mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for providing driver assistance of a vehicle, the apparatus comprising a first sensor and a second sensor mounted on a vehicle, wherein: the first sensor is configured to transmit and receive electromagnetic radiation to detect the presence of an object in a first area; the second sensor is configured to transmit and receive electromagnetic radiation to detect the presence of an object in a second area; the first area and the second area overlap to define an overlapping area forward of the vehicle; the first area extends from the overlapping area to a first extreme direction having a rearward component and a leftward component; and the second area extends from the overlapping area to a second extreme direction having a rearward component and a rightward component, characterised in that the first and second sensors are configured to provide a signal to an adaptive cruise control system in dependence on detection of an object in the overlapping area, and the first and second sensors are configured to provide a cross traffic alert signal in dependence on detection of an object by the first sensor in the first area but outside of the overlapping area or by the second sensor in the second area but outside of the overlapping area. the first sensor is configured to transmit and receive electromagnetic radiation to detect the presence of an object in a first area; the second sensor is configured to transmit and receive electromagnetic radiation to detect the presence of an object in a second area; the first area and the second area overlap to define an overlapping area forward of the vehicle; the first area extends from the overlapping area to a first extreme direction having a rearward component and a leftward component; and the second area extends from the overlapping area to a second extreme direction having a rearward component and a rightward component, characterised in that the first and second sensors are configured to provide a signal to an adaptive cruise control system in dependence on detection of an object in the overlapping area, and the first and second sensors are configured to provide a cross traffic alert signal in dependence on detection of an object by the first sensor in the first area but outside of the overlapping area or by the second sensor in the second area but outside of the overlapping area.
A method of generating a torque command provided by a motor (M) of an electrically assisted vehicle , the motor (M) being powered by a battery , the command being generated by a control unit , connected to a speed sensor of the vehicle (V) and to a sensor for a force (K) provided by a user, in order to compensate for a surplus force provided by a user beyond a target force, the method comprising the following steps: - a step for determining a vehicle speed value and a value of the surplus force provided by the user from measurements provided by the speed sensor (V) and the force sensor (K), the surplus force corresponding to the portion of the force that exceeds the target force; - a step for determining the torque command comprising applying a gain (G) to the surplus force, the gain having a value that varies with the speed measurement. - a step for determining a vehicle speed value and a value of the surplus force provided by the user from measurements provided by the speed sensor (V) and the force sensor (K), the surplus force corresponding to the portion of the force that exceeds the target force; - a step for determining the torque command comprising applying a gain (G) to the surplus force, the gain having a value that varies with the speed measurement.
A pipe coupling comprising a housing with a receiving space for a pipe section , with fixing members for releasably fixing the pipe section in the housing , and a sealing element which is arranged in the receiving space and is designed to surround the free end of the pipe section , which is received in the receiving space , on the outer circumference and thereby seal the interface between the housing and the pipe section in a fluid-tight manner, characterized in that the sealing element is designed in the form of a sleeve with a first and a second free end (6.1, 6.2), in that a bulge (6.5) is provided at the first free end (6.1), in that a tubular section (6.3) protrudes from the bulge (6.5) and forms the second free end (6.2) on the edge side, and in that at least in the installed state the tubular section (6.3) of the sealing element is designed to be conically tapered on the inner side towards the second free end (6.2).
A crystal form G of the compound of formula (II), wherein the X-ray powder diffraction pattern of the crystal form G of the compound of formula (II) comprises characteristic diffraction peaks at the following angle 2θ: 7.39±0.2°, 19.07±0.2°, and 20.04±0.2°; wherein said X-ray powder diffraction pattern is obtained using copper K-alpha X-rays at a wavelength of 1.54056 Angstroms
A method of individualizing a semiconductor chip of a batch of semiconductor chips with respective individualization data of the semiconductor chip, the method comprising: applying a plurality of circuit layouts to the semiconductor chip to form a plurality of circuits on the semiconductor chip, wherein for each circuit layout: said circuit layout is arranged such that: (a) the corresponding circuit, when triggered, falls into any one of two or more respective triggered states, and (b) one of the two or more respective triggered states is a respective preferred state defined by said circuit layout, wherein the plurality of respective preferred states of the circuits in the plurality of circuits encode the individualization data, and wherein each individualized semiconductor chip of the batch of semiconductor chips comprises a generic circuit. applying a plurality of circuit layouts to the semiconductor chip to form a plurality of circuits on the semiconductor chip, wherein for each circuit layout: said circuit layout is arranged such that: (a) the corresponding circuit, when triggered, falls into any one of two or more respective triggered states, and (b) one of the two or more respective triggered states is a respective preferred state defined by said circuit layout, (a) the corresponding circuit, when triggered, falls into any one of two or more respective triggered states, and (b) one of the two or more respective triggered states is a respective preferred state defined by said circuit layout, wherein the plurality of respective preferred states of the circuits in the plurality of circuits encode the individualization data, and wherein each individualized semiconductor chip of the batch of semiconductor chips comprises a generic circuit.
