mhurhangee/ep-ind-claims huggingface dataset:
A sensor comprising: a stand; a first body connected to the stand to be movable along a sensing axis by first suspension means defining a suspension plane; two resonators (10.1, 10.2) that are arranged symmetrically about the first body along the sensing axis and each of which comprises a pair of second bodies (11.1, 12.1, 11.2, 12.2) each connected to the stand by second suspension means (13.1, 13.2) in order to be capable of vibrating along a vibration axis (Y.1, Y.2) that is substantially perpendicular to the sensing axis, and that are connected to each other by third suspension means (14.1, 14.2); transducer members (9, 17.1, 17.2) connected to a control unit for detecting a position of the first body relative to the stand, for setting the second bodies into vibration along the vibration axis, and for detecting respective vibration frequencies of the second bodies; and surface electrostatic coupling means (18.1, 18.2) connecting each second body to the first body in such a manner that a movement of the first body relative to the stand along the sensing axis leads to an increase in electrostatic coupling for one of the pairs of second bodies and to a decrease in electrostatic coupling for the other pair of second bodies.
Wheelset (10a, 10b) for a mainline rail vehicle, comprising a. a first wheel and a second wheel coupled thereto by means of a wheelset axle, and b. at least one recuperative electric drive module (100a-c) arranged on the wheelset axle wherein i. the recuperative electric drive module (100a-c) is configured 1. when operated in a drive mode, to convert electrical energy into rotational energy of the wheelset (10a, 10b), and 2. when operated in a braking mode, to convert rotational energy of the wheelset (10a, 10b) into electrical energy, wherein c. a plurality of K recuperative electric drive modules (100a-c) is arranged on the wheelset axle, characterized in that d. the wheelset (10a, 10b) has a first recuperative electric drive module with a first maximum efficiency in a first rotational speed range and a second recuperative electric drive module with a second maximum efficiency in a second rotational speed range, wherein the upper end of the second rotational speed range is higher than the upper end of the first rotational speed range and the lower end of the first rotational speed range is lower than the lower end of the second rotational speed range. a. a first wheel and a second wheel coupled thereto by means of a wheelset axle, and b. at least one recuperative electric drive module (100a-c) arranged on the wheelset axle wherein i. the recuperative electric drive module (100a-c) is configured 1. when operated in a drive mode, to convert electrical energy into rotational energy of the wheelset (10a, 10b), and 2. when operated in a braking mode, to convert rotational energy of the wheelset (10a, 10b) into electrical energy, wherein i. the recuperative electric drive module (100a-c) is configured 1. when operated in a drive mode, to convert electrical energy into rotational energy of the wheelset (10a, 10b), and 2. when operated in a braking mode, to convert rotational energy of the wheelset (10a, 10b) into electrical energy, wherein 1. when operated in a drive mode, to convert electrical energy into rotational energy of the wheelset (10a, 10b), and 2. when operated in a braking mode, to convert rotational energy of the wheelset (10a, 10b) into electrical energy, wherein c. a plurality of K recuperative electric drive modules (100a-c) is arranged on the wheelset axle, characterized in that d. the wheelset (10a, 10b) has a first recuperative electric drive module with a first maximum efficiency in a first rotational speed range and a second recuperative electric drive module with a second maximum efficiency in a second rotational speed range, wherein the upper end of the second rotational speed range is higher than the upper end of the first rotational speed range and the lower end of the first rotational speed range is lower than the lower end of the second rotational speed range.
A method for producing a microlens (1, 1') with a carrier wafer, wherein a lens (14, 14') is moulded in an opening of the carrier wafer formed for receiving the lens (14, 14') by stamping the lens (14, 14') into the carrier wafer, characterised in that there is provided at an inner ring of the carrier wafer a holding structure for the form-fit fixing of the lens (14, 14') that is not releasable without destruction, to which holding structure the lens (14, 14') is fixed.
A sample preparation system having a transport mechanism movable in the x, y and z directions, which at a first retaining fixture has a sampler for taking up samples that is movable in the z direction and at a second retaining fixture has a processing apparatus in form of a filter, a column or a cartridge for processing samples that is movable in the z direction and wherein the sampler is connected via at least one connecting line (11, 12) to the processing apparatus for fluid exchange, characterised in that at least one sample vessel and at least one sample-receiving container are arranged spatially adjacent in such a way that the sampler is arranged in the z direction above the sample vessel and the processing apparatus is arranged simultaneously above the sample-receiving container.
