mhurhangee/patent-ind-claim-en huggingface dataset:
A loop antenna comprising: a first conductor including a first pattern and a second pattern , the first pattern being provided along a first surface and including a first feed point , and the second pattern being electrically coupled to the first pattern at a first end of the first surface and being provided to oppose the first pattern ; and a second conductor including a third pattern and a fourth pattern , the third pattern being provided on the first surface with a gap (5-1, 5-2) generating a capacitance between the first pattern and including a second feed point , the fourth pattern being electrically coupled to the third pattern at a second end opposing the first end on the first surface, the fourth pattern overlapping the second pattern at an overlapping area so that the first conductor is capacitively coupled to the second conductor at the overlapping area or the fourth pattern being connected to the second pattern , wherein at least a part of the first pattern is arranged closer to the second end than at least a part of the third pattern ; and wherein the loop antenna is further characterised in that : the first feed point is provided closer to the second end than the second feed point . a first conductor including a first pattern and a second pattern , the first pattern being provided along a first surface and including a first feed point , and the second pattern being electrically coupled to the first pattern at a first end of the first surface and being provided to oppose the first pattern ; and a second conductor including a third pattern and a fourth pattern , the third pattern being provided on the first surface with a gap (5-1, 5-2) generating a capacitance between the first pattern and including a second feed point , the fourth pattern being electrically coupled to the third pattern at a second end opposing the first end on the first surface, the fourth pattern overlapping the second pattern at an overlapping area so that the first conductor is capacitively coupled to the second conductor at the overlapping area or the fourth pattern being connected to the second pattern , wherein at least a part of the first pattern is arranged closer to the second end than at least a part of the third pattern ; and wherein the loop antenna is further characterised in that : the first feed point is provided closer to the second end than the second feed point .
An illuminator comprising: a short wave infrared , SWIR, laser ; a defocussed lens collimator optically coupled to the laser, the defocussed lens collimator configured to produce a diverging semi-circular beam by diverging the beam emitted by the laser; a first beam shaping diffuser optically coupled to the defocused lens collimator to diffuse the diverged beam produced by the defocused lens collimator, wherein the first beam shaping diffuser is a 5 degree circular beam shaping diffuser; a second beam shaping diffuser optically coupled to the first beam shaping diffuser to further diffuse the diffused beam produced by the first beam shaping diffuser the second beam shaping diffuser being configured to create a 90 degree horizontal by 40 degree vertical illumination field with a Gaussian distribution centered in the horizontal plane; and a bandpass filter optically connected to the second beam shaping diffuser configured to filter the emissions of a further diffused beam produced by the second beam shaping diffuser, wherein the bandpass filter is configured to pass a Full-Width-Half-Maximum bandwidth of about 100 nm, to allow laser energy at 1550 nm to pass through. a short wave infrared , SWIR, laser ; a defocussed lens collimator optically coupled to the laser, the defocussed lens collimator configured to produce a diverging semi-circular beam by diverging the beam emitted by the laser; a first beam shaping diffuser optically coupled to the defocused lens collimator to diffuse the diverged beam produced by the defocused lens collimator, wherein the first beam shaping diffuser is a 5 degree circular beam shaping diffuser; a second beam shaping diffuser optically coupled to the first beam shaping diffuser to further diffuse the diffused beam produced by the first beam shaping diffuser the second beam shaping diffuser being configured to create a 90 degree horizontal by 40 degree vertical illumination field with a Gaussian distribution centered in the horizontal plane; and a bandpass filter optically connected to the second beam shaping diffuser configured to filter the emissions of a further diffused beam produced by the second beam shaping diffuser, wherein the bandpass filter is configured to pass a Full-Width-Half-Maximum bandwidth of about 100 nm, to allow laser energy at 1550 nm to pass through.
A method for auto-aligning a projected beam on a reflector in a reflective-type beam detector, the method comprising: providing a flat, wide beam providing illumination of a size larger than a reflective surface of the reflector; adjusting the projected beam so as to project on to all of the reflective surface of the reflector; and centreing the projected beam, so as to align a centre of the projected beam on, or within a predetermined threshold of, a centre of the reflective surface of the reflector whilst fully illuminating the reflective surface of the reflector; and/or determining a shape or profile of the reflector, by detecting one or more edges of the reflective surface of the reflector through moving the beam along altitudinal and lateral axes and detecting reduced reflected signal intensity. providing a flat, wide beam providing illumination of a size larger than a reflective surface of the reflector; adjusting the projected beam so as to project on to all of the reflective surface of the reflector; and centreing the projected beam, so as to align a centre of the projected beam on, or within a predetermined threshold of, a centre of the reflective surface of the reflector whilst fully illuminating the reflective surface of the reflector; and/or determining a shape or profile of the reflector, by detecting one or more edges of the reflective surface of the reflector through moving the beam along altitudinal and lateral axes and detecting reduced reflected signal intensity.
