mhurhangee/ep-ind-claims huggingface dataset:
Assembly of two concentric parts (1,2) and a bearing between said parts for allowing a relative rotation between said parts around a vertical axis of rotation, wherein said bearing comprises an inner bearing ring, an outer bearing ring, axial rollers for transmitting, between the inner and outer bearing rings, axial loads in parallel to the vertical axis of rotation and radial rollers for transmitting, between the inner and outer bearing rings, radial loads in a direction towards or away from the vertical axis of rotation, wherein a first one of said bearing rings (5,6) is attached to a first one of said concentric parts (1,2) in a manner for maximally limiting a radial distortion thereof and wherein the second one of said concentric parts is connected to the second one of said bearing rings at an engagement location, wherein the second concentric part has a load support member which at the engagement location is connected to the second bearing ring such that the vertical load introduced into said second bearing ring by said load support member extends through the axial rollers without causing a substantial moment around said axial rollers, wherein the second concentric part further comprises a load transfer member for transferring axial loads therein to said load support member, characterized in that the second concentric part indirectly or directly engages the second bearing ring at at least one engagement position through a member extending in a radial plane which is weak in the axial direction of the assembly in such a manner that only radial loads and substantially no axial loads are introduced at said at least one engagement position and wherein said at least one engagement position with respect to the engagement location is located such, as seen in the direction of the vertical axis of rotation, that the resultant of radial loads (R 1, R 2) introduced into said second bearing ring at said at least one engagement position and at the engagement location extends through the radial rollers without causing a substantial moment around said radial rollers.
An LED tube lamp realized for use with a high-frequency ballast, which LED tube lamp comprises: - an LED arrangement; - a driver realized to drive the LED arrangement; - a first connecting terminal pair (11, 12) for connecting to first outputs (21, 22) of the high-frequency ballast and a second connecting terminal pair (13, 14) for connecting to second outputs (23, 24) of the high-frequency ballast, and wherein the LED tube lamp is characterized by a magnetically coupled inductor pair (L 11, L 12) comprising a first inductor (L 11) in series with one terminal of the first connecting terminal pair (11, 12) and a second inductor (L 12) in series with the other terminal of the first connecting terminal pair (11, 12), wherein said first inductor (L 11) is in a first loop allowing current into the driver from the high-frequency ballast, said second inductor (L 12) is in a second loop, and said coupled inductor pair (L 11, L 12) are magnetically coupled in such a manner that a current in the second loop is limited in response to the current in the first loop. - an LED arrangement; - a driver realized to drive the LED arrangement; - a first connecting terminal pair (11, 12) for connecting to first outputs (21, 22) of the high-frequency ballast and a second connecting terminal pair (13, 14) for connecting to second outputs (23, 24) of the high-frequency ballast,
Measuring device having a measuring housing and a measuring element movably accommodated in the measuring housing, and having a sensor device for detecting a position of the measuring element relative to the measuring housing, the sensor device comprising at least one sensor means designed to provide an analog sensor signal as a function of the position of the measuring element, as well as circuit means for analog-to-digital conversion of the sensor signal and processing means for processing the sensor signal and bus communication means for bidirectional digital data transmission between the sensor device and a control device, wherein the processing means are designed for a programmable logic combination of at least two absolute values of sensor signals determined successively in chronological sequence and for a provision of a combination result and of the analog sensor signal in digitized coding, in particular with a coding comprising at least 2 bits, to the bus communication means, and wherein the processing means are designed for at least one programmable logic combination of absolute values of the analog sensor signal from the group: switching point correction, window comparator, direction recognition, hysteresis comparator, OR operation, AND operation, negation, counter, signal extension.
A method for the in-vitro modulation of the cold menthol receptor TRMP8, where the receptor is brought into contact with at least one compound which is selected from the compounds of the formulae which, in a cellular activity test using cells which recombinantly express the human TRPM8 receptor, modulate the permeability of these cells for Ca 2+ ions.
