising at least: - a bracket and a support, which is mounted so as to be able to move in relation to the said bracket; - at least one stretching rod, which is secured to the said support; - means for vertically moving the said support along the said bracket, the said movement means comprising at least two linear drives, each linear drive being provided with a coil and a magnet path facing one another; - each coil being secured to the said bracket, each magnet path being secured to the said support; - the said coils of each linear drive and/or the magnet paths of each linear drive extending symmetrically on either side of a vertical median plane of the said bracket; characterized in that - the said coils are mounted in the centre of the said bracket along and on either side of the said vertical median plane; and in that - the said support has a U-shaped cross section with two lateral arms; - each magnet path is secured to the inner wall of one of the said two lateral arms of the said support. - a bracket and a support, which is mounted so as to be able to move in relation to the said bracket; - at least one stretching rod, which is secured to the said support; - means for vertically moving the said support along the said bracket, the said movement means comprising at least two linear drives, each linear drive being provided with a coil and a magnet path facing one another; - each coil being secured to the said bracket, each magnet path being secured to the said support; - the said coils of each linear drive and/or the magnet paths of each linear drive extending symmetrically on either side of a vertical median plane of the said bracket; - the said coils are mounted in the centre of the said bracket along and on either side of the said vertical median plane; - the said support has a U-shaped cross section with two lateral arms; - each magnet path is secured to the inner wall of one of the said two lateral arms of the said support.
A wireless power transmission system without inverter bus voltage control to adjust transmitter power (P in), the system being configured to implement a control loop for tuning power transmission, wherein the control loop includes: a first sub-loop to control output power (P in) of a transmitter of the wireless power transmission system; and a second sub-loop to tune a combined reactance of an inductor (L3d) and a capacitor (C3d) that couple a tank circuit to a rectifier in a receiver of the wireless power transmission system, wherein the second sub-loop tunes the combined reactance by monitoring efficiency of the wireless power transmission and wherein the second sub-loop operates at a rate of communication between the transmitter and the receiver. a first sub-loop to control output power (P in) of a transmitter of the wireless power transmission system; and a second sub-loop to tune a combined reactance of an inductor (L3d) and a capacitor (C3d) that couple a tank circuit to a rectifier in a receiver of the wireless power transmission system, wherein the second sub-loop tunes the combined reactance by monitoring efficiency of the wireless power transmission and wherein the second sub-loop operates at a rate of communication between the transmitter and the receiver.
A platform, comprising: a structure; a platform electrical system; a platform wiring harness; an engine coupled to the structure, wherein the engine includes an engine control system; and a wiring harness system coupling the engine control system to the platform electrical system, wherein the wiring harness system includes: an engine wiring harness coupled to the platform wiring harness; an interface configured to electrically connect the engine wiring harness to the platform wiring harness; and a plurality of electromagnetic interference protection components (58, 60) configured to provide EMI protection for the engine control system; wherein the interface includes a wiring harness connector (36, 38) installed as part of the platform wiring harness or the engine wiring harness, and wherein the EMI protection components (58, 60) are incorporated in the wiring harness connector, each EMI protection component (58, 60) being configured for nondestructive removal and replacement. a structure; a platform electrical system; a platform wiring harness; an engine coupled to the structure, wherein the engine includes an engine control system; and a wiring harness system coupling the engine control system to the platform electrical system, wherein the wiring harness system includes: an engine wiring harness coupled to the platform wiring harness; an interface configured to electrically connect the engine wiring harness to the platform wiring harness; and a plurality of electromagnetic interference protection components (58, 60) configured to provide EMI protection for the engine control system; wherein the interface includes a wiring harness connector (36, 38) installed as part of the platform wiring harness or the engine wiring harness, and wherein the EMI protection components (58, 60) are incorporated in the wiring harness connector, each EMI protection component (58, 60) being configured for nondestructive removal and replacement. an engine wiring harness coupled to the platform wiring harness; an interface configured to electrically connect the engine wiring harness to the platform wiring harness; and a plurality of electromagnetic interference protection components (58, 60) configured to provide EMI protection for the engine control system; wherein the interface includes a wiring harness connector (36, 38) installed as part of the platform wiring harness or the engine wiring harness, and wherein the EMI protection components (58, 60) are incorporated in the wiring harness connector, each EMI protection component (58, 60) being configured for nondestructive removal and replacement.
Mounting apparatus for piles, the mounting apparatus comprising a mounting device and an anchor component with a bearing surface for a pile, for assembling with components such as stones, side plates, wherein the anchor component has connecting elements in the area of the bearing surface for the mounting device which is assigned to the pile, and the anchor component includes at least one bearing surface which is assigned to the bearing surface at an angle for positioning against the component, wherein the anchor component is formed by panel elements (1, 2) and the mounting device constructed as a panel element, characterized in that the one panel element of the anchor component and the panel element of the mounting device have corresponding dimensions, wherein the panel element of the mounting device supports an insertion shoe for the pile, and wherein the panel element is fastened to the one panel element of the anchor component.
