mhurhangee/ep-ind-claims huggingface dataset:
A locking mechanism, comprising; a lock bolt (54, 112, 518) movable between extended and retracted positions; a bolt retraction element (68, 216, 316, 520) operatively coupled to the lock bolt (54, 112, 518) and movable between engagement and disengagement positions, the bolt retraction element (68, 216, 316, 520) being biased toward the engagement position; a manually-driven element (80, 214, 314) adapted to engage the bolt retraction element (68, 216, 316, 520) in the engagement position and drive the lock bolt (54, 112, 518) between the extended and retracted positions; a user input device adapted to receive user input information; a controller adapted to store authorization information and verify user input information; and an actuator assembly (70, 522) having a guide element (76, 536), the guide element (76, 536) operatively movable between a capturing position and a non-capturing position, the guide element (76, 536) in the capturing position inhibiting the movement of the bolt retraction element (68, 216, 316, 520), and the guide element (76, 536) in the non-capturing position releasing the movement of the bolt retraction element (68, 216, 316, 520), wherein the guide element (76, 536) inhibits the movement of the bolt retraction element (68, 216, 316, 520) toward the engagement position until the controller verifies that the user input information matches the stored authorization information, characterized in that the bolt retraction element is a bolt retraction gear (68, 216, 316, 520) and the manually-driven element is a manually-driven gear (80, 214, 314).
A power transfer unit for a motive device, comprising: an outer housing; a coupling member; a torque transferring dog collar comprising first inner radial dog members and second inner radial dog members; a torque transferring cone clutch (781, 782, 783, 784) comprising a cone member with exterior dog members (780"'); a stationary piston housing located between the outer housing and the torque transferring clutch; a piston in the piston housing, and a rotatable hollow shaft bisecting the coupling member, the hollow shaft comprising external dog members (780"), wherein the piston is configured to provide actuation forces to the torque transferring dog collar, and, when the dog collar receives the actuation forces, the first inner radial dog members engage the exterior dog members (780"') of the cone member and the second inner radial dog members couple to the external dog members (780") of the hollow shaft, and wherein, when the torque transferring cone clutch receives the actuation forces, the torque transferring cone clutch rotates the coupling member. an outer housing; a coupling member; a torque transferring dog collar comprising first inner radial dog members and second inner radial dog members; a torque transferring cone clutch (781, 782, 783, 784) comprising a cone member with exterior dog members (780"'); a stationary piston housing located between the outer housing and the torque transferring clutch; a piston in the piston housing, and a rotatable hollow shaft bisecting the coupling member, the hollow shaft comprising external dog members (780"), wherein the piston is configured to provide actuation forces to the torque transferring dog collar, and, when the dog collar receives the actuation forces, the first inner radial dog members engage the exterior dog members (780"') of the cone member and the second inner radial dog members couple to the external dog members (780") of the hollow shaft, and wherein, when the torque transferring cone clutch receives the actuation forces, the torque transferring cone clutch rotates the coupling member.
An electric pump, comprising: a stator assembly; a rotor assembly; and a PCB, wherein the stator assembly comprises a coil, the rotor assembly comprises a permanent magnet, the coil is electrically connected with the PCB, an excitation magnetic field is generated when the coil is energized, and the rotor assembly rotates in the excitation magnetic field; the PCB is provided with a power input port (6/61, 6/62), the PCB further comprises a common mode filter, the common mode filter comprises a common mode inductor arranged close to the power input port (6/61, 6/62), wherein a distance between the common mode inductor and an edge of the PCB is greater than a distance between the common mode inductor and the power input port (6/61, 6/62); and in a direction perpendicular to a plane where the PCB is located, one end of the common mode inductor is connected to the power input port (6/61, 6/62), and another end of the common mode inductor is connected to an inductor and an anti-reverse-connection thin film transistor. a stator assembly; a rotor assembly; and a PCB, wherein the stator assembly comprises a coil, the rotor assembly comprises a permanent magnet, the coil is electrically connected with the PCB, an excitation magnetic field is generated when the coil is energized, and the rotor assembly rotates in the excitation magnetic field; the PCB is provided with a power input port (6/61, 6/62), the PCB further comprises a common mode filter, the common mode filter comprises a common mode inductor arranged close to the power input port (6/61, 6/62), wherein a distance between the common mode inductor and an edge of the PCB is greater than a distance between the common mode inductor and the power input port (6/61, 6/62); and in a direction perpendicular to a plane where the PCB is located, one end of the common mode inductor is connected to the power input port (6/61, 6/62), and another end of the common mode inductor is connected to an inductor and an anti-reverse-connection thin film transistor.
