mhurhangee/ep-ind-claims huggingface dataset:
A valve-stem position-sensor system to generate a signal representative of a displacement of a valve-stem along a predetermined valve-stem displacement profile, the valve-stem position-sensor system comprising: a longitudinal index slot formed within a sensor housing; a valve base operatively displaceable along a longitudinal axis; a valve stem (160, 200) rotatably coupled to the valve base and comprising a magnetic carrier and an angular control member (190, 210); a magnetic-field source (155, 220) attached to the magnetic carrier of the valve stem (160, 200) and contained within only one angle between two planes whose intersection defines the longitudinal axis; an array of magnetic-field sensors distributed along a longitudinal axis to detect a displacement of the magnetic-field source (155, 220) along the valve-stem displacement profile; and, wherein the angular-control member (190, 210) is slidably coupled to the longitudinal index slot and configured to rotationally orient the magnetic-field source (155, 220) in a predetermined angular position to maintain magnetic-field communication with at least one of the magnetic-field sensors independent of an orientation of the valve base as the valve base is displaced along the displacement profile, wherein, during a linear stroke of the valve base, an orientation of the magnet (155, 200) with respect to the longitudinal axis is substantially independent of an orientation of the valve base by virtue of a freely rotatable coupling provided by a decoupling mechanism (163, 164, 215) between the valve stem (160, 200) and the valve base. a longitudinal index slot formed within a sensor housing; a valve base operatively displaceable along a longitudinal axis; a valve stem (160, 200) rotatably coupled to the valve base and comprising a magnetic carrier and an angular control member (190, 210); a magnetic-field source (155, 220) attached to the magnetic carrier of the valve stem (160, 200) and contained within only one angle between two planes whose intersection defines the longitudinal axis; an array of magnetic-field sensors distributed along a longitudinal axis to detect a displacement of the magnetic-field source (155, 220) along the valve-stem displacement profile; and, wherein the angular-control member (190, 210) is slidably coupled to the longitudinal index slot and configured to rotationally orient the magnetic-field source (155, 220) in a predetermined angular position to maintain magnetic-field communication with at least one of the magnetic-field sensors independent of an orientation of the valve base as the valve base is displaced along the displacement profile, wherein, during a linear stroke of the valve base, an orientation of the magnet (155, 200) with respect to the longitudinal axis is substantially independent of an orientation of the valve base by virtue of a freely rotatable coupling provided by a decoupling mechanism (163, 164, 215) between the valve stem (160, 200) and the valve base.
Battery module, wherein the battery module has at least one first accumulator and one second accumulator, wherein all accumulators have at least two electrical contacts, wherein all accumulators have a bursting membrane, wherein all bursting membranes are arranged in the same direction, wherein all accumulators are arranged in a module housing, wherein at least one first sensor is arranged behind the bursting membrane of the accumulators in the operating direction, wherein the first sensor is designed to detect the temperature, wherein the module housing has at least one first gas channel, wherein the first gas channel is arranged behind the bursting membranes of the accumulators in the operating direction, wherein the first sensor and a second sensor are arranged in the first gas channel, wherein the second sensor is designed to detect the temperature, wherein the first sensor and the second sensor are arranged at a distance from one another in the first gas channel, characterised in that the first sensor is arranged at the outlet of the first gas duct, the first sensor and the second sensor being at least half the length of the first gas duct, the first sensor and the second sensor being temperature sensors.
