mhurhangee/ep-ind-claims huggingface dataset:
An automotive electronic preventive active safety system designed to improve driving stability of a motor-vehicle and to: - receive data indicative of a current position of the motor-vehicle, of roads and characteristics thereof comprising road curvature, and of potential driving routes of the motor-vehicle from a current position up to an electronic horizon thereof; characterized in that it is further designed to: - identify a driving-safety-critical road stretch along a driving route of the motor-vehicle; - backwards compute, from the driving-safety-critical road stretch up to the current position of the motor-vehicle, a driving speed profile that the motor-vehicle should follow from its current position to the identified driving-safety-critical road stretch to result in the latter being driven through at a driving speed that satisfies a driving safety criterion; - compare the current and backwards computed speeds of the motor-vehicle in the current position thereof; and - if the current speed of the motor-vehicle in its current position is greater than or equal to the backwards computed speed of the motor-vehicle in its current position, cause the motor-vehicle to decelerate to such an extent as to result in the identified driving-safety-critical road stretch being driven through at a driving speed that satisfies the driving safety criterion. - receive data indicative of a current position of the motor-vehicle, of roads and characteristics thereof comprising road curvature, and of potential driving routes of the motor-vehicle from a current position up to an electronic horizon thereof; - identify a driving-safety-critical road stretch along a driving route of the motor-vehicle; - backwards compute, from the driving-safety-critical road stretch up to the current position of the motor-vehicle, a driving speed profile that the motor-vehicle should follow from its current position to the identified driving-safety-critical road stretch to result in the latter being driven through at a driving speed that satisfies a driving safety criterion; - compare the current and backwards computed speeds of the motor-vehicle in the current position thereof; and - if the current speed of the motor-vehicle in its current position is greater than or equal to the backwards computed speed of the motor-vehicle in its current position, cause the motor-vehicle to decelerate to such an extent as to result in the identified driving-safety-critical road stretch being driven through at a driving speed that satisfies the driving safety criterion.
An arrangement comprising a genset and a container, in which the genset is arranged, wherein the arrangement also includes a cooling device and the genset can be cooled by the cooling device in the operating state of the genset, wherein the cooling device is moveable between: - a first position in which the cooling device is arranged completely inside the container; - and a second position in which at least a part of the cooling device is at least partially outside the container, wherein the genset can be put into its operating state when the cooling device is in the second position, characterised in that - a control cabinet of the genset is supported in the container by way of a receiving device and wherein the receiving device is moveable between a first position in which the control cabinet is completely inside the container and a second position in which the control cabinet is at least partially outside the container, and - there is provided a further receiving device on which the cooling device is mounted and which receiving device has openings which allow the introduction of a fork of a fork lift truck, and - provided in the container is at least one rail, on which the cooling device is moveable on the further receiving device between the first and second positions. - a first position in which the cooling device is arranged completely inside the container; - and a second position in which at least a part of the cooling device is at least partially outside the container, wherein the genset can be put into its operating state when the cooling device is in the second position, characterised in that - a control cabinet of the genset is supported in the container by way of a receiving device and wherein the receiving device is moveable between a first position in which the control cabinet is completely inside the container and a second position in which the control cabinet is at least partially outside the container, and - there is provided a further receiving device on which the cooling device is mounted and which receiving device has openings which allow the introduction of a fork of a fork lift truck, and - provided in the container is at least one rail, on which the cooling device is moveable on the further receiving device between the first and second positions.
A folded camera, comprising: a top lid and a bottom lid and a lens held by a lens carrier positioned in an optical path between an optical path folding element (OPFE) and an image sensor, the lens having a lens height and an optical axis, wherein the folded camera has a height equal to the lens height, a thickness of the top lid, a thickness of the bottom lid, a thickness of an air gap between the lens and top lid and a thickness of an air gap between the lens and bottom lid, the height not exceeding the lens height by more than 800 μm.