A steering shaft for a vehicle, comprising a tubular shaft body which extends along a longitudinal axis and has a first shaft end and a second shaft end, a bending section being arranged between the first shaft end and the second shaft end, the bending section having a plurality of grooves (21, 22, 23, 24) which run in the circumferential direction of the shaft body for the formation of a groove structure, and wherein the groove structure is of non-uniform configuration in the direction of the longitudinal axis, characterized in that a number of grooves (21, 22, 23, 24) are configured so as to be recessed inward in an outer circumferential face of the shaft body, wherein the external diameters (D1, D2, D3, D4) of said grooves (21, 22, 23, 24) are smaller than the external diameter of the steering shaft, and the internal diameters (d1, d2, d3, d4) of said grooves (21, 22, 23, 24) being smaller than the internal diameter (d) of the steering shaft. a tubular shaft body which extends along a longitudinal axis and has a first shaft end and a second shaft end, a bending section being arranged between the first shaft end and the second shaft end, the bending section having a plurality of grooves (21, 22, 23, 24) which run in the circumferential direction of the shaft body for the formation of a groove structure, and wherein the groove structure is of non-uniform configuration in the direction of the longitudinal axis, characterized in that a number of grooves (21, 22, 23, 24) are configured so as to be recessed inward in an outer circumferential face of the shaft body, wherein the external diameters (D1, D2, D3, D4) of said grooves (21, 22, 23, 24) are smaller than the external diameter of the steering shaft, and the internal diameters (d1, d2, d3, d4) of said grooves (21, 22, 23, 24) being smaller than the internal diameter (d) of the steering shaft.
Golf glove having marking surfaces which are provided on a back of the hand and on a palm of the hand, wherein the golf glove has three markings, wherein a first marking is provided on the back of the hand in the region of the metacarpus, wherein the at least one marking surface of the first marking is configured to cover, or to at least partially cover, metacarpophalangeal joints (9, 10, 11, 12) of an index finger and middle finger, characterized - in that the marking surface in the region of the metacarpophalangeal joints (11, 12) of a ring finger and little finger is configured to leave the metacarpophalangeal joints (11, 12) free and is arranged to extend on the metacarpus, and - in that a second marking is provided on the back of the hand with in each case at least one marking surface (13, 14, 15, 16) on the index finger, on the middle finger, on the ring finger and on the little finger which is arranged between a distal interphalangeal joint (17, 18, 19, 20) and a proximal interphalangeal joint (21, 22, 23, 24) or which is configured to at least partially cover a distal interphalangeal joint (21, 22, 23, 24), and - in that a third marking is provided on the palm of the hand for the index finger, the middle finger and the ring finger with in each case a marking surface (29, 28, 27) which is configured to cover a fingertip and to extend at least as far as the distal interphalangeal joint (17, 18, 19), and in that a marking surface for the little finger is provided between the distal interphalangeal joint and the proximal interphalangeal joint. - in that the marking surface in the region of the metacarpophalangeal joints (11, 12) of a ring finger and little finger is configured to leave the metacarpophalangeal joints (11, 12) free and is arranged to extend on the metacarpus, and - in that a second marking is provided on the back of the hand with in each case at least one marking surface (13, 14, 15, 16) on the index finger, on the middle finger, on the ring finger and on the little finger which is arranged between a distal interphalangeal joint (17, 18, 19, 20) and a proximal interphalangeal joint (21, 22, 23, 24) or which is configured to at least partially cover a distal interphalangeal joint (21, 22, 23, 24), and - in that a third marking is provided on the palm of the hand for the index finger, the middle finger and the ring finger with in each case a marking surface (29, 28, 27) which is configured to cover a fingertip and to extend at least as far as the distal interphalangeal joint (17, 18, 19), and in that a marking surface for the little finger is provided between the distal interphalangeal joint and the proximal interphalangeal joint.
A three-layer clad steel plate comprising: a carbon steel base material; and stainless steel mating materials each disposed on either surface of the base material, a plate thickness ratio L represented by Equation being 1.0 or more to 5.0 or less, a plurality of protruded portions and depressed portions being formed on at least one surface of the clad steel plate, a pattern of a depression-protrusion pattern including the protruded portions and depressed portions being entirely random on the surface, wherein the area of the protruded portions is 20 to 80% relative to the area of a surface of the clad steel plate on which the protruded portions are formed, and wherein the protruded portions and depressed portions have a depression-protrusion difference of 0.02 mm or more to 0.2 mm or less in the plate thickness direction, the plate thickness ratio L = the thickness of the base material / the total thickness of the mating materials wherein the thickness of the base material and the thicknesses of the mating materials are those at the protruded portions.