Process for transferring a liquid for an SCR system from a passive tank for storing the liquid to an active tank, using a pump intended for pumping the liquid held in the passive tank and transferring it to the active tank, according to which the pump is commanded so as to transfer liquid from the passive tank to the active tank when said active tank has a liquid level below a set point level Lsp and when the passive tank contains liquid at a temperature above the freezing point of the liquid, characterized in that said process comprises the following steps: - a temperature Text outside of the two tanks is measured and a processor uses this measurement, the thermal history of the SCR system and a time constant that corresponds to the liquid in the passive tank changing from the solid state to the liquid state or vice versa, to check whether or not the liquid in the passive tank is frozen; - the liquid level L in the active tank is compared to a set point level Lsp; - if the liquid in the passive tank is not frozen and L < Lsp, the transfer pump is activated so as to pump liquid in the passive tank and transfer it into the active tank until a target level Lt is reached, where Lt >= Lsp, and the transfer pump is stopped; - if the liquid in the passive tank is frozen or if L >= Lsp, the transfer pump is not activated. - a temperature Text outside of the two tanks is measured and a processor uses this measurement, the thermal history of the SCR system and a time constant that corresponds to the liquid in the passive tank changing from the solid state to the liquid state or vice versa, to check whether or not the liquid in the passive tank is frozen; - the liquid level L in the active tank is compared to a set point level Lsp; - if the liquid in the passive tank is not frozen and L < Lsp, the transfer pump is activated so as to pump liquid in the passive tank and transfer it into the active tank until a target level Lt is reached, where Lt >= Lsp, and the transfer pump is stopped; - if the liquid in the passive tank is frozen or if L >= Lsp, the transfer pump is not activated.
A device for the insertion of loose bulk material volumes, in particular of loose tobacco, into sales containers, in particular for retail, comprising at least two receptacles for bulk material volumes separated for two containers and a holding device for at least two containers, the receptacles for the bulk material volumes being two filling tubes that can be brought into the containers and to which at least two vacuum lines are attached to apply a vacuum that holds the bulk material volumes together to each of the bulk material volumes, characterised in that a sealing plate is provided, on which the filling tubes stand in a gas-tight manner, wherein a table plate, which forms the holding device for the containers, is arranged under the sealing plate, wherein the sealing plate and the table plate can be brought into a position overlapping each other, and holes arranged in the table plate in the region of the containers can be brought into a position overlapping holes arranged in the sealing plate, and the bulk material volumes can be inserted into the containers after the filling tubes have been inserted into the containers through the plates (5, 6).
A robotic tool changer comprising: a. a first unit; b. a second unit; c. a plurality of rolling members disposed in a retention area in one of the units; d. a piston movably mounted in one of the units of the robotic tool changer and movable between locked and unlocked positions; e. in the locked position, the piston is operative to engage the rolling members in one of the units and to urge the rolling members against a surface of the other unit to lock the two units together; f. the piston including a stem movable back and forth through an opening in the robotic tool changer; and characterised in that g. the stem of the piston includes a steep for engaging a portion of the opening as the piston moves from the locked position to the unlocked position, and wherein the engagement of the step of the piston with a portion of the opening tends to restrict the further movement of the piston towards the unlocked position. a. a first unit; b. a second unit; c. a plurality of rolling members disposed in a retention area in one of the units; d. a piston movably mounted in one of the units of the robotic tool changer and movable between locked and unlocked positions; e. in the locked position, the piston is operative to engage the rolling members in one of the units and to urge the rolling members against a surface of the other unit to lock the two units together; f. the piston including a stem movable back and forth through an opening in the robotic tool changer; and g. the stem of the piston includes a steep for engaging a portion of the opening as the piston moves from the locked position to the unlocked position, and wherein the engagement of the step of the piston with a portion of the opening tends to restrict the further movement of the piston towards the unlocked position.