A flight display system for providing location information for a user-selected feature on an active vertical situation display (VSD) provided on a display unit in a cockpit of an aircraft, the flight display system comprising a controller circuit configured to: receive the user-selected feature from a user interface operationally coupled to the controller circuit, the user-selected feature from among a plurality of features on the active VSD, the plurality of features including terrain features and weather features; cause a reticle to be displayed as an overlay, centered, on the user-selected feature on the active VSD at a current scale of the VSD, responsive to receiving the user-selected feature; indicate a location of the user-selected feature by rendering a first indicator showing a horizontal extension from a center of the reticle to an intersection on a vertical axis of the active VSD, and rendering a second indicator showing a vertical extension from the center of the reticle to an intersection on a horizontal axis of the active VSD; reference map layer data and weather data using the center of the reticle to obtain raw geospatial information for the user-selected feature; convert the raw geospatial information for the user-selected feature to an elevation and a distance consistent with the current scale of the active VSD; position an alphanumeric elevation label indicating the elevation along the first indicator; and position an alphanumeric distance label indicating the distance by the second indicator. receive the user-selected feature from a user interface operationally coupled to the controller circuit, the user-selected feature from among a plurality of features on the active VSD, the plurality of features including terrain features and weather features; cause a reticle to be displayed as an overlay, centered, on the user-selected feature on the active VSD at a current scale of the VSD, responsive to receiving the user-selected feature; indicate a location of the user-selected feature by rendering a first indicator showing a horizontal extension from a center of the reticle to an intersection on a vertical axis of the active VSD, and rendering a second indicator showing a vertical extension from the center of the reticle to an intersection on a horizontal axis of the active VSD; reference map layer data and weather data using the center of the reticle to obtain raw geospatial information for the user-selected feature; convert the raw geospatial information for the user-selected feature to an elevation and a distance consistent with the current scale of the active VSD; position an alphanumeric elevation label indicating the elevation along the first indicator; and position an alphanumeric distance label indicating the distance by the second indicator.
An electrical device system having a first electrical device and a second electrical device , connecting rails and a first and second terminal unit , wherein the first electrical device is connected detachably to the first terminal unit , in particular screw-connected by means of a screwing part, wherein the second electrical device is connected detachably to the second terminal unit , in particular screw-connected by means of a screwing part, wherein a voltage output of the first electrical device is connected in electrically conductive manner by means of the first and second terminal units and the connecting rails to a voltage input of the second electrical device, wherein the first terminal unit has a first receiving part and the second terminal unit has a second receiving part , wherein the first and second receiving parts in each case have a first receiving portion and a second receiving portion for receiving terminal means , wherein in each case one terminal means , in particular a conductor bar , is received in the first receiving portion , in particular wherein the respective terminal means is detachably connected to the respective receiving part , wherein a terminal means is received in the second receiving portion of the first terminal unit , in particular is connected detachably to the receiving part , wherein no terminal means is received in the second receiving portion of the second terminal unit and wherein the first and second receiving parts are identical to each other.