An agricultural tire comprising: a plurality of lug blocks that are provided at a tread portion; and protruding portions that protrude towards an outer side in a tire width direction from an end portion on the outer side in the tire width direction of the lug blocks, wherein the lug blocks are alternately arranged along a tire circumferential direction on both sides in the tire width direction, a longitudinal direction of each lug block is inclined with respect to the tire width direction the agricultural tire being characterised in that the protruding portions have a surface that, if an angle of a virtual straight line extending towards the outer side in the tire width direction is taken as 0°, faces a tire rotation direction at an angle of not less than 35° and not more than 55°. a plurality of lug blocks that are provided at a tread portion; and protruding portions that protrude towards an outer side in a tire width direction from an end portion on the outer side in the tire width direction of the lug blocks, wherein the lug blocks are alternately arranged along a tire circumferential direction on both sides in the tire width direction, a longitudinal direction of each lug block is inclined with respect to the tire width direction the agricultural tire being characterised in that the protruding portions have a surface that, if an angle of a virtual straight line extending towards the outer side in the tire width direction is taken as 0°, faces a tire rotation direction at an angle of not less than 35° and not more than 55°.
A method for transmitting data using enhanced random access channel, RACH, procedure, the method comprising: receiving an indication associated with uplink transmission via broadcast signaling, the indication comprising a maximum amount of transmission time and a maximum ratio of data part power to control part power; and transmitting data in the uplink in accordance with the received maximum ratio of data part power to control part power and the received maximum amount of transmission time. receiving an indication associated with uplink transmission via broadcast signaling, the indication comprising a maximum amount of transmission time and a maximum ratio of data part power to control part power; and transmitting data in the uplink in accordance with the received maximum ratio of data part power to control part power and the received maximum amount of transmission time.
A spa rowing system comprising: a spa shell comprising an anchor on a front end of the spa shell, an anchor on a first lateral side of the spa shell, and an anchor on a second lateral side of the spa shell, the first lateral side opposing the second lateral side of the spa shell; an exercise bar with a first handle and a second handle, the first handle to be gripped by a user's first hand and the second handle to be gripped by a user's second hand; a connector mounted to the exercise bar; a first resistance cable having a first end connectable to the connector of the exercise bar and a second end connectable to the anchor on the first end of the spa shell, to enable the exercise bar to be pulled away from the first end of the spa shell under resistance of the first resistance cable; characterized in that the exercise bar is adjustable between a first length and a second length, whereby the first length is shorter than the second length, and an extension band, the extension band having a first end connectable to the connector of the exercise bar and a second end connectable to one or more resistance cables. a spa shell comprising an anchor on a front end of the spa shell, an anchor on a first lateral side of the spa shell, and an anchor on a second lateral side of the spa shell, the first lateral side opposing the second lateral side of the spa shell; an exercise bar with a first handle and a second handle, the first handle to be gripped by a user's first hand and the second handle to be gripped by a user's second hand; a connector mounted to the exercise bar; a first resistance cable having a first end connectable to the connector of the exercise bar and a second end connectable to the anchor on the first end of the spa shell, to enable the exercise bar to be pulled away from the first end of the spa shell under resistance of the first resistance cable; characterized in that the exercise bar is adjustable between a first length and a second length, whereby the first length is shorter than the second length, and an extension band, the extension band having a first end connectable to the connector of the exercise bar and a second end connectable to one or more resistance cables.
A cooling device comprising a refrigeration volume wherein the foodstuffs to be cooled are placed, at least one cabinet having an inner wall surrounding the refrigeration volume and an outer wall with heat insulating material injected between itself and the inner wall, a compressor providing compression of the refrigerant, circulation pipes that extend at least between the inner wall and the outer wall, and at least one retainer having - a ring shaped body, - an inlet port enabling a circulation pipe to be placed into the ring shaped body, wherein said circulation pipe provides the refrigeration volume to be cooled by circulating the refrigerant leaving the compressor therein, and - more than one first arm, extending radially inwards from the ring shaped body towards the circulation pipe, providing the circulation pipe to be held inside the body and - at least two second arms, extending radially outwards towards the exterior of the body, characterized in that at least one of the second arms contacts the inner wall and at least one other contacts the outer wall at least partially. - a ring shaped body, - an inlet port enabling a circulation pipe to be placed into the ring shaped body, wherein said circulation pipe provides the refrigeration volume to be cooled by circulating the refrigerant leaving the compressor therein, and - more than one first arm, extending radially inwards from the ring shaped body towards the circulation pipe, providing the circulation pipe to be held inside the body and - at least two second arms, extending radially outwards towards the exterior of the body,
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a higher layer signaling including configuration information on resources for rate matching, the resources for rate matching including a first reserved resource and a second reserved resource; receiving, from the base station, downlink control information, DCI, scheduling a physical downlink shared channel, PDSCH, the DCI including information activating the second reserved resource; and receiving, from the base station, a data based on the DCI, wherein the data is mapped on scheduled resources on the PDSCH other than the first reserved resource identified based on the configuration information and the second reserved resource identified based on the configuration information and the information. receiving, from a base station, a higher layer signaling including configuration information on resources for rate matching, the resources for rate matching including a first reserved resource and a second reserved resource; receiving, from the base station, downlink control information, DCI, scheduling a physical downlink shared channel, PDSCH, the DCI including information activating the second reserved resource; and receiving, from the base station, a data based on the DCI, wherein the data is mapped on scheduled resources on the PDSCH other than the first reserved resource identified based on the configuration information and the second reserved resource identified based on the configuration information and the information.