mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device , comprising: a binocular lens provided to correspond to eyes of a wearer ; a lens frame fixed to the binocular lens and configured to be seated on a head of the wearer ; an electronic component case fixed to the lens frame ; an optical driving assembly mounted in the electronic component case and configured to emit image light to the binocular lens ; and a battery configured to supply power to the optical driving assembly , wherein the lens frame comprises an upper frame coupled to an upper boundary of the binocular lens , and wherein the electronic component case is fixed to the upper frame , and wherein an upper transverse width of an upper portion of the electronic component case is greater than a lower transverse width of a lower portion of the electronic component case , characterized in that a position of the electronic component case corresponds to an area between superciliary arches of the wearer . a binocular lens provided to correspond to eyes of a wearer ; a lens frame fixed to the binocular lens and configured to be seated on a head of the wearer ; an electronic component case fixed to the lens frame ; an optical driving assembly mounted in the electronic component case and configured to emit image light to the binocular lens ; and a battery configured to supply power to the optical driving assembly , wherein the lens frame comprises an upper frame coupled to an upper boundary of the binocular lens , and wherein the electronic component case is fixed to the upper frame , and wherein an upper transverse width of an upper portion of the electronic component case is greater than a lower transverse width of a lower portion of the electronic component case , characterized in that a position of the electronic component case corresponds to an area between superciliary arches of the wearer .
An adaptive optical system comprising: - an adaptive optical device comprising an optical processing surface intended to deform an incident wavefront and a driving device connected to said optical processing surface to controllably modify the optical behaviour of said optical processing surface , - an optical analyser intended to be subjected to an input light beam in order to produce, in response, output signals , - a control device connected, on the one hand, to the optical analyser , and on the other hand, to the driving device , in order to command the latter as a function of said output signals , characterized in that said optical analyser is designed to spatially demultiplex, by multi-plane light conversion, the input light beam into a plurality of elementary output light beams each corresponding to an isolated spatial mode or to a group of isolated spatial modes, said output signals being formed by, or from, said elementary light beams . - an adaptive optical device comprising an optical processing surface intended to deform an incident wavefront and a driving device connected to said optical processing surface to controllably modify the optical behaviour of said optical processing surface , - an optical analyser intended to be subjected to an input light beam in order to produce, in response, output signals , - a control device connected, on the one hand, to the optical analyser , and on the other hand, to the driving device , in order to command the latter as a function of said output signals ,
A system comprising a hook and a belt mount for attaching a belt to a wafer of an ostomy appliance , the belt mount comprising a mounting ring configured to be attached to said hook by inserting a portion of the mounting ring into a mouth of the hook and pulling the mounting ring and hook away from each other; the mounting ring at least partially surrounding a mounting aperture which accommodates at least a portion of the hook upon successful insertion of the portion of the mounting ring into the mouth of the hook ; characterized in that the belt mount further comprising a tongue that extends into the mounting aperture for contacting the hook if the mounting ring and the hook are subsequently pushed towards each other so as to resist detachment of the mounting ring from the hook , wherein the hook comprises a baseplate and a cantilevered hook element , wherein a mouth of the hook is defined between the baseplate and the cantilevered hook element . the mounting ring at least partially surrounding a mounting aperture which accommodates at least a portion of the hook upon successful insertion of the portion of the mounting ring into the mouth of the hook ; characterized in that the belt mount further comprising a tongue that extends into the mounting aperture for contacting the hook if the mounting ring and the hook are subsequently pushed towards each other so as to resist detachment of the mounting ring from the hook , wherein the hook comprises a baseplate and a cantilevered hook element , wherein a mouth of the hook is defined between the baseplate and the cantilevered hook element .