Method for transmitting consumption data which are acquired at measuring locations (x) and are transmitted, via their respective transmitters (s), in close-range messages (T 1) in quick succession and in wide-range messages (T 2) which are transmitted much more rarely in comparison, to mobile close-range receivers (y) and to stationary wide-range receivers in which the received data messages (T i) are demodulated after being downmixed to intermediate frequencies (f, i) and with hiding of the close-range messages (T 1) in wide-range receivers, characterized in that short close-range and wide-range data messages (T 1, T 2) which substantially have a matching structure with regard to transmission powers and data rates are transmitted at slightly different frequencies (f 1, f 2), and in that, of the carrier frequencies (f' 1, f' 2) which have been downmixed after bandpass filtering, the downmixed close-range carrier frequency (f' 1) is always at least greatly attenuated on account of filtering in the wide-range receivers.
A catalysis composition comprising: a metal oxide catalyst comprising manganese oxide; and a support material impregnated with the metal oxide catalyst, wherein a cumulative pore volume of the catalysis composition determined by N 2 desorption/adsorption isotherm analysis is at least 0.80 mL/g; and wherein the support material is selected from a group consisting of ceria, lanthana, alumina, titania, a combination of alumina and silica, zirconia, carbons, metal organic framework, clay, zeolites, and combinations thereof, wherein at least about 15% of a total amount of manganese atoms in the manganese oxide are dispersed within about 10 nanometers from a surface of the catalysis composition, as detectable by surface X-ray photoelectron spectroscopy, wherein the term "about' means inclusive of 2%. a metal oxide catalyst comprising manganese oxide; and a support material impregnated with the metal oxide catalyst, wherein a cumulative pore volume of the catalysis composition determined by N 2 desorption/adsorption isotherm analysis is at least 0.80 mL/g; and wherein the support material is selected from a group consisting of ceria, lanthana, alumina, titania, a combination of alumina and silica, zirconia, carbons, metal organic framework, clay, zeolites, and combinations thereof, wherein at least about 15% of a total amount of manganese atoms in the manganese oxide are dispersed within about 10 nanometers from a surface of the catalysis composition, as detectable by surface X-ray photoelectron spectroscopy, wherein the term "about' means inclusive of 2%.
A method of removing, at least partially, nitrogen oxides from a hot process gas through the use of a catalytic reactor embodying catalytically active material, wherein a chemical, which is selected from the group of chemicals consisting of ammonia and urea, is supplied to the catalytic reactor for the purpose of effecting therewith the selective catalytic reduction of the nitrogen oxides that are removed from the hot process gas, said catalytic reactor comprising a catalyst bed including at least two catalyst bed segments (48, 50, 52), which are arranged in parallel relation with respect to the direction of flow of the hot process gas, each of said at least two catalyst bed segments (48, 50, 52) being provided with a closing device (60, 62, 64), such that each of said at least two catalyst bed segments (48, 50, 52) can be individually isolated from the flow of the process gas, characterized in that said method comprises the steps of causing said hot process gas to flow through at least a first catalyst bed segment of said at least two catalyst bed segments (48, 50, 52), said hot process gas being at a first temperature, being in the range of 180-300°C, at which sulphur trioxide entrained with the hot process gas is at least partially precipitated out on to the catalytic material that the first catalyst bed segment embodies, periodically operating a closing device of said first catalyst bed segment in order to thereby isolate said first catalyst bed segment from the flow of hot process gas, while at least a second one (50, 52) of said at least two catalyst bed segments (48, 50, 52) remains operative for purposes of effecting therewith the removal of sulphur trioxide and nitrogen oxides from said hot process gas, causing a regenerating gas to flow through said first catalyst bed segment when said first catalyst bed segment is isolated from the flow of the hot process gas, wherein said regenerating gas is at a second temperature, said second temperature being higher than said first temperature, being in a range of 310 to less than 400°C, such that the sulphur trioxide precipitated out on the catalytic material evaporates from the catalytic material, and causing said regenerating gas, after said regenerating gas has flowed through said first catalyst bed segment, to flow through a sulphur trioxide removal device (20, 120, 220), said sulphur trioxide removal device being separate from said catalytic reactor wherein said sulphur trioxide removal device (20, 120, 220) is located at a point downstream of said catalytic reactor with respect to the direction of flow of the hot process gas, and said sulphur trioxide removal device (20, 120, 220) is operative for purposes of removing the sulphur species that are entrained in said hot process gas and in said regenerating gas.