Method of fold-free and wrinkle-free smoothing and drying of objects, namely planar textiles and textile pre-formed parts or ready-made goods, wherein the objects are moved through at least one chamber and exposed for 10 to 150 sec to IR radiation from at least one IR emitter in the wavelength range of 800 to 5000 nm and wherein the objects are exposed to IR radiation with a power density of between 1 to 80 kW/m 2, characterized in that the objects are pre-dried with medium-wave IR radiation of at least a first electrically-operated IR emitted in a range from 1400 to 3500 nm with a power density of 10 to 60 kW/m 2, that the objects are fully dried with short-wave IR radiation of at least a second electrically-operated IR emitter in the range from 800 to 1400 nm with a power density of 5 to 20 kW/m 2 while being smoothed, that the surface temperature at various point or zones of the objects is measured and this surface temperature is used as a guideline parameter for regulating the output of the IR emitter, and that the drying is supported by a non-heated flow of air and without spray steam.
Eyewear for outputting audio information having an eyewear temple, which includes at least one loudspeaker, wherein the eyewear temple, when placed as intended at an ear intended therefor, is spaced apart from an ear opening, so the sound waves generated by the loudspeaker are transmitted over the surroundings to the spaced ear opening, wherein the loudspeaker is an ultrasonic loudspeaker, including at least one sound-generating element, which is deflectable in the direction of a stroke axis, for generating ultrasound and wherein the eyewear have a parametric audio unit including the ultrasonic loudspeaker, with which an audible sound beam directed toward the ear is generatable characterized in that the ultrasonic loudspeaker is a MEMS sound transducer for generating ultrasound, wherein the sound generating element of the MEMS sound transducer is implemented as a cantilever arm which is fixed with only one of its two ends to a support substrate of the MEMS sound transducer so that the other end is free to oscillate, and that the sound-generating element of the ultrasonic loudspeaker is arranged at an outer-side recess (14 of an outer side of the eyewear temple in a planar or flush manner with respect to the outer side. having an eyewear temple, which includes at least one loudspeaker, wherein the eyewear temple, when placed as intended at an ear intended therefor, is spaced apart from an ear opening, so the sound waves generated by the loudspeaker are transmitted over the surroundings to the spaced ear opening, wherein the loudspeaker is an ultrasonic loudspeaker, including at least one sound-generating element, which is deflectable in the direction of a stroke axis, for generating ultrasound and wherein the eyewear have a parametric audio unit including the ultrasonic loudspeaker, with which an audible sound beam directed toward the ear is generatable characterized in that the ultrasonic loudspeaker is a MEMS sound transducer for generating ultrasound, wherein the sound generating element of the MEMS sound transducer is implemented as a cantilever arm which is fixed with only one of its two ends to a support substrate of the MEMS sound transducer so that the other end is free to oscillate, and that the sound-generating element of the ultrasonic loudspeaker is arranged at an outer-side recess (14 of an outer side of the eyewear temple in a planar or flush manner with respect to the outer side.
A robot system comprising: - a robot comprising a robot arm and an inertial sensor (31, 32) provided in the robot arm, and - a control apparatus configured for controlling the robot, wherein the robot arm is arranged so as to be controlled by the control apparatus using a weighting value or feedback gain for weighting output from the inertial sensor (31, 32), wherein calculation expressions or calibration curves are stored in a memory unit of the control apparatus in which an acceleration of the robot arm is associated with the weighting value or feedback gain, characterized in that the control apparatus is configured to set the weighting value or feedback gain using the calculation expressions or calibration curves stored in the memory unit so that - in at least a part of a range in which the robot arm is movable, the weighting value or feedback gain is a first value when the acceleration of the robot arm is a first acceleration, and - the weighting value or feedback gain changes from the first value to a second value higher than the first value when the acceleration of the robot arm changes from the first acceleration to a second acceleration which is lower than the first acceleration. - a robot comprising a robot arm and an inertial sensor (31, 32) provided in the robot arm, and - a control apparatus configured for controlling the robot, wherein the robot arm is arranged so as to be controlled by the control apparatus using a weighting value or feedback gain for weighting output from the inertial sensor (31, 32), wherein calculation expressions or calibration curves are stored in a memory unit of the control apparatus in which an acceleration of the robot arm is associated with the weighting value or feedback gain, characterized in that the control apparatus is configured to set the weighting value or feedback gain using the calculation expressions or calibration curves stored in the memory unit so that - in at least a part of a range in which the robot arm is movable, the weighting value or feedback gain is a first value when the acceleration of the robot arm is a first acceleration, and - the weighting value or feedback gain changes from the first value to a second value higher than the first value when the acceleration of the robot arm changes from the first acceleration to a second acceleration which is lower than the first acceleration.