A method of operating a scanning probe microscope comprising the steps: generating relative motion between a probe having a tip, and a sample; determining a background signal by increasing tip-sample separation sufficiently to a controlled distance so that only parasitic forces are contributing to the detected deflection of the probe without tip-sample interaction; and detecting motion of the probe by measuring total probe deflection wherein the probe motion detected by measuring total probe deflection is caused by at least a) probe-sample interaction, and b) parasitic forces which include all periodic motion occurring when the probe is not interacting with the sample; wherein the detected probe motion caused by probe-sample interaction is less than the detected probe motion caused by parasitic forces; and recovering, from the probe motion detected by measuring total probe deflection, a probe-sample interaction that is substantially independent of parasitic probe deflection by performing hydrodynamic background subtraction in real time, wherein once sufficient subtraction is achieved which is determined using a constant deflection when the tip is not interacting with the surface, the SPM is able to turn control feedback on to use the background corrected data for feedback, wherein the hydrodynamic background represents the parasitic probe deflection. generating relative motion between a probe having a tip, and a sample; determining a background signal by increasing tip-sample separation sufficiently to a controlled distance so that only parasitic forces are contributing to the detected deflection of the probe without tip-sample interaction; and detecting motion of the probe by measuring total probe deflection wherein the probe motion detected by measuring total probe deflection is caused by at least a) probe-sample interaction, and b) parasitic forces which include all periodic motion occurring when the probe is not interacting with the sample; wherein the detected probe motion caused by probe-sample interaction is less than the detected probe motion caused by parasitic forces; and recovering, from the probe motion detected by measuring total probe deflection, a probe-sample interaction that is substantially independent of parasitic probe deflection by performing hydrodynamic background subtraction in real time, wherein once sufficient subtraction is achieved which is determined using a constant deflection when the tip is not interacting with the surface, the SPM is able to turn control feedback on to use the background corrected data for feedback, wherein the hydrodynamic background represents the parasitic probe deflection.
Trailer coupling for a motor vehicle, in particular a car, with a holder mounted on or attachable to the motor vehicle and a coupling arm attachable releasably to the holder, wherein the coupling arm has a holding part with a plug-in projection for insertion in a plug-in socket of the holder and a coupling part with a coupling element, in particular a coupling ball, for coupling on a load carrier or a trailer, wherein the holding part and the coupling part are connected to one another with the aid of flange parts (40, 66) which are screwed releasably together and in the assembled state abut one another with facing end face support surfaces (58, 67), wherein the plug-in projection of the holding part is releasably locked in the plug-in socket of the holder with the aid of a locking device wherein, for the setting of different clearances of the coupling element from a road surface the support surface has such a longitudinal extent of at least one flange part forming a first flange part, wherein the support surface of the flange part forming the second flange part may be mounted releasably on the first flange part in a first and at least one different second longitudinal mounting position (M1, M2) relative to the longitudinal extent of the support surface of the first flange part, and wherein the first flange part has in the area of its support surface a first screw assembly of screws and/or screw sockets, which is matched by a second screw assembly of screws and/or screw sockets in the area of the support surface of the second flange part in the first and second longitudinal mounting position or positions (M1, M2), wherein at least one of the flange parts (40, 66) may be releasably connected to the holding part and the coupling part, characterised in that the releasable flange part is in the form of an adapter plate which is designed for the adaptation of the holding part and the coupling part to one another and may be connected releasably to both parts, the holding part and the coupling part.
An implantable medical device comprising: a plurality of electrodes; sensing circuitry configured to sense a physiological electrical signal via the plurality of electrodes (60A, 60B); and communication circuitry configured to transmit and/or receive tissue conductance communication signals via the plurality of electrodes, wherein at least one electrode of the plurality of electrodes comprises a lower-capacitance portion (62A, 62B) and a higher-capacitance portion (64A, 64B), wherein the higher-capacitance portion is configured to sense the physiological electrical signal. a plurality of electrodes; sensing circuitry configured to sense a physiological electrical signal via the plurality of electrodes (60A, 60B); and communication circuitry configured to transmit and/or receive tissue conductance communication signals via the plurality of electrodes, wherein at least one electrode of the plurality of electrodes comprises a lower-capacitance portion (62A, 62B) and a higher-capacitance portion (64A, 64B), wherein the higher-capacitance portion is configured to sense the physiological electrical signal.
