mhurhangee/patent-ind-claim-en huggingface dataset:
A load-driving circuit for receiving the supply of power from a power source to drive a load, the load-driving circuit comprising: a high-side switching element , connected to a positive electrode side (VH) of the power source, for outputting a high-side driving current; a low-side switching element , connected to a negative electrode side of the power source, for outputting a low-side driving current; a high-side current detection circuit , connected in parallel to the high-side switching element , for detecting the high-side driving current; and a fault detection circuit for detecting a fault state of the load-driving circuit from an output result (IsH) of the high-side current detection circuit , wherein the high-side current detection circuit includes a high-side sense switching element (5H1), including a device of the same type as the high-side switching element , for operating on a gate signal (INH_S) different from that of the high-side switching element , and when a connection terminal (OUT) between the load-driving circuit and the load is short-circuited to the positive electrode side (VH) of the power source, or short-circuited to the negative electrode side of the power source, the fault detection circuit detects the fault states distinguishing them, with the output result (IsH) of the high-side current detection circuit , the gate signal (INH_M) of the high-side switching element , and the gate signal (INH_S) of the high-side sense switching element (5H1) as inputs. a high-side switching element , connected to a positive electrode side (VH) of the power source, for outputting a high-side driving current; a low-side switching element , connected to a negative electrode side of the power source, for outputting a low-side driving current; a high-side current detection circuit , connected in parallel to the high-side switching element , for detecting the high-side driving current; and a fault detection circuit for detecting a fault state of the load-driving circuit from an output result (IsH) of the high-side current detection circuit , wherein the high-side current detection circuit includes a high-side sense switching element (5H1), including a device of the same type as the high-side switching element , for operating on a gate signal (INH_S) different from that of the high-side switching element , and when a connection terminal (OUT) between the load-driving circuit and the load is short-circuited to the positive electrode side (VH) of the power source, or short-circuited to the negative electrode side of the power source, the fault detection circuit detects the fault states distinguishing them, with the output result (IsH) of the high-side current detection circuit , the gate signal (INH_M) of the high-side switching element , and the gate signal (INH_S) of the high-side sense switching element (5H1) as inputs.
Electric system comprising at least one first electric circuit, an electric device (D_x), a first printed circuit board (PCB_x, PCB_10) supporting said first electric circuit, a device for shielding said electric device comprising at least one first shielding plate (Pz_BL) attached to said first printed circuit board, said first electric circuit comprising at least one inductor (Ly, L10, L20), characterized in that said inductor comprises at least one first ferromagnetic part (P1_Ly) attached to the first printed circuit board and arranged to have at least one air gap with said first shielding plate (Pz_BL, P1_BL, P2_BL), in such a way as to form a magnetic circuit with the latter.
A method of activating an electronic device comprising a sensor and a control circuit , the method comprising: in the sensor: obtaining, movement data indicative of movement of the electronic device ; comparing the movement data with a predetermined threshold value ; providing, responsive to the movement data exceeding the predetermined threshold value, said movement data to the control circuit; and in the control circuit: determining whether at least a portion of the movement data satisfies a predetermined activation criteria comprising one or more predetermined motion patterns of the electronic device ; activating a power state based on determining whether the portion of the movement data satisfies the predetermined activation criteria; and disabling activation of the control circuit for a period of time in response to one or more consecutive determinations that the portion of the movement data does not satisfy the predetermined activation criteria. in the sensor: obtaining, movement data indicative of movement of the electronic device ; comparing the movement data with a predetermined threshold value ; providing, responsive to the movement data exceeding the predetermined threshold value, said movement data to the control circuit; and obtaining, movement data indicative of movement of the electronic device ; comparing the movement data with a predetermined threshold value ; providing, responsive to the movement data exceeding the predetermined threshold value, said movement data to the control circuit; and in the control circuit: determining whether at least a portion of the movement data satisfies a predetermined activation criteria comprising one or more predetermined motion patterns of the electronic device ; activating a power state based on determining whether the portion of the movement data satisfies the predetermined activation criteria; and disabling activation of the control circuit for a period of time in response to one or more consecutive determinations that the portion of the movement data does not satisfy the predetermined activation criteria. determining whether at least a portion of the movement data satisfies a predetermined activation criteria comprising one or more predetermined motion patterns of the electronic device ; activating a power state based on determining whether the portion of the movement data satisfies the predetermined activation criteria; and disabling activation of the control circuit for a period of time in response to one or more consecutive determinations that the portion of the movement data does not satisfy the predetermined activation criteria.