Refrigeration appliance, especially household refrigeration appliance, having a carcass and a door leaf which, when the door leaf is closed, delimit a refrigeration compartment, as well as a refrigerated goods drawer able to be pulled at least partly out of the refrigeration compartment, which has a storage surface and two slider devices (34, 35) supported moveably in the refrigeration compartment on the carcass, by means of which the refrigerated goods drawer is able to be pulled at least partly out of the refrigeration compartment and additionally the slider devices (34, 35) are supported moveably on the storage surface so that the storage surface is able to be moved relative to the slider devices (34, 35), wherein at least one of the slider devices (34, 35) has carrier ribs and a slider shoe and the relevant slider device (34, 35) is supported by means of the carrier ribs especially form-fit moveably on the storage surface and by means of the slider shoe moveably on the carcass and the carrier ribs have a first delimitation, which prevents a further displacement of the storage surface relative to the slider device (34, 35) out of the refrigeration compartment on reaching a first position, characterised in that the first delimitation is configured to fix the storage surface on reaching the first position with the carrier ribs but, on overcoming a force, to allow a displacement of the storage surface relative to the slider devices (34, 35) in the refrigeration compartment.
Connecting rod for an internal combustion engine with variable compression, having a connecting rod body and an eccentric adjusting device for adjusting an effective connecting rod length, wherein the eccentric adjusting device has two cylinders (23, 24) as supporting chambers and wherein both in each case an inlet (25, 26) for feeding hydraulic fluid into the cylinders (23, 24) via a supply line (32, 33) and in each case an outlet for removing hydraulic fluid from the cylinders (23, 24) are provided, having a switching valve with a valve housing which has a first working port and a second working port and also a supply port, wherein the switching valve is arranged in a switch bore of the connecting rod, wherein the first working port is connected to the supply port in a first switching position of the switching valve, and the second working port is connected to the supply port in a second switching position of the switching valve, wherein at least one filter element (14, 15, 16) is arranged in the region of the ports (10, 11, 12) of the switching valve.
A contact sensor for monitoring activity at a body surface, comprising: a body contacting layer of knitted fabric having a body surface contacting area; and a base layer of knitted fabric, wherein the stitch density of the body contacting layer is higher than that of the base layer and wherein the base layer is knitted with native threads of a first thickness, characterized in that the base layer is knitted with extra thread introduced to the base layer during the knitting process to form a localized area that has a second thickness greater than the first thickness and the localized area is congruent with the body surface contacting area of the body contacting layer such as to urge the body contacting layer into the forming of a raised outer surface for projection against a body surface. a body contacting layer of knitted fabric having a body surface contacting area; and a base layer of knitted fabric, wherein the stitch density of the body contacting layer is higher than that of the base layer and wherein the base layer is knitted with native threads of a first thickness, characterized in that the base layer is knitted with extra thread introduced to the base layer during the knitting process to form a localized area that has a second thickness greater than the first thickness and the localized area is congruent with the body surface contacting area of the body contacting layer such as to urge the body contacting layer into the forming of a raised outer surface for projection against a body surface.
Modular support structure, in particular a bridge, having side elements (2, 3) which are connected to one another via supports, wherein bearing elements are arranged on the supports, which bearing elements, particularly in the form of panel-like components, are connected to one another by means of a tongue-and-groove connection, wherein in each case two components to be connected have a groove, and a connecting element which has the tongue is arranged on the support carrying the components, characterized in that a movement of the components in the direction of the groove is limited by lateral stops (24.1, 24.2, 24.3, 24.4) arranged on the support or on the connecting element, in that the components adjoin one another flush, in that the connecting element has a T-shaped cross section, and in that a coupling element which has or forms the groove is arranged at the end sides and/or support side of the components in the region of the connection.