An applicator for applying an on-skin sensor assembly to skin of a host, the applicator comprising: an applicator base configured to secure a housing of the on-skin sensor assembly, wherein the housing is configured to receive an electronics unit, wherein the electronics unit is configured to generate analyte information based on a signal from a sensor; a sensor insertion mechanism configured to insert the sensor into the host, and including a needle for carrying the sensor, a rotatable wheel, a torsion spring that stores energy, and a linearly translatable needle carrier; a trigger configured, in response to being activated, to cause the rotatable wheel to rotate, which in turn causes the linearly translatable needle carrier to translate toward the host to implant the sensor, and subsequently to translate away from the host to withdraw the needle from the host; wherein the rotatable wheel includes a flange, and the trigger bears against the flange to retain the energy stored within the torsion spring, and wherein the applicator is configured such that when the trigger is activated, the energy stored in the torsion spring is released, causing the wheel to rotate. an applicator base configured to secure a housing of the on-skin sensor assembly, wherein the housing is configured to receive an electronics unit, wherein the electronics unit is configured to generate analyte information based on a signal from a sensor; a sensor insertion mechanism configured to insert the sensor into the host, and including a needle for carrying the sensor, a rotatable wheel, a torsion spring that stores energy, and a linearly translatable needle carrier; a trigger configured, in response to being activated, to cause the rotatable wheel to rotate, which in turn causes the linearly translatable needle carrier to translate toward the host to implant the sensor, and subsequently to translate away from the host to withdraw the needle from the host; wherein the rotatable wheel includes a flange, and the trigger bears against the flange to retain the energy stored within the torsion spring, and wherein the applicator is configured such that when the trigger is activated, the energy stored in the torsion spring is released, causing the wheel to rotate.
A system for transmitting data wherein the data is at least one of audio signals, video signals and accelerated control negotiation protocol signals, the system comprising: a network configured to transmit the data; a first terminal configured to connect to the network wherein the first terminal is configured to transmit the data via the network; a second terminal configured to connect to the network wherein the second terminal is configured to communicate with the first terminal via the network; and a database accessible by the first terminal wherein the database has a plurality of codecs characterised in that the database stores an association of the second terminal with a first codec of the plurality of codecs wherein the first terminal is configured to use an identification of the second terminal to select the first codec from the database and to transmit the data encoded in the first codec to the second terminal via the network after using the contact information to select the first codec from the database. a network configured to transmit the data; a first terminal configured to connect to the network wherein the first terminal is configured to transmit the data via the network; a second terminal configured to connect to the network wherein the second terminal is configured to communicate with the first terminal via the network; and a database accessible by the first terminal wherein the database has a plurality of codecs characterised in that the database stores an association of the second terminal with a first codec of the plurality of codecs wherein the first terminal is configured to use an identification of the second terminal to select the first codec from the database and to transmit the data encoded in the first codec to the second terminal via the network after using the contact information to select the first codec from the database.
A method at a network node for transferring inter-UE Transfer, IUT, controller function from a first terminal to a second terminal associated with a network, comprising: obtaining an access type and a media feature tag sent to the network by the second terminal in a P-Access-Network-Info header and a Contact header, respectively, of a Session Initiation Protocol, SIP, REGISTER request, the media feature tag containing an identifier for a registration flow, the media feature tag also containing a label to indicate which access leg to transfer a media type and the access type containing information indicating an access network technology used by the network over which the SIP REGISTER request is routed; storing the identifier of the obtained media feature tag in association with the obtained access type; receiving (101; 801), from the first terminal, a request for a transfer of session control of a session from the first terminal to the second terminal; and in response to receiving the request from the first terminal and determining that the request is to be routed over said access leg, sending (102; 803), over an access network selected according to the access network technology indicated by the obtained access type, a SIP request to the second terminal for a transfer of control of the session from the first terminal to the second terminal, the SIP request including an Accept-Contact header field containing a media feature tag with a value set to the identifier of the obtained media feature tag stored in association with the obtained access type. obtaining an access type and a media feature tag sent to the network by the second terminal in a P-Access-Network-Info header and a Contact header, respectively, of a Session Initiation Protocol, SIP, REGISTER request, the media feature tag containing an identifier for a registration flow, the media feature tag also containing a label to indicate which access leg to transfer a media type and the access type containing information indicating an access network technology used by the network over which the SIP REGISTER request is routed; storing the identifier of the obtained media feature tag in association with the obtained access type; receiving (101; 801), from the first terminal, a request for a transfer of session control of a session from the first terminal to the second terminal; and in response to receiving the request from the first terminal and determining that the request is to be routed over said access leg, sending (102; 803), over an access network selected according to the access network technology indicated by the obtained access type, a SIP request to the second terminal for a transfer of control of the session from the first terminal to the second terminal, the SIP request including an Accept-Contact header field containing a media feature tag with a value set to the identifier of the obtained media feature tag stored in association with the obtained access type.