A cutting tool comprising: a cutting tool substrate provided with a rake face and a flank face; and a coating layer that is formed on a surface of the rake face and the flank face; characterized in that the coating layer is represented by Ti 1-a-b-c Al a W b M c (C 1-x N x), M being selected as at least one from the group consisting of Si, Y, Group-IV, V, and VI metals, excluding Ti and W, in the periodic table; wherein the content correlations measured in a molar fraction are 0.3 ≤ a ≤ 0.6; 0.01 ≤ b ≤ 0.2; 0 ≤ c ≤ 0.2; and 0 ≤ x ≤ 1, and a content of W in the coating layer at the flank face is higher than the content of W at the rake face; and the coating layer comprises droplets thereon, and the content of W in the droplets at the flank face is less than the content of W in the droplets at the rake face. a cutting tool substrate provided with a rake face and a flank face; and a coating layer that is formed on a surface of the rake face and the flank face; characterized in that the coating layer is represented by Ti 1-a-b-c Al a W b M c (C 1-x N x), M being selected as at least one from the group consisting of Si, Y, Group-IV, V, and VI metals, excluding Ti and W, in the periodic table; wherein the content correlations measured in a molar fraction are 0.3 ≤ a ≤ 0.6; 0.01 ≤ b ≤ 0.2; 0 ≤ c ≤ 0.2; and 0 ≤ x ≤ 1, and a content of W in the coating layer at the flank face is higher than the content of W at the rake face; and the coating layer comprises droplets thereon, and the content of W in the droplets at the flank face is less than the content of W in the droplets at the rake face.
A brush head, particularly for a toothbrush, more preferably for a sonic toothbrush, including an adapter plate to which a multitude of filaments is attached and which forms the brush, wherein the filaments have different lengths and wherein multiple filaments of substantially the same length form a tuft (3,..., 6) having particularly a round or rectangular cross section, wherein said tufts (3,..., 6) have different lengths and a free space is provided between said tufts (3,..., 6), characterized in that a) tufts of a first length are disposed on two first opposite ends of the adapter plate; b) tufts of a second length are disposed on two second opposite ends of the adapter plate; c) two tufts of a third length are each arranged between the first and second ends such that a substantially continuous framing of the adapter plate is formed; d) four tufts, particularly tufts of a third length having a rectangular cross section, are arranged in a rhomboid form and centrally on the adapter plate, wherein at least one tuft, particularly a tuft of a third length, having a round cross section is enclosed. a) tufts of a first length are disposed on two first opposite ends of the adapter plate; b) tufts of a second length are disposed on two second opposite ends of the adapter plate; c) two tufts of a third length are each arranged between the first and second ends such that a substantially continuous framing of the adapter plate is formed; d) four tufts, particularly tufts of a third length having a rectangular cross section, are arranged in a rhomboid form and centrally on the adapter plate, wherein at least one tuft, particularly a tuft of a third length, having a round cross section is enclosed.
A brushless motor comprising: a stator core including an annular yoke part; a coil; a rotor located inward of the stator core; and a protective member located between the yoke part and the rotor, the protective member comprising a first protective member and a second protective member housing the rotor; the brushless motor being characterised in that: the stator core includes a plurality of teeth parts projecting from an inner circumferential surface of the yoke part; the motor comprises an insulator that covers the yoke part and the teeth parts; the coil is wound around the insulator that covers the teeth parts; the rotor is located across a predetermined interval from an end of the teeth parts; and the first protective member and the second protective member are latched to each other. a stator core including an annular yoke part; a coil; a rotor located inward of the stator core; and a protective member located between the yoke part and the rotor, the protective member comprising a first protective member and a second protective member housing the rotor; the brushless motor being characterised in that: the stator core includes a plurality of teeth parts projecting from an inner circumferential surface of the yoke part; the motor comprises an insulator that covers the yoke part and the teeth parts; the coil is wound around the insulator that covers the teeth parts; the rotor is located across a predetermined interval from an end of the teeth parts; and the first protective member and the second protective member are latched to each other. the stator core includes a plurality of teeth parts projecting from an inner circumferential surface of the yoke part; the motor comprises an insulator that covers the yoke part and the teeth parts; the coil is wound around the insulator that covers the teeth parts; the rotor is located across a predetermined interval from an end of the teeth parts; and the first protective member and the second protective member are latched to each other.