A method for treating nickel hydroxide, comprising steps of: (a) enabling a first nickel hydroxide pulp to be in contact with sodium hydroxide for 30 seconds to 60 minutes at a temperature of 40 °C to 80 °C to obtain an alkalized pulp, wherein the sodium hydroxide solution is of a concentration of 20 g/L to 250 g/L; (b) enabling the alkalized pulp to be in contact with a nickel sulfate solution for 30 minutes to 60 minutes at a temperature of 40 °C to 80 °C to obtain a nickel-precipitated pulp; (b-1) subjecting the nickel-precipitated pulp to sedimentation, so as to obtain an underflow precipitate as a second nickel hydroxide pulp; (c) returning the second nickel hydroxide pulp of the nickel-precipitated pulp to the step (a) as the first nickel hydroxide pulp, and repeating the steps (a) and (b) at least for eight times; and (d) separating the nickel hydroxide from the rest part of the nickel-precipitated pulp; wherein the step (b) further comprises a step of an aging treatment subsequent to the step of enabling the alkalized pulp to be in contact with the nickel sulfate solution. (a) enabling a first nickel hydroxide pulp to be in contact with sodium hydroxide for 30 seconds to 60 minutes at a temperature of 40 °C to 80 °C to obtain an alkalized pulp, wherein the sodium hydroxide solution is of a concentration of 20 g/L to 250 g/L; (b) enabling the alkalized pulp to be in contact with a nickel sulfate solution for 30 minutes to 60 minutes at a temperature of 40 °C to 80 °C to obtain a nickel-precipitated pulp; (b-1) subjecting the nickel-precipitated pulp to sedimentation, so as to obtain an underflow precipitate as a second nickel hydroxide pulp; (c) returning the second nickel hydroxide pulp of the nickel-precipitated pulp to the step (a) as the first nickel hydroxide pulp, and repeating the steps (a) and (b) at least for eight times; and (d) separating the nickel hydroxide from the rest part of the nickel-precipitated pulp; wherein the step (b) further comprises a step of an aging treatment subsequent to the step of enabling the alkalized pulp to be in contact with the nickel sulfate solution.
A dimming mechanism, configured to dim a lighting unit , comprising a fixed ball head connecting part , a first adjustable ball head connecting part and a second adjustable ball head connecting part , wherein the fixed ball head connecting part has one end connected to the lighting unit , and the other end connected to a support frame or a lamp body ; the first adjustable ball head connecting part has one end connected to the lighting unit , and the other end supported on the support frame or the lamp body ; and characterized in that , a sliding slot is provided on the lighting unit , the second adjustable ball head connecting part has one end slidably connected to the sliding slot over a sliding block , and the other end supported on the support frame or the lamp body , the second adjustable ball head connecting part is configured to be movable back and forth relative to the support frame or the lamp body , so as to drive the sliding slot to rotate relatively to the support frame or lamp body , and so as to drive, through the rotation of the sliding slot , the lighting unit to rotate so as to achieve dimming in a second direction; the sliding slot is provided obliquely with respect to the back and forth direction of movement of the second adjustable ball head connecting part . wherein the fixed ball head connecting part has one end connected to the lighting unit , and the other end connected to a support frame or a lamp body ; the first adjustable ball head connecting part has one end connected to the lighting unit , and the other end supported on the support frame or the lamp body ; and characterized in that , a sliding slot is provided on the lighting unit , the second adjustable ball head connecting part has one end slidably connected to the sliding slot over a sliding block , and the other end supported on the support frame or the lamp body , the second adjustable ball head connecting part is configured to be movable back and forth relative to the support frame or the lamp body , so as to drive the sliding slot to rotate relatively to the support frame or lamp body , and so as to drive, through the rotation of the sliding slot , the lighting unit to rotate so as to achieve dimming in a second direction; the sliding slot is provided obliquely with respect to the back and forth direction of movement of the second adjustable ball head connecting part .
Method for identifying, during operation of a hybrid vehicle, whether a combustion is taking place in an internal combustion engine of the hybrid vehicle, wherein a separating clutch is provided between the internal combustion engine and an electric machine for the drive of the hybrid vehicle, comprising: identifying, in a passive diagnosis with the separating clutch closed, whether a combustion is taking place in the internal combustion engine; opening the separating clutch between the internal combustion engine and the electric machine if, in the passive diagnosis, it is identified that no combustion is taking place in the internal combustion engine; receiving a rotational speed signal with the separating clutch open, which represents a rotational speed of the internal combustion engine with the separating clutch open; and ascertaining , on the basis of the rotational speed signal with the separating clutch open, whether a combustion is taking place in the internal combustion engine . identifying, in a passive diagnosis with the separating clutch closed, whether a combustion is taking place in the internal combustion engine; opening the separating clutch between the internal combustion engine and the electric machine if, in the passive diagnosis, it is identified that no combustion is taking place in the internal combustion engine; receiving a rotational speed signal with the separating clutch open, which represents a rotational speed of the internal combustion engine with the separating clutch open; and ascertaining , on the basis of the rotational speed signal with the separating clutch open, whether a combustion is taking place in the internal combustion engine .