A system comprising: a pressurized casing delimiting an enclosure for at least one machine; a cooling device including: a cooling jacket located inside the pressurized casing; at least one removable sealing element (9a, 9b) between the cooling jacket and one of a cooling medium inlet or outlet pipe (10, 11) located outside the pressurized casing, characterised in that the removable sealing element (9a, 9b) comprises inner and outer cylindrical pieces (12, 13) extending coaxially through the casing and a flange attached to the casing for maintaining the cylindrical pieces (12, 13), the inner cylindrical piece allowing the cooling medium circulation between the cooling jacket and one of the cooling medium inlet or outlet pipe, the removable sealing element comprising a cooling medium sealing barrier including a sealing device located between the inner cylindrical piece and the cooling jacket, and a gas sealing barrier including a sealing device located between the outer cylindrical piece and the cooling jacket. a pressurized casing delimiting an enclosure for at least one machine; a cooling device including: a cooling jacket located inside the pressurized casing; at least one removable sealing element (9a, 9b) between the cooling jacket and one of a cooling medium inlet or outlet pipe (10, 11) located outside the pressurized casing, characterised in that the removable sealing element (9a, 9b) comprises inner and outer cylindrical pieces (12, 13) extending coaxially through the casing and a flange attached to the casing for maintaining the cylindrical pieces (12, 13), the inner cylindrical piece allowing the cooling medium circulation between the cooling jacket and one of the cooling medium inlet or outlet pipe, the removable sealing element comprising a cooling medium sealing barrier including a sealing device located between the inner cylindrical piece and the cooling jacket, and a gas sealing barrier including a sealing device located between the outer cylindrical piece and the cooling jacket. a cooling jacket located inside the pressurized casing; at least one removable sealing element (9a, 9b) between the cooling jacket and one of a cooling medium inlet or outlet pipe (10, 11) located outside the pressurized casing, characterised in that the removable sealing element (9a, 9b) comprises inner and outer cylindrical pieces (12, 13) extending coaxially through the casing and a flange attached to the casing for maintaining the cylindrical pieces (12, 13), the inner cylindrical piece allowing the cooling medium circulation between the cooling jacket and one of the cooling medium inlet or outlet pipe, the removable sealing element comprising a cooling medium sealing barrier including a sealing device located between the inner cylindrical piece and the cooling jacket, and a gas sealing barrier including a sealing device located between the outer cylindrical piece and the cooling jacket.
A heating appliance comprising a housing with a combustion chamber divided into an ignition chamber arranged in the lower part of the housing, a gasifying chamber separated from the ignition chamber with a grill and arranged thereabove, a flue communicated with the gasifying chamber, and an ignition device arranged within the ignition chamber, characterized in that it further comprises a fuel feeding device and an air supply duct for supplying air to the ignition chamber, the upper part of the gasifying chamber is communicated with the area under the grill through a gas circulation channel defined by a double circuit water-jacket provided between the gasifying chamber and the housing, and at least one iron meshwork cartridge is located under the grill.
