mhurhangee/patent-ind-claim-en huggingface dataset:
An actuation device for setting into motion an element to be driven , comprising: - a drive element able to be put into contact with the element to be driven ; and - an actuation element comprising a first fixed portion and a second driving portion for the drive element ; wherein the first fixed portion includes a crawling surface , the second driving portion includes a flexible moveable blade with a given width positioned in parallel and at a distance from the crawling surface , the moveable blade having a free end and an end connected to the drive element; characterized in that the length of the moveable blade is selected so that, when a power supply voltage is applied between the moveable blade and the crawling surface , the free end will come into contact with the crawling surface and a contact area, between the moveable blade and the crawling surface , longitudinally delimited relatively to the moveable blade by the free end of the moveable blade and a crawling front , increases by propagation of the crawling front along the moveable blade , the propagation of the crawling front moving the moveable blade and the second driving portion according to a first collinear orientation in the sense for bringing the moveable blade closer to the crawling surface , thereby driving the drive element . - a drive element able to be put into contact with the element to be driven ; and - an actuation element comprising a first fixed portion and a second driving portion for the drive element ;
An induction heating power supply apparatus comprising: a smoothing section configured to smooth pulsating current of DC power output from a DC power supply section ; and an inverter configured to convert the DC power smoothed by the smoothing section to AC power, wherein the smoothing section comprises a pair of bus bars connected to the inverter and at least one capacitor (C) connected to the pair of bus bars , wherein each of the bus bars comprises an external surface extending in a current flow direction, the external surface including at least one flat face having a larger surface dimension than another face of the external surface in a direction perpendicular to the current flow direction, wherein the pair of bus bars are arranged in a layered manner such that the flat faces of the pair of bus bars are opposed to each other and such that an insulator is sandwiched between the flat faces the pair of bus bars , and wherein the at least one capacitor (C) comprises a pair of terminals arranged side by side on one side of the at least one capacitor (C), and characterized in that the pair of terminals are connected to the pair of bus bars such that the pair of terminals extends through the pair of bus bars and the insulator in a direction in which the bus bars and the insulator are layered wherein the induction heating power supply apparatus further comprises a plurality of connection portions , each of the connection portions connecting the pair of bus bars to the inverter , and wherein the at least one capacitor (C) is provided for each of the connection portions and is connected to the connection portions . a smoothing section configured to smooth pulsating current of DC power output from a DC power supply section ; and an inverter configured to convert the DC power smoothed by the smoothing section to AC power,
Filter device for water treatment with an inlet pipe for the supply of raw water to be purified and a filter unit which encloses the inlet pipe along a section and is rotatable about an axis of rotation (A-A) and has sieve elements for the passage of the raw water into a basin for filtered water surrounding the filter unit , characterised in that the filter unit has a plurality of sieve elements which extend parallel to the axis of rotation (A-A) over the length of the filter unit , are triangular in cross-section and are arranged with a tip radially outwardly, wherein the sieve mesh is made of stainless steel or plastic, and wherein the sieve mesh has a mesh size of 5 to 100 micrometers in order to filter particles with a particle size of 5 micrometers from the raw water as it passes through the filter unit, wherein the filter unit is equipped with a bearing so as to be rotatable on the inlet pipe , wherein the filter device comprises a respective shaft seal on the bearing to seal the interior of the filter unit in a fluid-tight manner such that the raw water only passes through the sieve element into a basin for filtered water surrounding the filter unit , and wherein the filter device further comprises a spraying unit arranged above the filter unit , characterised in that the spraying unit is arranged above the filter unit , wherein the spraying unit is arranged above a drain channel arranged in the filter unit , wherein the drain channel leads into a structurally divided inlet pipe , which in operation supplies raw water in one part and discharges dirty spray water in another part.