Transistor having - a source and a drain region which are formed in a substrate, - two or more fill areas with each fill area being arranged at least partially in the substrate and with the fill areas and the source and/or drain region extending into one another, - the fill areas have vertical dimensions which are at least of equal size to the vertical dimensions of the source and/or drain region, wherein the fill areas each have at least two pieces (ES, ZS) which are arranged vertically directly one above the other, wherein first pieces of the fill areas and the source and/or drain region form an essentially planar surface on the surface facing away from the substrate, wherein second pieces of the fill areas are arranged directly on the first pieces and coincidentally with respect to the first pieces, and wherein the second pieces are slightly electrically conductive in comparison to the source and/or drain region, and are composed of polysilicon. - a source and a drain region which are formed in a substrate, - two or more fill areas with each fill area being arranged at least partially in the substrate and with the fill areas and the source and/or drain region extending into one another, - the fill areas have vertical dimensions which are at least of equal size to the vertical dimensions of the source and/or drain region,
Method for navigation in a set of elements, these elements being associated with attribute values fixed by classification criteria, said method comprising the steps of: - selection (2.1) of two elements considered as the start element and the end element and determination (2.2) of attributes common to the two elements selected, - elaboration (2.3) of as many lists of elements as attributes common to the start and end elements, all elements of a list having the same attribute taken in the common attributes, - display (2.4) of graphic paths representing each list graphically connecting together the elements, the extremities of each path being graphically connected to the start and end elements, - navigation in the set of paths (2.6, 2.7) consisting in graphically highlighting the start element, receiving a selection signal from one of the graphic paths, and in receiving navigation commands triggering the displacement within the graphic path selected from the start element. - selection (2.1) of two elements considered as the start element and the end element and determination (2.2) of attributes common to the two elements selected, - elaboration (2.3) of as many lists of elements as attributes common to the start and end elements, all elements of a list having the same attribute taken in the common attributes, - display (2.4) of graphic paths representing each list graphically connecting together the elements, the extremities of each path being graphically connected to the start and end elements, - navigation in the set of paths (2.6, 2.7) consisting in graphically highlighting the start element, receiving a selection signal from one of the graphic paths, and in receiving navigation commands triggering the displacement within the graphic path selected from the start element.
An electro powered mechanical energy generation device comprising: a) a reducer which, in use, is set in motion by the power supply; b) a ratchet wheel which, in use, is set in motion by the reducer; c) a main wheel which, in use, is set in motion by the ratchet wheel; d) a plurality of wheels each having a cursor coupled thereto, which, in use, are set in motion by the main wheel; e) a plurality of support for the levers and levers which, in use, are set in motion by the cursors; f) rods and support for the rods; and g) a combination comprising: a first wheel set, which, in use, is set in motion by the levers, comprising a driven gear, a first belt/chain; and a second chain, whereby the second chain transmits motion to a pulley of a generator for producing electrical current. a) a reducer which, in use, is set in motion by the power supply; b) a ratchet wheel which, in use, is set in motion by the reducer; c) a main wheel which, in use, is set in motion by the ratchet wheel; d) a plurality of wheels each having a cursor coupled thereto, which, in use, are set in motion by the main wheel; e) a plurality of support for the levers and levers which, in use, are set in motion by the cursors; f) rods and support for the rods; and g) a combination comprising: a first wheel set, which, in use, is set in motion by the levers, comprising a driven gear, a first belt/chain; and a second chain, whereby the second chain transmits motion to a pulley of a generator for producing electrical current.
Electrosurgical system comprising: - an ultrasonic generator configured to output a high frequency electrical signal, and - an ultrasonic instrument comprising an ultrasonic transducer configured to convert the high frequency electrical signal into an ultrasonic vibration, wherein the ultrasonic generator is further configured to determine a resonant frequency of the ultrasonic transducer and to adjust a frequency of the high-frequency electrical signal to this resonant frequency, and wherein the ultrasonic generator is further configured to determine a phase shift between the current and the voltage of the high-frequency electrical signal and to determine from the determined phase shift whether the frequency of the high-frequency electrical signal corresponds to the resonant frequency of the ultrasonic transducer, characterized in that the ultrasonic generator is configured to consider, when determining the phase shift, correction values which are stored or storable in a memory (130, 220) of the ultrasonic generator and/or of the ultrasonic instrument. - an ultrasonic generator configured to output a high frequency electrical signal, and - an ultrasonic instrument comprising an ultrasonic transducer configured to convert the high frequency electrical signal into an ultrasonic vibration, wherein the ultrasonic generator is further configured to determine a resonant frequency of the ultrasonic transducer and to adjust a frequency of the high-frequency electrical signal to this resonant frequency, and wherein the ultrasonic generator is further configured to determine a phase shift between the current and the voltage of the high-frequency electrical signal and to determine from the determined phase shift whether the frequency of the high-frequency electrical signal corresponds to the resonant frequency of the ultrasonic transducer, characterized in that the ultrasonic generator is configured to consider, when determining the phase shift, correction values which are stored or storable in a memory (130, 220) of the ultrasonic generator and/or of the ultrasonic instrument.