An air-conditioning apparatus that has an outdoor unit and an indoor unit (2, 3,4), characterized in that said outdoor unit comprises an electric energy meter with a pulse transmission device that is adapted to measure the electric energy amount supplied to the outdoor unit and is adapted to transmit a pulse signal to signal reception means of the outdoor unit, the signal reception means being adapted to receive the pulse signal transmitted from the electric energy meter, and in which said outdoor unit comprises control means for measuring said electric energy on the basis of said pulse signal, wherein said control means of said outdoor unit includes determination means for determining one of input ports that are not in use from among a plurality of input ports forming said signal reception means as an input port for the pulse signal from said electric energy meter, and wherein said control means of said outdoor unit includes calculation means for calculating electric power, electric energy consumption, and energy consumption efficiency on the basis of said pulse signal.
A hydraulic controller for a working machine comprising: a plurality of pilot-operated hydraulic devices (18R, 18L, 36, 65, 66) each having a pilot pressure input unit (19, 38, 67, 68) and adapted to be operated remotely by switching between a supply of an input signal of a pilot pressure and a stop of the supply to said pilot pressure input units (19, 38, 67, 68); a pilot hydraulic pressure source connected in common to each pilot pressure input unit (19, 38, 67, 68) of said pilot-operated hydraulic devices (18R, 18L, 36, 65, 66); a pilot pressure input switching valve provided in common for said pilot-operated hydraulic devices (18R, 18L, 36, 65, 66) and adapted to be switchable between a pilot pressure input position where to input a pilot pressure from said pilot hydraulic pressure source to each pilot pressure input unit (19, 38, 67, 68) of said pilot-operated hydraulic devices (18R, 18L, 36, 65, 66) and a pilot pressure relief position where to relieve said pilot pressure; characterized in that the hydraulic controller further comprises switching control means adapted to control a switching of said pilot pressure input switching valve based on the operating state of said working machine and mutually different pilot pressure input conditions set for said respective pilot-operated hydraulic devices (18R, 18L, 36, 65, 66). a plurality of pilot-operated hydraulic devices (18R, 18L, 36, 65, 66) each having a pilot pressure input unit (19, 38, 67, 68) and adapted to be operated remotely by switching between a supply of an input signal of a pilot pressure and a stop of the supply to said pilot pressure input units (19, 38, 67, 68); a pilot hydraulic pressure source connected in common to each pilot pressure input unit (19, 38, 67, 68) of said pilot-operated hydraulic devices (18R, 18L, 36, 65, 66); a pilot pressure input switching valve provided in common for said pilot-operated hydraulic devices (18R, 18L, 36, 65, 66) and adapted to be switchable between a pilot pressure input position where to input a pilot pressure from said pilot hydraulic pressure source to each pilot pressure input unit (19, 38, 67, 68) of said pilot-operated hydraulic devices (18R, 18L, 36, 65, 66) and a pilot pressure relief position where to relieve said pilot pressure; characterized in that switching control means adapted to control a switching of said pilot pressure input switching valve based on the operating state of said working machine and mutually different pilot pressure input conditions set for said respective pilot-operated hydraulic devices (18R, 18L, 36, 65, 66).
Switching arrangement for medium voltage, having a load-break switch with three switch positions for ON, OFF and EARTHING, wherein the switch position ON switches a medium-voltage connection to an output line via a safety device, and an earthing switch arranged downstream of the safety device for earthing the output line, wherein the earthing switch is connected to the load-break switch via a mechanical coupling device (25, 31-37, 50-63), characterized in that the earthing switch is mechanically uncoupled in the event of a switching operation of the load-break switch from OFF to ON, so that a switching contact of the earthing switch reaches only two contact positions (earthed/non-earthed), and in that the coupling device (25, 31-37, 50-63) has a driver which is connected in a rotationally fixed manner to a drive axle and has a first driving means, wherein the first driving means is designed, in the event of a switching operation of the load-break switch from OFF to EARTHING, to engage with a second driving means and to convert an axial rotational movement into a translational lifting movement and, in the event of a switching operation of the load-break switch from OFF to ON, to miss the second driving means. the switch position ON switches a medium-voltage connection to an output line via a safety device, and an earthing switch arranged downstream of the safety device for earthing the output line, wherein the earthing switch is connected to the load-break switch via a mechanical coupling device (25, 31-37, 50-63), characterized in that the earthing switch is mechanically uncoupled in the event of a switching operation of the load-break switch from OFF to ON, so that a switching contact of the earthing switch reaches only two contact positions (earthed/non-earthed), and in that the coupling device (25, 31-37, 50-63) has a driver which is connected in a rotationally fixed manner to a drive axle and has a first driving means, wherein the first driving means is designed, in the event of a switching operation of the load-break switch from OFF to EARTHING, to engage with a second driving means and to convert an axial rotational movement into a translational lifting movement and, in the event of a switching operation of the load-break switch from OFF to ON, to miss the second driving means.