Photoactive component comprising organic layers consisting of a single, tandem or multiple cell having two electrodes and between the electrodes a photoactive acceptor-donor layer system comprising at least three absorber materials 1, 2, 3, wherein at least two absorber materials of the photoactive acceptor-donor layer system are present at least partly in a mixed layer, wherein at least absorber material 1 and absorber material 2 are donors and absorber material 3 is an acceptor, or at least absorber material 1 and absorber material 2 are an acceptor and absorber material 3 is a donor, characterized in that (i) absorber material 2 absorbs at a greater wavelength than absorber material 1, and (ii) absorber material 2 has a smaller Stokes shift and/or a smaller absorption width in the film than absorber material 1, and (iii) absorber material 2 has a higher absorption, value of the optical density at the maximum, in comparison with absorber material 1. (i) absorber material 2 absorbs at a greater wavelength than absorber material 1, and (ii) absorber material 2 has a smaller Stokes shift and/or a smaller absorption width in the film than absorber material 1, and (iii) absorber material 2 has a higher absorption, value of the optical density at the maximum, in comparison with absorber material 1.
Switching device for an elevator door , which switching device is intended to provide a door contact signal (S), the switching device comprising a detection space (DR), a plurality of proximity sensors (22a, 22b; 22c, 22d), wherein the proximity sensors (22a, 22c; 22b, 22d) are arranged on the detection space (DR) so as to be adjacent, and a magnet which can be moved in the detection space (DR), wherein, in at least one position of the magnet in the detection space (DR), a sensor signal generated by this magnet can be produced by each of the proximity sensors in order to compensate for misalignments of the magnet in the detection space (DR) on the basis of an evaluation of the sensor signals , wherein the sensor signals are dependent on the distance of the magnet from the proximity sensors and a location of the magnet in the detection space (DR) can therefore be determined on the basis of the sensor signals of the at least two proximity sensors (22a, 22b; 22c, 22d), wherein the switching device comprises an evaluation unit , which evaluation unit is designed such that, by means of evaluating all of the sensor signals , a door contact is switched when the magnet enters the detection space (DR) by a predefined entry depth (ET*).
A seal in combination with a rotating component for a gas turbine engine , the seal comprising: plural members, including a first member defining a beam , a second member defining a second beam , and a third member defining a shoe ; the plural members being spaced in a radial direction when mounted in a gas turbine engine , the first member being disposed at a radial outer end of the seal , the second member being disposed on a radial middle of the seal , and the third member being disposed at a radial inner end of the seal ; and the plural members extending in a lengthwise direction , the first member and second member being connected at a lengthwise inner end of the seal , and the plural members being connected at a lengthwise outer end of the seal ; characterised in that : the seal includes a single crystal material with a predetermined crystalline orientation, wherein the orientation is such that the natural frequency for at least two of the plural members differs; and the orientation provides for the natural frequency of the seal being greater than a rotational speed of the rotating component in an amount that is greater than a threshold. plural members, including a first member defining a beam , a second member defining a second beam , and a third member defining a shoe ; the plural members being spaced in a radial direction when mounted in a gas turbine engine , the first member being disposed at a radial outer end of the seal , the second member being disposed on a radial middle of the seal , and the third member being disposed at a radial inner end of the seal ; and the plural members extending in a lengthwise direction , the first member and second member being connected at a lengthwise inner end of the seal , and the plural members being connected at a lengthwise outer end of the seal ; characterised in that : the seal includes a single crystal material with a predetermined crystalline orientation, wherein the orientation is such that the natural frequency for at least two of the plural members differs; and the orientation provides for the natural frequency of the seal being greater than a rotational speed of the rotating component in an amount that is greater than a threshold. the seal includes a single crystal material with a predetermined crystalline orientation, wherein the orientation is such that the natural frequency for at least two of the plural members differs; and the orientation provides for the natural frequency of the seal being greater than a rotational speed of the rotating component in an amount that is greater than a threshold.
A method of making a semiconductor device , comprising: forming a leadframe by half-etching a sheet of conductive material , wherein the half-etching forms: an opening through the sheet and a half-etched area into the sheet, wherein a first side surface of a first contact of the leadframe is exposed within the half-etched area , a second contact of the leadframe with the opening between the first contact and the second contact, a first dambar extending between the first contact and second contact, and a second dambar extending between the first contact and second contact, wherein the first dambar, second dambar, first contact, and second contact in combination extend continuously around the opening; plating a conductive layer over the first side surface of the first contact; disposing a semiconductor die over the opening of the leadframe; and depositing an encapsulant over the leadframe and semiconductor die, wherein the half-etched area remains devoid of the encapsulant. forming a leadframe by half-etching a sheet of conductive material , wherein the half-etching forms: an opening through the sheet and a half-etched area into the sheet, wherein a first side surface of a first contact of the leadframe is exposed within the half-etched area , a second contact of the leadframe with the opening between the first contact and the second contact, a first dambar extending between the first contact and second contact, and a second dambar extending between the first contact and second contact, wherein the first dambar, second dambar, first contact, and second contact in combination extend continuously around the opening; an opening through the sheet and a half-etched area into the sheet, wherein a first side surface of a first contact of the leadframe is exposed within the half-etched area , a second contact of the leadframe with the opening between the first contact and the second contact, a first dambar extending between the first contact and second contact, and a second dambar extending between the first contact and second contact, wherein the first dambar, second dambar, first contact, and second contact in combination extend continuously around the opening; plating a conductive layer over the first side surface of the first contact; disposing a semiconductor die over the opening of the leadframe; and depositing an encapsulant over the leadframe and semiconductor die, wherein the half-etched area remains devoid of the encapsulant.