A user plane positioning method, comprising: sending , by a location management network element, a session create request to a session management network element, the session create request being used to request to establish a session, wherein the session refers to a user plane connection between a terminal device and the location management network element; sending , by the session management network element, indication information to an access network device, wherein the indication information indicates that the session is related to a positioning service, sending , by the location management network element, a first message to the access network device directly by using the session, wherein the first message is used to request location information of the terminal device; parsing , by the access network device, the first message based on the indication information; determining , by the access network device, the location information of the terminal device; receiving , by the location management network element, the location information of the terminal device from the access network device by using the session; and determining , by the location management network element, a location of the terminal device based on the location information of the terminal device. sending , by a location management network element, a session create request to a session management network element, the session create request being used to request to establish a session, wherein the session refers to a user plane connection between a terminal device and the location management network element; sending , by the session management network element, indication information to an access network device, wherein the indication information indicates that the session is related to a positioning service, sending , by the location management network element, a first message to the access network device directly by using the session, wherein the first message is used to request location information of the terminal device; parsing , by the access network device, the first message based on the indication information; determining , by the access network device, the location information of the terminal device; receiving , by the location management network element, the location information of the terminal device from the access network device by using the session; and determining , by the location management network element, a location of the terminal device based on the location information of the terminal device.
A working device having a supporting device supporting at least one industrial robot , - wherein a first part of a separable adapter that consists of this first part and a second part that can be connected detachably thereto is arranged on the industrial robot , - wherein at least one magazine having a plurality of tool holders is arranged on the supporting device , - wherein a tool-holding second part of the separable adapter sits in at least one tool holder , - wherein the second part has at least one pivotable or slidable locking part (91; 111), which can be loaded by means of a spring element (112; 118; 119) to engage behind the first part , and - wherein the tool holder loads the spring element (112; 118; 119), characterised in that - the second part has at least two spring-loaded locking parts , wherein each of the locking parts fits around one guide element (121; 131), and - each of the guide elements (121; 131) can in each case be received form-fittingly in one guide element receptacle (47; 48) of the first part . - wherein a first part of a separable adapter that consists of this first part and a second part that can be connected detachably thereto is arranged on the industrial robot , - wherein at least one magazine having a plurality of tool holders is arranged on the supporting device , - wherein a tool-holding second part of the separable adapter sits in at least one tool holder , - wherein the second part has at least one pivotable or slidable locking part (91; 111), which can be loaded by means of a spring element (112; 118; 119) to engage behind the first part , and - wherein the tool holder loads the spring element (112; 118; 119), characterised in that - the second part has at least two spring-loaded locking parts , wherein each of the locking parts fits around one guide element (121; 131), and - each of the guide elements (121; 131) can in each case be received form-fittingly in one guide element receptacle (47; 48) of the first part .
A glazing comprising a transparent substrate coated with a stack of thin layers comprising at least one silver-based functional metal layer and at least two antireflective coatings, each antireflective coating comprising at least one dielectric layer, so that each functional metal layer is positioned between two antireflective coatings, characterized in that the stack comprises: - at least one antireflective coating comprising a dielectric layer capable of generating defects of hole type chosen from layers based on titanium oxide, on niobium oxide and on tin oxide, and having a thickness greater than 5 nm, the antireflective coating being located below a silver-based functional metal layer, and - at least one blocking layer based on titanium oxide exhibiting a thickness of greater than 1 nm and lower than 4,5 nm, the blocking layer being located between the antireflective coating comprising a dielectric layer capable of generating defects of hole type and a silver-based functional metal layer, immediately in contact with the silver-based functional metal layer. - at least one antireflective coating comprising a dielectric layer capable of generating defects of hole type chosen from layers based on titanium oxide, on niobium oxide and on tin oxide, and having a thickness greater than 5 nm, the antireflective coating being located below a silver-based functional metal layer, and - at least one blocking layer based on titanium oxide exhibiting a thickness of greater than 1 nm and lower than 4,5 nm, the blocking layer being located between the antireflective coating comprising a dielectric layer capable of generating defects of hole type and a silver-based functional metal layer, immediately in contact with the silver-based functional metal layer.