A method, in a base station (401A, 401B), for assisting in an establishment of an auxiliary bearer, the base station (401A, 401B) being comprised in a wireless network, the method characterized by: identifying a need for establishing an auxiliary bearer to be associated with a pre-existing bearer served by the base station (401A, 401B), wherein the auxiliary bearer and the pre-existing bearer are for a user data session; and sending, to a network node (121, 123), a request to establish the auxiliary bearer. identifying a need for establishing an auxiliary bearer to be associated with a pre-existing bearer served by the base station (401A, 401B), wherein the auxiliary bearer and the pre-existing bearer are for a user data session; and sending, to a network node (121, 123), a request to establish the auxiliary bearer.
Device for holding sheet metal components, which are to be measured, of a vehicle body work in a reference position, with a stop element to be placed against the sheet metal component, a base part carrying the stop element and means for adjusting the position of the stop element relative to the base part, the means comprising at least one single-part spacer part (17, 18) which is designed as a panel and is arranged between the stop element and the base part, characterized in that the spacer part (17, 18) is displaceable between the base part and the stop element transversely with respect to the adjustment direction of the stop element and parallel to the panel plane and has a plurality of sections of differing panel thickness (22, 23) holding the base part and the stop element at different distances from each other, wherein the difference between the distances corresponds in each case to a displacement of the stop element by a sheet metal thickness of the sheet metal component held, and a ramp is formed between the sections of the spacer part (17, 18).
A metal porous body in a long sheet shape having a skeleton with a three-dimensional network structure, the metal porous body comprising: a defective portion, a recess being formed at the defective portion, the defective portion being a portion where a portion of the skeleton is chipped or a portion where a foreign substance adheres to the skeleton, characterized in that the metal porous body further comprises a small piece of another metal porous body having an average pore diameter different from that of the metal porous body in the long sheet shape, wherein the small piece of the metal porous body is overlapped on the defective portion at at least a bottom portion of the recess. a defective portion, a recess being formed at the defective portion, the defective portion being a portion where a portion of the skeleton is chipped or a portion where a foreign substance adheres to the skeleton, characterized in that the metal porous body further comprises a small piece of another metal porous body having an average pore diameter different from that of the metal porous body in the long sheet shape, wherein the small piece of the metal porous body is overlapped on the defective portion at at least a bottom portion of the recess.
A surgical stapler comprising: an anvil assembly including an anvil spline (34a, 34b); a shell assembly including a shell spline; and a handle assembly including an anvil retainer, the shell assembly secured to a distal portion of the handle assembly and the anvil assembly secured to the anvil retainer, the handle assembly including a motor configured to extend and retract the anvil retainer through the shell assembly such that the anvil assembly is moved away and towards the shell assembly, and a processing unit configured to send control signals to the motor to oscillate the anvil retainer between extension and retraction in a first oscillation pattern to obviate a spline crash between the anvil spline and the shell spline, characterised in that the processing unit is further configured to send control signals to the motor to oscillate the anvil retainer between extension and retraction in a second oscillation pattern different from the first oscillation pattern to resume retraction of the anvil assembly relative to the shell assembly after oscillating the anvil retainer in the first oscillation pattern. an anvil assembly including an anvil spline (34a, 34b); a shell assembly including a shell spline; and a handle assembly including an anvil retainer, the shell assembly secured to a distal portion of the handle assembly and the anvil assembly secured to the anvil retainer, the handle assembly including a motor configured to extend and retract the anvil retainer through the shell assembly such that the anvil assembly is moved away and towards the shell assembly, and a processing unit configured to send control signals to the motor to oscillate the anvil retainer between extension and retraction in a first oscillation pattern to obviate a spline crash between the anvil spline and the shell spline, characterised in that the processing unit is further configured to send control signals to the motor to oscillate the anvil retainer between extension and retraction in a second oscillation pattern different from the first oscillation pattern to resume retraction of the anvil assembly relative to the shell assembly after oscillating the anvil retainer in the first oscillation pattern. configured to send control signals to the motor to oscillate the anvil retainer between extension and retraction in a first oscillation pattern to obviate a spline crash between the anvil spline and the shell spline, characterised in that the processing unit is further configured to send control signals to the motor to oscillate the anvil retainer between extension and retraction in a second oscillation pattern different from the first oscillation pattern to resume retraction of the anvil assembly relative to the shell assembly after oscillating the anvil retainer in the first oscillation pattern.