A design method for a vehicle seat mountable to a vehicle body of a vehicle and comprising a seat cushion and a seat back, the vehicle seat comprising: a frame structure to be fixed to the vehicle body; and a seating member supported by the frame structure and configured to have a given elastic deformation property and a given vibration damping property and allow an occupant to be seated therein, the design method comprising the steps of: designing the seating member, and determining, by measurement or calculation, a deformation amount D S of the designed seating member itself in a situation where a given load W is applied at a given position X S of the designed seating member; designing the frame structure, and determining, by measurement or calculation, a displacement amount D F of a position X F of the designed frame structure corresponding to the given position X S, in a situation where the designed frame structure is fixed to the vehicle body, and the given load W is applied at the position X F; and checking whether or not the deformation amount D S and the displacement amount D F satisfy the following relationship: D S / D F ≥ 20, and, if not, modifying the seating member, the frame structure, and/or a mounting structure of the frame structure to the vehicle body, so as to satisfy the relationship: D S / D F ≥ 20, wherein the position X F at which the load is applied to the frame structure is a position corresponding to a center-of-gravity position of the thorax of the seated occupant, and wherein the frame structure is formed such that a ratio (W/D F) of the load W to the displacement amount D F in the situation where the load W is applied at the position X F is 70 N/mm or more.. designing the seating member, and determining, by measurement or calculation, a deformation amount D S of the designed seating member itself in a situation where a given load W is applied at a given position X S of the designed seating member; designing the frame structure, and determining, by measurement or calculation, a displacement amount D F of a position X F of the designed frame structure corresponding to the given position X S, in a situation where the designed frame structure is fixed to the vehicle body, and the given load W is applied at the position X F; and checking whether or not the deformation amount D S and the displacement amount D F satisfy the following relationship: D S / D F ≥ 20, and, if not, modifying the seating member, the frame structure, and/or a mounting structure of the frame structure to the vehicle body, so as to satisfy the relationship: D S / D F ≥ 20, wherein the position X F at which the load is applied to the frame structure is a position corresponding to a center-of-gravity position of the thorax of the seated occupant, and wherein the frame structure is formed such that a ratio (W/D F) of the load W to the displacement amount D F in the situation where the load W is applied at the position X F is 70 N/mm or more..
An electrically powered motor vehicle for transport of goods, comprising: - a main frame; - a front axle assembly; and - a rear axle assembly, - wherein said axle assemblies (6, 7) each comprise an auxiliary supporting frame and two suspension units that connect two respective wheel supports to said auxiliary supporting frame, and - wherein at least one of said axle assemblies (6, 7) is a motor-driven axle with steering wheels, further comprising, mounted on the respective auxiliary supporting frame, an electric motor for driving the wheels in rotation, a control unit of said motor, a transmission unit for transmission of motion from the electric motor to the wheels, and a steering device for steering the wheel supports, wherein said main frame includes: - a front frame subassembly, - a floor-panel subassembly, - a rear frame subassembly, and - a top frame subassembly, wherein each of said frame subassemblies comprises a lattice structure including box-section elements made of steel, preferably high-strength steel, said frame subassemblies being prearranged for being preassembled separately and subsequently assembled together to form the aforesaid main frame, wherein said top frame subassembly is prearranged for incorporating the intermediate uprights of the motor vehicle and does not include parts that extend behind said intermediate uprights, and wherein fixed to said intermediate uprights and to the rear frame subassembly is a transporting body for transport of goods, comprising at least one tank-shaped bottom element, characterized in that the aforesaid transporting body also comprises a top element applied on the bottom element so as to define a container closed with a door compartment provided with a door, wherein the body of said bottom and top elements (140, 141) of the transporting body is made of plastic material and is obtained by means of rotational moulding in such a way that each wall of the container has a hollow structure, with walls made of rigid plastic material and an internal cavity filled with foamed plastic material, for example polyurethane. - a main frame; - a front axle assembly; and - a rear axle assembly, - wherein said axle assemblies (6, 7) each comprise an auxiliary supporting frame and two suspension units that connect two respective wheel supports to said auxiliary supporting frame, and - wherein at least one of said axle assemblies (6, 7) is a motor-driven axle with steering wheels, further comprising, mounted on the respective auxiliary supporting frame, an electric motor for driving the wheels in rotation, a control unit of said motor, a transmission unit for transmission of motion from the electric motor to the wheels, and a steering device for steering the wheel supports, - a front frame subassembly, - a floor-panel subassembly, - a rear frame subassembly, and - a top frame subassembly,