Utility vehicle tyre having a tread with at least two circumferential channels , which are formed to a profile depth (T) and which separate central profile positives and shoulder-side profile positives from one another, wherein the circumferential channels have channel flanks towards the central profile positives and the shoulder-side profile positives have shoulder flanks running towards the side wall, wherein at least one channel flank of at least one circumferential channel and/or at least one shoulder flank is provided with depressions which extend into the profile positive (s) in the axial direction and are open towards the surface of the tread, wherein each depression is delimited by at least one surface (7c, 7d, 7'd), characterized in that the depressions , determined in each case at the periphery of the tread, have with respect to the level of the channel flank or shoulder flank a depth (t 1 , t 1 ') of 2.0 mm to 5.0 mm and at the level of the channel flank or shoulder flank a width (b 1 , b 1 ') of 4.0 mm to 15.0 mm, wherein the surface(s) (7c, 7d, 7'd) which in each case delimits or delimit one of the depressions is or are curved in such a way that, at its or their radially inner end(s), it or they go(es) over without a kink into the channel flank at a depth (T 1 ), determined in the radial direction, of 35% to 90% of the profile depth (T) or go(es) over without a kink into the shoulder flank at a depth (T 1 '), determined in the radial direction, of 35% to 150% of the profile depth (T).
A cannula with catheter displaceable in the longitudinal direction thereof, in particular a suprapubic cannula for introducing a catheter into a bodily cavity, comprising at least one first cannula portion , such as a longitudinally slit sleeve member, in particular having a circular arcuate section or a circular arc-shaped geometry, with a proximal end and a distal end with puncture tip , characterised in that an adjustable protective element protrudes from the inside of the cannula , which protective element extends at a distance from the puncture tip when the cannula is in the position of use and which, after displacement of the catheter in the direction of the puncture tip, is carried along by the catheter in such a way that the puncture tip is covered by the protective element or passes through the protective element in places.
Tape-suspended fully mechanical meridian gyroscope with a gyroscope housing which has an upper end and a lower end opposite the upper end , wherein the gyroscope housing in the region of its upper end comprises a first hollow-cylindrical section in which at least one ball bearing , in particular an axial deep groove ball bearing, is arranged, wherein the meridian gyroscope furthermore comprises a support tape which is guided centrally through the shaft guide of the ball bearing and is directly or indirectly, in particular fixedly, connected to the latter and to a gyroscope cap arranged below the first hollow-cylindrical section , wherein a holding device which is fixedly connected to the gyroscope cap is included at the lower end or in the region of the lower end of the gyroscope cap , wherein the holding device includes at least one pendulum body which is mounted displaceably vertically with respect to the gyroscope cap and rotatably in a horizontal plane with respect to the gyroscope cap , characterized in that a plate-like device is included which is arranged below the at least one pendulum body , wherein the plate-like device is in, or can be brought at least temporarily into, operative connection with the at least one pendulum body such that a rotation and/or a vibration of the gyroscope cap can be damped or is damped.
Control for opening the interior of an opening of a motor vehicle comprising a door lock configured to be actuated mechanically and electrically, the said control being configured to be mounted on a structural element of the opening of the vehicle so as to be integrated into a trim panel of the structural element, the said control comprising a mechanical operating member for mechanical actuation of the lock, which comprises a gripping paddle , characterised in that the said opening control comprises a front panel of an inner face of the opening delimiting a decorative outer visible face and an opposite masked inner face , the control comprises an electrical control member for an electrical actuator of the lock, extending on the side of the internal face of the panel , and a control interface associated with the electrical control member, comprising a control region (R1, R2) extending towards the external face and in that the gripping pallet is shaped so as to cooperate by being embedded in a cutout formed in said panel by complementarity of contour and surface, the pallet being configured so as to adopt a retracted rest position flush with the panel and a deployed projecting operating position for mechanical actuation of the lock.