Coupling having a gaiter-protected positively locking driving connection, at least comprising a hub and a sleeve, the driving connection being arranged between the hub and the sleeve, the driving connection being protected by way of a gaiter, the gaiter being situated in a recess of the hub, and being fastened on one side to the sleeve end region and being fastened on the other side, lying opposite the sleeve end region, to the hub, the annular recess being delimited at least by an annular hub inner face which is directed towards the driving connection, and by an opposite hub outer face which is configured towards the end side of the hub, there being an annular gap between the sleeve end region and the hub outer face of the recess, characterized in that at least one elastic annular sealing element (12; 121, 122, 123, 124) is arranged in the region between the annular gaiter of corrugated configuration with gaiter elements and the hub outer face, the sealing element sealing at least one gaiter element clearance of a gaiter element, which gaiter element clearance is adjacent with respect to the annular gap and is configured in cross section as a corrugation trough.
A method, comprising: capturing an image by an image sensor (103, 602, 704, 1102, 1302, 1304) of a payload (102, 306, 402, 600, 701), the payload (102, 306, 402, 600, 701) being releasably coupled to a carrier (100, 304, 404, 702); identifying, by a tracking unit of the payload (102, 306, 402, 600, 701), a target from the image; detecting, by one or more processors of the payload (102, 306, 402, 600, 701), a deviation of the target from an expected target position within the image; deriving an angular velocity with respect to a rotation axis of the carrier (100, 304, 404, 702) from the detected deviation of the target; and generating, by the one or more processors, one or more control signals for the carrier (100, 304, 404, 702) based on the detected deviation of the target, the one or more control signals causing the carrier (100, 304, 404, 702) to change a pose of the payload (102, 306, 402, 600, 701) so as to reduce the detected deviation in a subsequent image captured by the image sensor (103, 602, 704, 1102, 1302, 1304), wherein the one or more control signals include the angular velocity. capturing an image by an image sensor (103, 602, 704, 1102, 1302, 1304) of a payload (102, 306, 402, 600, 701), the payload (102, 306, 402, 600, 701) being releasably coupled to a carrier (100, 304, 404, 702); identifying, by a tracking unit of the payload (102, 306, 402, 600, 701), a target from the image; detecting, by one or more processors of the payload (102, 306, 402, 600, 701), a deviation of the target from an expected target position within the image; deriving an angular velocity with respect to a rotation axis of the carrier (100, 304, 404, 702) from the detected deviation of the target; and generating, by the one or more processors, one or more control signals for the carrier (100, 304, 404, 702) based on the detected deviation of the target, the one or more control signals causing the carrier (100, 304, 404, 702) to change a pose of the payload (102, 306, 402, 600, 701) so as to reduce the detected deviation in a subsequent image captured by the image sensor (103, 602, 704, 1102, 1302, 1304), wherein the one or more control signals include the angular velocity.
Adhesive splicing tape comprising a first carrier and a first splittable connecting element having a left-hand ( l) and a right-hand ( r) bounding edge, at least one of these two edges ( l, r) being nonrectilinear and having projections which are rounded at their furthest projecting points (v), and also a second splittable connecting element having a left-hand and a right-hand bounding edge, at least one of these two edges ( L, R) being rectilinear, and the first and second splittable connecting elements being disposed adjacent one another on the carrier.