Medical device for ablating tissue cells, having at least one electrode , at least one temperature sensor and a radially expandable, at least partially tubular mesh structure that has struts delimiting the cells , wherein the mesh structure has at least one contact element which is arranged in a wall plane with the struts and is connected to the struts , wherein the electrode and the temperature sensor are arranged on the contact element , characterized in that the contact element is arranged in self-supporting manner inside a higher level cell and is designed integrally, in particular monolithically, with the struts . wherein the mesh structure has at least one contact element which is arranged in a wall plane with the struts and is connected to the struts , wherein the electrode and the temperature sensor are arranged on the contact element , characterized in that the contact element is arranged in self-supporting manner inside a higher level cell and is designed integrally, in particular monolithically, with the struts .
A dental care product that is essentially solid, selected from the group consisting of candy, lozenge, gelatin-gum, toffee, chewing gum, chew toy, or biscuit, comprising (i) self-assembling peptides comprising the sequence of SEQ ID NO: 4 and having at least 80% sequence identity to one of the sequences of SEQ ID NOs: 1 or 2, that are capable of undergoing self-assembly at a pH below 7.5, wherein the self-assembling peptides are present in the dental care product in monomeric form, and (ii) a pharmaceutically acceptable basis, for use in treating or preventing a tooth lesion and/or in remineralising a tooth surface, wherein the dental care product is applied to a plurality of teeth of a subject independent of diagnosis of caries, and wherein, after application, self-assembling peptides are present in monomeric state for at least 1 minute. (i) self-assembling peptides comprising the sequence of SEQ ID NO: 4 and having at least 80% sequence identity to one of the sequences of SEQ ID NOs: 1 or 2, that are capable of undergoing self-assembly at a pH below 7.5, wherein the self-assembling peptides are present in the dental care product in monomeric form, and (ii) a pharmaceutically acceptable basis,
A reversible pneumatic vane motor, comprising a stator housing with a pressure air inlet passage and an exhaust air outlet passage , a cylinder having opposite end walls and supported in the stator housing , a vane carrying rotor rotatable in the cylinder and forming a clearance seal portion with the cylinder , air communication ports located at opposite sides of the clearance seal portion and intended for supplying motive pressure air or scavenging exhaust air from the cylinder , a primary outlet located diametrically opposite the clearance seal portion , and a directional valve shiftable between two positions for connecting alternatively the air communication ports to the inlet passage and the outlet passage , wherein • auxiliary outlet ports are provided at angular positions between the primary outlet and each one of the air communication ports , • the directional valve comprises control parts (32a, b, c) for opening up and closing, respectively communication between said auxiliary outlet ports , and the outlet passage , when shifting the directional valve from one of its positions to the other, characterized in that • the air communication ports as well as said auxiliary outlet ports are located at one end wall of the cylinder , and wherein an auxiliary outlet port is located such that during rotation of the vane carrying rotor , a leading vane of the vane carrying rotor passes an auxiliary outlet port before a trailing vane passes the primary outlet . • auxiliary outlet ports are provided at angular positions between the primary outlet and each one of the air communication ports , • the directional valve comprises control parts (32a, b, c) for opening up and closing, respectively communication between said auxiliary outlet ports , and the outlet passage , when shifting the directional valve from one of its positions to the other, characterized in that • the air communication ports as well as said auxiliary outlet ports are located at one end wall of the cylinder , and wherein an auxiliary outlet port is located such that during rotation of the vane carrying rotor , a leading vane of the vane carrying rotor passes an auxiliary outlet port before a trailing vane passes the primary outlet .