A wire harness , comprising: an electrical wire ; a rod-shaped rigidity providing member , which is fixed to a portion of the electrical wire along a lengthwise direction of the electrical wire , to provide the portion of the electrical wire with rigidity; and a corrugated tube covering the electrical wire and entirely covering the rigidity providing member . an electrical wire ; a rod-shaped rigidity providing member , which is fixed to a portion of the electrical wire along a lengthwise direction of the electrical wire , to provide the portion of the electrical wire with rigidity; and a corrugated tube covering the electrical wire and entirely covering the rigidity providing member .
A position detection system comprising: a magnetic field generator configured to generate a time-varying magnetic field, the magnetic field generator comprising: a carrier assembly that defines a first axis of rotation and comprises a permanent magnet having a center of mass; and a drive assembly coupled to the carrier assembly and configured to act on the carrier assembly to rotate the permanent magnet simultaneously about the first axis of rotation and a second axis of rotation , the second axis of rotation intersecting the first axis of rotation at an intersection that is offset from the center of mass of the permanent magnet ; a computer device configured to determine a position of a sensor based on magnetic field measurements obtained by the sensor in the time-varying magnetic field. a magnetic field generator configured to generate a time-varying magnetic field, the magnetic field generator comprising: a carrier assembly that defines a first axis of rotation and comprises a permanent magnet having a center of mass; and a drive assembly coupled to the carrier assembly and configured to act on the carrier assembly to rotate the permanent magnet simultaneously about the first axis of rotation and a second axis of rotation , the second axis of rotation intersecting the first axis of rotation at an intersection that is offset from the center of mass of the permanent magnet ; a carrier assembly that defines a first axis of rotation and comprises a permanent magnet having a center of mass; and a drive assembly coupled to the carrier assembly and configured to act on the carrier assembly to rotate the permanent magnet simultaneously about the first axis of rotation and a second axis of rotation , the second axis of rotation intersecting the first axis of rotation at an intersection that is offset from the center of mass of the permanent magnet ; a computer device configured to determine a position of a sensor based on magnetic field measurements obtained by the sensor in the time-varying magnetic field.
A method for establishing a hard pipe stratum in a network, wherein the network comprises multiple routers and a network management system, adjacent routers of the multiple routers are connected to each other by using links that have particular bandwidths, the multiple routers form a network topology by using the links, and the method comprises: acquiring (S101), by the network management system, bandwidths of the links in the network; instructing (S102), by the network management system, routers in the network topology to allocate fixed bandwidths from the bandwidths of the links of the network topology, wherein links to which the fixed bandwidths are allocated form sublinks, and the sublinks and the routers that allocate the sublinks form a hard pipe stratum, wherein the hard pipe stratum is a subtopology of the network topology, and the hard pipe stratum is used to carry a leased line service; and allocating (S103), by the network management system, a static Multiprotocol Label Switching, MPLS, label set to the hard pipe stratum, wherein the static MPLS label set is used to forward, in the hard pipe stratum, the leased line service. acquiring (S101), by the network management system, bandwidths of the links in the network; instructing (S102), by the network management system, routers in the network topology to allocate fixed bandwidths from the bandwidths of the links of the network topology, wherein links to which the fixed bandwidths are allocated form sublinks, and the sublinks and the routers that allocate the sublinks form a hard pipe stratum, wherein the hard pipe stratum is a subtopology of the network topology, and the hard pipe stratum is used to carry a leased line service; and allocating (S103), by the network management system, a static Multiprotocol Label Switching, MPLS, label set to the hard pipe stratum, wherein the static MPLS label set is used to forward, in the hard pipe stratum, the leased line service.
A method for acquiring MRI images which comprises the steps of: obtaining a first magnetic resonance image that reflects a first property of a blood vessel; obtaining a second magnetic resonance image that reflects a second property different from the first property; obtaining a third magnetic resonance image by inverting the first magnetic resonance image; subtracting the second magnetic resonance image from the third magnetic resonance image; wherein the first magnetic resonance image is a CISS (Constructive Interference in Steady State) T2/T1 weighted image; wherein the second magnetic resonance image is a T2-weighted image. obtaining a first magnetic resonance image that reflects a first property of a blood vessel; obtaining a second magnetic resonance image that reflects a second property different from the first property; obtaining a third magnetic resonance image by inverting the first magnetic resonance image; subtracting the second magnetic resonance image from the third magnetic resonance image; wherein the first magnetic resonance image is a CISS (Constructive Interference in Steady State) T2/T1 weighted image; wherein the second magnetic resonance image is a T2-weighted image.