An optical processor for applying to a light field passing through a predetermined imaging lens unit , said optical processor comprising: a first pattern in the form of spaced apart regions of different optical properties being configured to define a phase coder providing an extended depth of focusing to be obtained by said imaging lens unit; wherein said first pattern of the phase coder providing the extended depth of focusing is configured for affecting profiles of Through Focus Modulation Transfer Function (TFMTF) for different wavelength components of said light field in accordance with a predetermined desired profile of said extended depth of focusing, the first pattern having a first radial profile of said spaced apart regions of different optical properties and being non-diffractive to visible light; characterized in that the optical processor comprises a dispersion profile coder comprising a second pattern, wherein said second pattern is configured in accordance with said imaging lens unit and said profiles of TFMTF for different wavelength components affected by said first pattern in accordance with said predetermined profile of the extended depth of focusing to thereby cause shifts of TFMTF profiles for different wavelength components to improve an overlap of said TFMTF profiles for different wavelength components within said predetermined desired profile of the extended depth of focusing, the second pattern having a second radial profile and being diffractive to visible light; the first pattern having a low spatial frequency in relation to the second pattern. a first pattern in the form of spaced apart regions of different optical properties being configured to define a phase coder providing an extended depth of focusing to be obtained by said imaging lens unit; wherein said first pattern of the phase coder providing the extended depth of focusing is configured for affecting profiles of Through Focus Modulation Transfer Function (TFMTF) for different wavelength components of said light field in accordance with a predetermined desired profile of said extended depth of focusing, the first pattern having a first radial profile of said spaced apart regions of different optical properties and being non-diffractive to visible light; characterized in that the optical processor comprises a dispersion profile coder comprising a second pattern, wherein said second pattern is configured in accordance with said imaging lens unit and said profiles of TFMTF for different wavelength components affected by said first pattern in accordance with said predetermined profile of the extended depth of focusing to thereby cause shifts of TFMTF profiles for different wavelength components to improve an overlap of said TFMTF profiles for different wavelength components within said predetermined desired profile of the extended depth of focusing, the second pattern having a second radial profile and being diffractive to visible light; the first pattern having a low spatial frequency in relation to the second pattern.
An apparatus comprising at least one processor and at least one memory including computer program code, the at least one memory and computer program code configured to, with the processor, cause the apparatus to at least: receive a two dimensional image depicting a geographic area; receive a geometry model with a raised road layer associated with the geographic area; generate an embossing map based on ambient occlusions modelled by the geometry model, wherein the embossing map assigns a lighter darkness value to raised details including roads and assigns a darker darkness value to areas with a lower relative heights including edges of the roads thereby emphasising the edges of the roads; and provide the embossing map for generation of a composite image, the composite image generated by applying the embossing map to the two dimensional image. receive a two dimensional image depicting a geographic area; receive a geometry model with a raised road layer associated with the geographic area; generate an embossing map based on ambient occlusions modelled by the geometry model, wherein the embossing map assigns a lighter darkness value to raised details including roads and assigns a darker darkness value to areas with a lower relative heights including edges of the roads thereby emphasising the edges of the roads; and provide the embossing map for generation of a composite image, the composite image generated by applying the embossing map to the two dimensional image.
A mobile device , comprising: a local proxy configured to: determine a first application priority and a second application priority based on user preferences set at the mobile device, wherein the first application priority and second application priority are application-specific priorities set at the mobile device for respective first and second applications stored on the mobile device, wherein the user preferences are set by a user in a user interface of the mobile device; provide the first application priority and the second application priority to a proxy server so that the proxy server modifies communication frequency with the mobile device according to the received first application priority and second application priority; receive data associated with the first application based on the first application priority; and receive data associated with the second application based on the second application priority. determine a first application priority and a second application priority based on user preferences set at the mobile device, wherein the first application priority and second application priority are application-specific priorities set at the mobile device for respective first and second applications stored on the mobile device, wherein the user preferences are set by a user in a user interface of the mobile device; provide the first application priority and the second application priority to a proxy server so that the proxy server modifies communication frequency with the mobile device according to the received first application priority and second application priority; receive data associated with the first application based on the first application priority; and receive data associated with the second application based on the second application priority.