A vehicle display retention system , comprising: a display unit affixed to a display frame and connected to a grab bar , and an intermediate adapter coupled to the grab bar , wherein the intermediate adapter comprises a mounting arm for attachment to a vehicle at a first mounting member , and an attachment component coupled to the intermediate adapter , characterized in that a retention strap is coupled to the mounting arm and the vehicle at the first mounting member . a display unit affixed to a display frame and connected to a grab bar , and an intermediate adapter coupled to the grab bar , wherein the intermediate adapter comprises a mounting arm for attachment to a vehicle at a first mounting member , and an attachment component coupled to the intermediate adapter , characterized in that a retention strap is coupled to the mounting arm and the vehicle at the first mounting member .
A radar level gauge comprising: transceiver circuitry arranged to generate an electromagnetic measurement signal, and to receive a reflected signal; processing circuitry connected to said transceiver circuitry and arranged to determine said process variable based on a relationship between said measurement signal and said reflected signal; a circular wave guide arranged to guide said measurement signal towards said surface, and to return said reflected signal; an electromagnetic wave transducer arranged to emit said measurement signal into said circular wave guide as electromagnetic waves, said electromagnetic wave transducer having a plurality of radiating elements arranged in N-1 concentric feeder rings , where N is four or greater, where a radius of each feeder ring coincides with a radial zero of an electrical field of H 0N -mode; and feeding circuitry connected to feed the measurement signals from the transceiver circuitry to the radiating elements, thereby causing the electromagnetic wave transducer to excite electromagnetic waves in H 01 -mode. transceiver circuitry arranged to generate an electromagnetic measurement signal, and to receive a reflected signal; processing circuitry connected to said transceiver circuitry and arranged to determine said process variable based on a relationship between said measurement signal and said reflected signal; a circular wave guide arranged to guide said measurement signal towards said surface, and to return said reflected signal; an electromagnetic wave transducer arranged to emit said measurement signal into said circular wave guide as electromagnetic waves, said electromagnetic wave transducer having a plurality of radiating elements arranged in N-1 concentric feeder rings , where N is four or greater, where a radius of each feeder ring coincides with a radial zero of an electrical field of H 0N -mode; and feeding circuitry connected to feed the measurement signals from the transceiver circuitry to the radiating elements, thereby causing the electromagnetic wave transducer to excite electromagnetic waves in H 01 -mode.
A thermoelectric element comprising: an n-type superlattice structure (3-1) comprising alternating layers of a first material (M1) and a second material (M2) other than said first material, wherein polar interfaces (I-n) with an excess of electrons are formed between said alternating layers in each case, a p-type superlattice structure (3-2) comprising alternating layers of the first material (M1) and the second material (M2) other than said first material, wherein polar interfaces (I-p) with an excess of holes are formed between said alternating layers in each case, wherein the n-type superlattice structure (3-1) and the p-type superlattice structure (3-2) have a connection , and wherein the polar interfaces with an excess of holes differ from the polar interfaces with an excess of electrons by the termination of said layers of the first material (M1) and the second material (M2) at said interfaces. an n-type superlattice structure (3-1) comprising alternating layers of a first material (M1) and a second material (M2) other than said first material, wherein polar interfaces (I-n) with an excess of electrons are formed between said alternating layers in each case, a p-type superlattice structure (3-2) comprising alternating layers of the first material (M1) and the second material (M2) other than said first material, wherein polar interfaces (I-p) with an excess of holes are formed between said alternating layers in each case, wherein the n-type superlattice structure (3-1) and the p-type superlattice structure (3-2) have a connection , and wherein the polar interfaces with an excess of holes differ from the polar interfaces with an excess of electrons by the termination of said layers of the first material (M1) and the second material (M2) at said interfaces.