A method to control a winch system, the winch system comprising a first winch , a second winch arranged apart from the first winch , a distance measurement unit , a relative position determination unit , an unwound length calculation unit and a winch control unit , the method comprising the steps of: winding a first wire for suspending an object (M) by the first winch ; winding a second wire for suspending the object (M) by the second winch ; measuring the winch-to-winch distance between the first and second winches by the distance measurement unit , based on the wound length of the second wire or the unwound length of the first wire when the object (M) is moved from the first winch to the second winch ; determining the relative position of the second winch with respect to the first winch by the relative position determination unit , based on the winch-to-winch distance; calculating by the unwound length calculation unit , based on the relative position of the second winch with respect to the first winch and the target position to which the object (M) is to be moved, the unwound length of the first wire indicating the length of the first wire unwound from the first winch and the unwound length of the second wire indicating the length of the second wire unwound from the second winch ; and controlling the first winch by the winch control unit , based on the unwound length of the first wire and the second winch based on the unwound length of the second wire . winding a first wire for suspending an object (M) by the first winch ; winding a second wire for suspending the object (M) by the second winch ; measuring the winch-to-winch distance between the first and second winches by the distance measurement unit , based on the wound length of the second wire or the unwound length of the first wire when the object (M) is moved from the first winch to the second winch ; determining the relative position of the second winch with respect to the first winch by the relative position determination unit , based on the winch-to-winch distance; calculating by the unwound length calculation unit , based on the relative position of the second winch with respect to the first winch and the target position to which the object (M) is to be moved, the unwound length of the first wire indicating the length of the first wire unwound from the first winch and the unwound length of the second wire indicating the length of the second wire unwound from the second winch ; and controlling the first winch by the winch control unit , based on the unwound length of the first wire and the second winch based on the unwound length of the second wire .
A control device for a rolling mill apparatus including at least one rolling mill stand for rolling a metal plate (S), the control device including: a detection signal acquisition part for receiving, from an edge crack sensor , a detection signal of an edge crack at an end portion of the metal plate (S) in a plate width direction; and a rolling condition decision part for deciding a rolling condition for the rolling mill apparatus , wherein the rolling condition decision part is configured to change, if the detection signal acquisition part receives the detection signal of the edge crack, the rolling condition for the rolling mill apparatus from a first rolling condition immediately before detection of the edge crack to a second rolling condition which is more capable of suppressing growth of the edge crack than the first rolling condition, wherein the rolling condition decision part is configured to maintain the rolling condition for the rolling mill apparatus to the second rolling condition after the detection signal acquisition part receives the detection signal of the edge crack and at least until a portion of the metal plate (S) which includes the edge crack portion is rewound by a rewinder of the rolling mill apparatus , characterised in that the rolling condition decision part is configured to set the rolling condition for the rolling mill apparatus back to the first rolling condition after the portion of the metal plate (S) including the edge crack is rewound by the rewinder . a detection signal acquisition part for receiving, from an edge crack sensor , a detection signal of an edge crack at an end portion of the metal plate (S) in a plate width direction; and a rolling condition decision part for deciding a rolling condition for the rolling mill apparatus , wherein the rolling condition decision part is configured to change, if the detection signal acquisition part receives the detection signal of the edge crack, the rolling condition for the rolling mill apparatus from a first rolling condition immediately before detection of the edge crack to a second rolling condition which is more capable of suppressing growth of the edge crack than the first rolling condition, wherein the rolling condition decision part is configured to maintain the rolling condition for the rolling mill apparatus to the second rolling condition after the detection signal acquisition part receives the detection signal of the edge crack and at least until a portion of the metal plate (S) which includes the edge crack portion is rewound by a rewinder of the rolling mill apparatus , characterised in that the rolling condition decision part is configured to set the rolling condition for the rolling mill apparatus back to the first rolling condition after the portion of the metal plate (S) including the edge crack is rewound by the rewinder .