A lens for an eyewear using an optical element having a transmission spectrum wherein the optical element comprises a base having a layered structure on opposite sides or one side of the optical element characterized in that a local maximum falls within the region of a wavelength longer than or equal to 360 nm but shorter than or equal to 400 nm, a local minimum falls within the region of a wavelength longer than or equal to 400 nm but shorter than or equal to 460 nm, and the wavelength at the local maximum is shorter than the wavelength at the local minimum, wherein transmittance at the local maximum is greater than or equal to 80% and transmittance at the local minimum is greater than or equal to 40% wherein in the transmission spectrum, transmittance at all wavelengths shorter than or equal to 315 nm is lower than or equal to 5%, and wherein a wavelength of the local maximum is about 380 nm and wherein transmittance at the local maximum is greater than transmittance at 400 nm. wherein transmittance at the local maximum is greater than or equal to 80% and transmittance at the local minimum is greater than or equal to 40% wherein in the transmission spectrum, transmittance at all wavelengths shorter than or equal to 315 nm is lower than or equal to 5%, and wherein a wavelength of the local maximum is about 380 nm and wherein transmittance at the local maximum is greater than transmittance at 400 nm.
A high-power switching system comprising: a switching device ; a gate driver having an input pin and a fault pin and a single multifunctional pin for a multifunctional signal; and a controller configured to: transmit an input signal to said input pin of the gate driver to control operation of the switching device, and receive a fault signal from the fault pin of the gate driver to monitor a fault in the switching device, wherein the controller is further configured to transmit said multifunction signal to said single multifunctional pin of the gate driver to control operation of the gate driver; wherein the gate driver is configured by the multifunction signal to: • disable an output of the gate driver; and • activate a fault test to test a fault detector circuit of the gate driver; characterized in that the gate driver is further configured by the multifunction signal to clear the fault signal of a fault detected by the fault detector circuit of the gate driver when the multifunction signal is held LOW for a period greater than a threshold to clear the fault signal. a switching device ; a gate driver having an input pin and a fault pin and a single multifunctional pin for a multifunctional signal; and a controller configured to: transmit an input signal to said input pin of the gate driver to control operation of the switching device, and receive a fault signal from the fault pin of the gate driver to monitor a fault in the switching device, wherein transmit an input signal to said input pin of the gate driver to control operation of the switching device, and receive a fault signal from the fault pin of the gate driver to monitor a fault in the switching device, wherein the controller is further configured to transmit said multifunction signal to said single multifunctional pin of the gate driver to control operation of the gate driver; wherein the gate driver is configured by the multifunction signal to: • disable an output of the gate driver; and • activate a fault test to test a fault detector circuit of the gate driver; • disable an output of the gate driver; and • activate a fault test to test a fault detector circuit of the gate driver; characterized in that the gate driver is further configured by the multifunction signal to clear the fault signal of a fault detected by the fault detector circuit of the gate driver when the multifunction signal is held LOW for a period greater than a threshold to clear the fault signal.
An impact tool comprising: a shaft adapted to rotate about an axis, the shaft having a first helical groove ; a hammer having a second helical groove and a hammer jaw with an obtuse impact surface ; a ball received in the first and second helical grooves , wherein the ball rotationally couples the hammer to the shaft and permits axial travel of the hammer relative to the shaft ; and an anvil having an anvil jaw with an acute impact surface, wherein the obtuse impact surface of the hammer jaw is adapted to impact the acute impact surface of the anvil jaw when the shaft rotates in a first direction; characterized in that : the hammer jaw includes a forward impact face having a hammer lug extending outwardly from the forward impact face ; the anvil jaw includes a central section and an anvil lug extending outwardly from the central section that form a rearward impact face , the acute impact surface being disposed at an acute angle with respect to the rearward impact face ; and the obtuse impact surface forms an edge of the hammer lug and the obtuse impact surface is disposed at an obtuse angle with respect to the forward impact face . a shaft adapted to rotate about an axis, the shaft having a first helical groove ; a hammer having a second helical groove and a hammer jaw with an obtuse impact surface ; a ball received in the first and second helical grooves , wherein the ball rotationally couples the hammer to the shaft and permits axial travel of the hammer relative to the shaft ; and an anvil having an anvil jaw with an acute impact surface, wherein the obtuse impact surface of the hammer jaw is adapted to impact the acute impact surface of the anvil jaw when the shaft rotates in a first direction; characterized in that : the hammer jaw includes a forward impact face having a hammer lug extending outwardly from the forward impact face ; the anvil jaw includes a central section and an anvil lug extending outwardly from the central section that form a rearward impact face , the acute impact surface being disposed at an acute angle with respect to the rearward impact face ; and the obtuse impact surface forms an edge of the hammer lug and the obtuse impact surface is disposed at an obtuse angle with respect to the forward impact face . the hammer jaw includes a forward impact face having a hammer lug extending outwardly from the forward impact face ; the anvil jaw includes a central section and an anvil lug extending outwardly from the central section that form a rearward impact face , the acute impact surface being disposed at an acute angle with respect to the rearward impact face ; and the obtuse impact surface forms an edge of the hammer lug and the obtuse impact surface is disposed at an obtuse angle with respect to the forward impact face .