A method for producing plastic-metal-hybrid components , in particular for the motor vehicle sector, wherein - a plastic composition is injected into a tool mould , - the tool mould has a core onto which a metal is sprayed, and - subsequently, the plastic composition is injected into the tool mould in a manner such that, for producing a blank , the metal is back injection moulded with the plastic composition and is fixed on the plastic , characterised, in that by means of the tool mould at least one depression is created in a surface of the blank , which is, within the scope of a first further processing, at least partially filled with a metal . - a plastic composition is injected into a tool mould , - the tool mould has a core onto which a metal is sprayed, and - subsequently, the plastic composition is injected into the tool mould in a manner such that, for producing a blank , the metal is back injection moulded with the plastic composition and is fixed on the plastic ,
A dynamic gas permeability evaluation apparatus comprising: a measurement chamber in which a sample is disposed, the sample being configured to separate the measurement chamber into a first space and a second space ; a test gas flow system for allowing a test gas to continuously flow into the first space ; a carrier gas flow system for allowing a carrier gas to continuously flow into the second space ; a measurement unit for measuring a specimen concentration in the carrier gas; and characterized by a test gas adjustment system for adjusting the specimen concentration of the test gas in the first space ; a control unit for causing the test gas adjustment system to change the specimen concentration of the test gas; an analysis unit for analyzing a shift in change of the specimen concentration in the carrier gas measured by the measurement unit from change of the specimen concentration in the test gas, when the specimen concentration in the test gas is changed by the control unit . a measurement chamber in which a sample is disposed, the sample being configured to separate the measurement chamber into a first space and a second space ; a test gas flow system for allowing a test gas to continuously flow into the first space ; a carrier gas flow system for allowing a carrier gas to continuously flow into the second space ; a measurement unit for measuring a specimen concentration in the carrier gas; and characterized by a test gas adjustment system for adjusting the specimen concentration of the test gas in the first space ; a control unit for causing the test gas adjustment system to change the specimen concentration of the test gas; an analysis unit for analyzing a shift in change of the specimen concentration in the carrier gas measured by the measurement unit from change of the specimen concentration in the test gas, when the specimen concentration in the test gas is changed by the control unit .
Method for calculating at least one adjusting parameter of a centrifugal spreader which has at least one spreader disc, the at least one adjusting parameter being calculated from a universal variable at least partly characterizing the spread material and determinable for any desired spread materials, characterized in that at least one of the variables that characterizes the spread material, which is used for the calculation of the adjusting parameters of the centrifugal spreader for the desired working width, is determined by suitable measurement of one or more variables characterizing the flight behaviour of the spread material with the aid of a suitable measuring rule, which measurement is carried out by means of suitable means on the centrifugal spreader itself or a device arranged on the centrifugal spreader.
An articulated arm for outdoor awnings, comprising: - a first longitudinally extended element , to be connected with one of its ends to a supporting structure and provided with elastic tensioning means which are accommodated at least partially inside it, - a second longitudinally extended element , to be connected rotatably on one side of said first longitudinally extended element , with the rotation fulcrum in a region comprised between the two ends of said first element , - an elongated flexible element adapted to connect said elastic tensioning means to said second longitudinally extended element , surrounding at least partially the region in which said fulcrum is located, - said first longitudinally extended element comprising a first end portion for connection to a supporting structure, a longitudinally extended profiled element inside which said elastic tensioning means are at least partially accommodated, and a second end portion , which is for connection to said second longitudinally extended element and on which said fulcrum is present, the articulated arm being characterized in that said rotation fulcrum is not arranged at the end of the first longitudinally extended element but instead laterally along said second end portion . - a first longitudinally extended element , to be connected with one of its ends to a supporting structure and provided with elastic tensioning means which are accommodated at least partially inside it, - a second longitudinally extended element , to be connected rotatably on one side of said first longitudinally extended element , with the rotation fulcrum in a region comprised between the two ends of said first element , - an elongated flexible element adapted to connect said elastic tensioning means to said second longitudinally extended element , surrounding at least partially the region in which said fulcrum is located, - said first longitudinally extended element comprising a first end portion for connection to a supporting structure, a longitudinally extended profiled element inside which said elastic tensioning means are at least partially accommodated, and a second end portion , which is for connection to said second longitudinally extended element and on which said fulcrum is present, the articulated arm being characterized in that said rotation fulcrum is not arranged at the end of the first longitudinally extended element but instead laterally along said second end portion .
A dust collector intended for operation at a constant suction force, comprising a first, inner cyclone and a swirl generator , which first, inner cyclone is integrated into a larger collection cyclone , which relieves the inner cyclone and its flow channels from the largest dust particles as well as larger items which can be sucked in, which inner cyclone in its lower end has a hose lock ,which does not have mechanical moving parts characterized in that the hose lock is elastic.
A femoral component of a knee prosthesis, wherein said component is a one piece injection moulded component, said component comprising a curved outer surface for bearing against a tibial component, said curved outer surface including a posterior end and an anterior end , said curved outer surface including an area (A) which extends from a first position closer to the posterior end to a second position closer to the anterior end , wherein said area (A) includes no parting line formed on the outer surface at junctions defined between elements of an injection moulding tool used to mould the component, wherein area (A) suitably comprises an area of the curved outer surface which is arranged to contact, pivot and/or roll over a tibial surface of a tibial component in normal use, characterised in that said component is arranged to pivot through an angle of at least 140° on a planar surface without any parting line and/or without any remnant of a parting line contacting the planar surface .