A holding device for a cutting blade with a cam, comprising a blade pivot for pivotal mounting of the cutting blade to a cutting tool, and a cam pivot connected to a blade drive mechanism (16, 38), a first pivot selected from the blade pivot and the cam pivot being provided with an axial lock of complementary shape, characterised in that: - the other pivot is provided with an axial lock with manual tightening, and - the device comprises a latch having a first end with a bolt capable of being engaged and held on the first pivot by its complementary shape, to constitute said axial lock of complementary shape, and a second end capable of being engaged and held on the pivot provided with the axial lock with manual tightening. - the other pivot is provided with an axial lock with manual tightening, and - the device comprises a latch having a first end with a bolt capable of being engaged and held on the first pivot by its complementary shape, to constitute said axial lock of complementary shape, and a second end capable of being engaged and held on the pivot provided with the axial lock with manual tightening.
A method of cementing a stage of a wellbore comprising: (a) providing a downhole tool having an annular casing box section with an end adapted for connection to a casing string, an annular mandrel section having an end coaxially coupled to an end of the casing box section distal from the end adapted for connection to a casing string, a tubular body slidingly coupled with an end of the mandrel section distal from the end coupled to the casing box section, a sleeve coaxially set within the tubular body, an aperture formed radially through a side wall of the mandrel section, and a port formed radially through a side wall of the tubular body; (b) placing the tool integral with a casing string; (c) inserting the casing string in the wellbore; (d) flowing cement within a bore that extends through the casing string and tool; (e) obstructing the bore within the tool by landing a plug in the sleeve; (f) pumping fluid into the bore to slide the sleeve to a position so that pressurized fluid in the bore flows through a flow line to form an inflated packer element; (g) registering the aperture and port by lowering the casing string; and (h) directing cement through the registered port and aperture into an annulus above the inflated packer. (a) providing a downhole tool having an annular casing box section with an end adapted for connection to a casing string, an annular mandrel section having an end coaxially coupled to an end of the casing box section distal from the end adapted for connection to a casing string, a tubular body slidingly coupled with an end of the mandrel section distal from the end coupled to the casing box section, a sleeve coaxially set within the tubular body, an aperture formed radially through a side wall of the mandrel section, and a port formed radially through a side wall of the tubular body; (b) placing the tool integral with a casing string; (c) inserting the casing string in the wellbore; (d) flowing cement within a bore that extends through the casing string and tool; (e) obstructing the bore within the tool by landing a plug in the sleeve; (f) pumping fluid into the bore to slide the sleeve to a position so that pressurized fluid in the bore flows through a flow line to form an inflated packer element; (g) registering the aperture and port by lowering the casing string; and (h) directing cement through the registered port and aperture into an annulus above the inflated packer.
A method for improved turbo decoding in a wireless communication system, characterized by: jointly allocating a predetermined maximum number of decoding iterations to a batch of received decoding jobs; and consecutively performing decoding iterations adaptively for each job in said batch until a convergence criteria is reached for each job in the batch, or until said predetermined maximum number of iterations for the batch is reached, wherein the step of upon reaching said convergence criteria comprises controlling if there are remaining iterations among said predetermined maximum number of decoding iterations allocated to the batch, and subsequently applying any remaining decoding iterations to a consecutive job in said batch. jointly allocating a predetermined maximum number of decoding iterations to a batch of received decoding jobs; and consecutively performing decoding iterations adaptively for each job in said batch until a convergence criteria is reached for each job in the batch, or until said predetermined maximum number of iterations for the batch is reached, wherein the step of upon reaching said convergence criteria comprises controlling if there are remaining iterations among said predetermined maximum number of decoding iterations allocated to the batch, and subsequently applying any remaining decoding iterations to a consecutive job in said batch.