A method for producing a concave diffraction grating, the method comprising: forming a mold (3, 5) with the steps of: forming grating grooves (31, 51) of a sawtooth shape with constant blaze angle on a planar substrate by photo-lithography and etching or machining and making a spacing between grating grooves to arithmetically increase in a blaze direction, so as to prepare a planar diffraction grating substrate; installing a concave substrate (35, 55) so that a concave surface thereof faces a surface of the planar substrate on which the grating grooves are formed, installing a convex substrate (34, 54) with an adhesive layer (33, 53) so that a convex surface faces an opposite surface of the surface of the planar substrate on which the grating grooves are formed; imitating the surface of the planar diffraction grating substrate, on which the grating grooves are formed, onto the concave substrate, and bonding the planar diffraction grating substrate to the convex substrate by the adhesive layer; and detaching the concave substrate, and then removing an outer peripheral portion which is outside the convex surface of the convex substrate in the planar diffraction grating substrate, so as to form a mold (3, 5) of a concave diffraction grating having a spherical concave surface; and forming the concave diffraction grating with a step of transferring the mold (3, 5) of the concave diffraction grating to a surface of metal or resin. forming grating grooves (31, 51) of a sawtooth shape with constant blaze angle on a planar substrate by photo-lithography and etching or machining and making a spacing between grating grooves to arithmetically increase in a blaze direction, so as to prepare a planar diffraction grating substrate; installing a concave substrate (35, 55) so that a concave surface thereof faces a surface of the planar substrate on which the grating grooves are formed, installing a convex substrate (34, 54) with an adhesive layer (33, 53) so that a convex surface faces an opposite surface of the surface of the planar substrate on which the grating grooves are formed; imitating the surface of the planar diffraction grating substrate, on which the grating grooves are formed, onto the concave substrate, and bonding the planar diffraction grating substrate to the convex substrate by the adhesive layer; and detaching the concave substrate, and then removing an outer peripheral portion which is outside the convex surface of the convex substrate in the planar diffraction grating substrate, so as to form a mold (3, 5) of a concave diffraction grating having a spherical concave surface; and forming the concave diffraction grating with a step of transferring the mold (3, 5) of the concave diffraction grating to a surface of metal or resin.
A method performed by data processing apparatus, the method comprising: obtaining a selection of a single image from among a plurality of duplicate images (125, 125', 125"), each duplicate image having an associated set of metadata, wherein at least two of the associated sets of metadata include distinct attribute values; automatically aggregating each set of metadata into aggregated metadata; and storing the selected image together with the automatically aggregated metadata on data storage accessible to the data processing apparatus. obtaining a selection of a single image from among a plurality of duplicate images (125, 125', 125"), each duplicate image having an associated set of metadata, wherein at least two of the associated sets of metadata include distinct attribute values; automatically aggregating each set of metadata into aggregated metadata; and storing the selected image together with the automatically aggregated metadata on data storage accessible to the data processing apparatus.
A method comprising: measuring input electric current that is input into an electrically controlled valve to change a position of the electrically controlled valve; measuring output electric current that is output from the electrically controlled valve in response to the input electric current being input into the electrically controlled valve; generating position signals using a sensor coupled with the electrically controlled valve, the position signals indicative of the position of the electrically controlled valve; characterized by calculating baseline values associated with the input electric current, the output electric current, and the position signals, wherein the baseline values are based on measured input electric current values, measured output electric current values, and measured position signal values repeatedly sampled during a prior moving time window; and determining a health state of the electrically controlled valve by comparing the baseline values associated with the input electric current, the output electric current, and the position signals with subsequently measured values associated with the input electric current, the output electric current, and the position signals. measuring input electric current that is input into an electrically controlled valve to change a position of the electrically controlled valve; measuring output electric current that is output from the electrically controlled valve in response to the input electric current being input into the electrically controlled valve; generating position signals using a sensor coupled with the electrically controlled valve, the position signals indicative of the position of the electrically controlled valve; characterized by calculating baseline values associated with the input electric current, the output electric current, and the position signals, wherein the baseline values are based on measured input electric current values, measured output electric current values, and measured position signal values repeatedly sampled during a prior moving time window; and determining a health state of the electrically controlled valve by comparing the baseline values associated with the input electric current, the output electric current, and the position signals with subsequently measured values associated with the input electric current, the output electric current, and the position signals.