An apparatus for a user equipment, the apparatus comprising means for performing: measuring interference in a radio resource control non-connected mode; estimating interference on different radio resources based on the measurements of the interference; selecting an interference profile among a plurality of interference profiles based on the estimated interference, wherein different interference profiles map to different radio resources on which at least one downlink message of an access procedure is to be received; including, as information of the measured interference, an indication of the selected interference profile in an uplink message of the access procedure, wherein the selected interference profile maps to radio resources on which interference is estimated to be below a predetermined interference threshold for the reception of the at least one downlink message; and causing reception of the at least one downlink message of said access procedure on radio resources which are at least partially based on the included indication. measuring interference in a radio resource control non-connected mode; estimating interference on different radio resources based on the measurements of the interference; selecting an interference profile among a plurality of interference profiles based on the estimated interference, wherein different interference profiles map to different radio resources on which at least one downlink message of an access procedure is to be received; including, as information of the measured interference, an indication of the selected interference profile in an uplink message of the access procedure, wherein the selected interference profile maps to radio resources on which interference is estimated to be below a predetermined interference threshold for the reception of the at least one downlink message; and causing reception of the at least one downlink message of said access procedure on radio resources which are at least partially based on the included indication.
Method of making an array of interconnected solar cells, comprising the steps of a) providing a continuous layer stack of a prescribed thickness (t) on a substrate , the layer stack comprising an upper and a lower conductive layer having a photoactive layer and a semi conductive electron transport layer interposed there between; b) selectively removing the upper conductive layer and the photoactive layer for obtaining a contact hole exposing the semi conductive electron transport layer ; c) selectively heating the layer stack to a first depth (d1) equal to the prescribed thickness for obtaining a first heat affected zone at a first centre-to-centre distance ( s1 ) from the contact hole , the first heat affected zone being transformed into a substantially insulating region with substantially the first depth ( d1 ) in the layer stack, thereby locally providing an increased electrical resistivity to the layer stack . a) providing a continuous layer stack of a prescribed thickness (t) on a substrate , the layer stack comprising an upper and a lower conductive layer having a photoactive layer and a semi conductive electron transport layer interposed there between; b) selectively removing the upper conductive layer and the photoactive layer for obtaining a contact hole exposing the semi conductive electron transport layer ; c) selectively heating the layer stack to a first depth (d1) equal to the prescribed thickness for obtaining a first heat affected zone at a first centre-to-centre distance ( s1 ) from the contact hole , the first heat affected zone being transformed into a substantially insulating region with substantially the first depth ( d1 ) in the layer stack, thereby locally providing an increased electrical resistivity to the layer stack .
A sizing catheter including: a handle assembly ; a catheter extending from the handle assembly ; a distal sizer positioned on a distal end of the catheter , wherein the distal sizer is configured to conform to a first portion of a lumen of a patient's anatomy; and a proximal sizer positioned on the catheter and adjustably spaced from the distal sizer , wherein the proximal sizer is configured to conform to a second portion of the lumen ; wherein the distal and proximal sizers are configured to determine first and second dimensions of the lumen at a selected distance between the distal and proximal sizers . a handle assembly ; a catheter extending from the handle assembly ; a distal sizer positioned on a distal end of the catheter , wherein the distal sizer is configured to conform to a first portion of a lumen of a patient's anatomy; and a proximal sizer positioned on the catheter and adjustably spaced from the distal sizer , wherein the proximal sizer is configured to conform to a second portion of the lumen ; wherein the distal and proximal sizers are configured to determine first and second dimensions of the lumen at a selected distance between the distal and proximal sizers .
A passively controlled fluid foil having a span comprises: a rigid spar extending in the spanwise direction a cellular polymer material and a flexible elastic outer surface defining a profile of the outer surface of the foil and encapsulating the cellular polymer material and the spar, characterised in that the flexible elastic outer surface comprises rubber or an elastomer and at least partially fills one or more cells of the polymer cellular material. a rigid spar extending in the spanwise direction a cellular polymer material and a flexible elastic outer surface defining a profile of the outer surface of the foil and encapsulating the cellular polymer material and the spar, characterised in that the flexible elastic outer surface comprises rubber or an elastomer and at least partially fills one or more cells of the polymer cellular material.