A heating pad comprising: a heat pad including an anterior side and a posterior side , the heat pad comprising: a first layer on the posterior side of the heat pad; a second layer having a wire , the wire being capable of being selectively heated to increase the temperature of the heat pad; a third layer comprising a reflective material positioned to reflect heat from the second layer towards the first layer, thereby decreasing the amount of heat emitted on the anterior side of the heat pad; and the third layer being located further towards the anterior side than the first and second layers, the second layer being located in between the first layer and the third layer of the heat pad; a battery being in electrical communication with the wire of the heat pad; and an engagement mechanism to secure the heating pad to a user, characterized in that the heating pad includes an air gap in between the second layer and the third layer . a heat pad including an anterior side and a posterior side , the heat pad comprising: a first layer on the posterior side of the heat pad; a second layer having a wire , the wire being capable of being selectively heated to increase the temperature of the heat pad; a third layer comprising a reflective material positioned to reflect heat from the second layer towards the first layer, thereby decreasing the amount of heat emitted on the anterior side of the heat pad; and the third layer being located further towards the anterior side than the first and second layers, the second layer being located in between the first layer and the third layer of the heat pad; a battery being in electrical communication with the wire of the heat pad; and an engagement mechanism to secure the heating pad to a user, characterized in that the heating pad includes an air gap in between the second layer and the third layer .
A method for delivering a fluid treatment from a pumping vessel to a subsea well with an associated production platform , the method comprising: a. delivering fluid to the well through a delivery system comprising a delivery line running between the vessel and a subsea wellhead and Xmas tree assembly ; and b. directly controlling at least one function of the system from the vessel , via a control line between the vessel and the assembly ; wherein the method is characterised by : c. controlling a subsea control module of the assembly directly from a host production platform from which the well is operated, including receipt at the host production platform of downhole data from the well. a. delivering fluid to the well through a delivery system comprising a delivery line running between the vessel and a subsea wellhead and Xmas tree assembly ; and b. directly controlling at least one function of the system from the vessel , via a control line between the vessel and the assembly ;
Multi-channel audio decoder for processing a downmix audio signal derived in a matrix compatible way and for processing first parametric data describing a first portion of a multi-channel signal, wherein for a second portion of the multi-channel signal no parametric data or second parametric data is processed, the second parametric data requiring less information units than the first parametric data when describing an identical portion of the multi-channel signal, comprising: a processor for deriving an intermediate signal from the downmix audio signal , the downmix audio signal being in a QMF, Quadrature Mirror Filterbank, representation, using a first deriving rule for deriving a first portion of the intermediate signal , the first portion of the intermediate signal corresponding to the first portion of the multi-channel audio signal, wherein the first deriving rule is depending on the first parametric data ; and using a second deriving rule for deriving a second portion of the intermediate signal , the second deriving rule using no parametric data or the second parametric data , wherein the first portion is a time portion or a frequency portion, and wherein the first parametric data comprise one or more spatial audio parameters chosen from the following list of spatial audio parameters: ICC (inter-channel correlation), CLD (channel level difference), and CPC (channel prediction coefficient). a processor for deriving an intermediate signal from the downmix audio signal , the downmix audio signal being in a QMF, Quadrature Mirror Filterbank, representation, using a first deriving rule for deriving a first portion of the intermediate signal , the first portion of the intermediate signal corresponding to the first portion of the multi-channel audio signal, wherein the first deriving rule is depending on the first parametric data ; and using a second deriving rule for deriving a second portion of the intermediate signal , the second deriving rule using no parametric data or the second parametric data , using a first deriving rule for deriving a first portion of the intermediate signal , the first portion of the intermediate signal corresponding to the first portion of the multi-channel audio signal, wherein the first deriving rule is depending on the first parametric data ; and using a second deriving rule for deriving a second portion of the intermediate signal , the second deriving rule using no parametric data or the second parametric data , wherein the first portion is a time portion or a frequency portion, and wherein the first parametric data comprise one or more spatial audio parameters chosen from the following list of spatial audio parameters: ICC (inter-channel correlation), CLD (channel level difference), and CPC (channel prediction coefficient).