A rotatable connector assembly , comprising a base and two connector members respectively connected to two sides of the base , wherein each of the connector members comprises a first hinge and a second hinge , and both sides of the base are provided with a first sliding slot ; one end of the first hinge is slidably connected to the first sliding slot and rotates with respect to the base , and the other end of the first hinge is hinged to one end of the second hinge ; the rotatable connector assembly has an unfolded state and a folded state, wherein in the unfolded state, the two connector members connected to the two sides of the base extend in a direction away from each other; and in the folded state, the two connector members connected to the two sides of the base are stacked, the first hinge and the second hinge of each of the connector members are bent to form a recess (A) at a hinged position, and the recesses (A) formed in the two connector members are joined to form an accommodating space.
An electrical connector assembly arranged for electrically connecting together at least one supply side electrical power cable and a device electrical power cable , wherein the electrical connector assembly includes: a first connector arranged for electrical attachment to one of the supply side electrical power and device power cables , said first connector including a set of first electrical connectors ; and a second connector arranged for electrical attachment to the other of the supply side electrical power and device power cables , said second connector including a set of second electrical connectors ; the sets of first and second electrical connectors are arranged for mating engagement to form an electrical connection between the supply side electrical power and device power cables and for disengagement to break the electrical connection; wherein the set of first electrical connectors is moulded into a plastics support member , thereby embedding at least part of each first electrical connector within the plastic support member , wherein each first electrical connector comprises first and second parts , and each second part protrudes outwards from the support member into a terminal block ; the terminal block includes a set of first apertures and a set of resilient electrical connectors , and the second part of each first electrical connector extends into a respective first aperture and forms an electrical connection with a first part of a respective resilient electrical connector ; and wherein the terminal block is push-fit on to the first electrical connectors .
A system comprising: an air cycle machine comprising a compressor , a turbine , a working fluid turbine , and a fan operably coupled by a shaft ; a first fluid flow path configured to condition a pressurized medium and deliver the pressurized medium to one or more loads , the first fluid flow path including the compressor ; a second fluid flow path configured to circulate a working fluid, the second fluid flow path including: a heat exchanger thermally coupled to the first fluid flow path, wherein within the heat exchanger, heat extracted from the pressurized medium is transferred to the working fluid; the working fuid turbine rotationally driven by expanding the working fluid across the working fluid turbine ; a condenser ; and a pump operable to circulate the working fluid through at least a portion of the second fluid flow path. an air cycle machine comprising a compressor , a turbine , a working fluid turbine , and a fan operably coupled by a shaft ; a first fluid flow path configured to condition a pressurized medium and deliver the pressurized medium to one or more loads , the first fluid flow path including the compressor ; a second fluid flow path configured to circulate a working fluid, the second fluid flow path including: a heat exchanger thermally coupled to the first fluid flow path, wherein within the heat exchanger, heat extracted from the pressurized medium is transferred to the working fluid; the working fuid turbine rotationally driven by expanding the working fluid across the working fluid turbine ; a heat exchanger thermally coupled to the first fluid flow path, wherein within the heat exchanger, heat extracted from the pressurized medium is transferred to the working fluid; the working fuid turbine rotationally driven by expanding the working a condenser ; and a pump operable to circulate the working fluid through at least a portion of the second fluid flow path.
A polypeptide consisting of an amino acid sequence selected from the group consisting sequence of Seq ID NO 9 to 15, Seq ID NO 20, Seq ID NO 26, Seq ID NO 27, Seq ID NO 29 and Seq ID NO 32 and its amidated, acetylated, sulfated, phosphorylated and/or glycosylated derivatives.