mhurhangee/ep-ind-claims huggingface dataset:
A gasket arrangement for sealing between two corrugated heat transfer plates of a plate heat exchanger, the heat transfer plates each comprising a set of port holes (62A 62B 62C 62D), the gasket arrangement comprising: an annular sealing part (18' 32' 42') being arranged to enclose the set of portholes (62A 62B 62C 62D) of the heat transfer plates and define a flow path between the port holes of the set of port holes (62A 62B 62C 62D), and an attachment part connected to an inside of the annular sealing part (18' 32' 42') at a first point and extending in an inwards direction relative to the annular sealing part (18' 32' 42'), the attachment part extending less than 1/2 of the distance between the first point and a second point located on the inside of the annular sealing part (18' 32' 42') opposite the first point, the attachment part defining a gasket attachment surface arranged to attach by an adhesive to a corresponding plate attachment surface (46") of one of the heat transfer plates characterized in that the annular sealing part (18' 32' 42') extends along a straight line at the location of the attachment part, the attachment part extends in an oblique angle relative to the extension of the annular sealing part (18' 32' 42') at the attachment part. an annular sealing part (18' 32' 42') being arranged to enclose the set of portholes (62A 62B 62C 62D) of the heat transfer plates and define a flow path between the port holes of the set of port holes (62A 62B 62C 62D), and an attachment part connected to an inside of the annular sealing part (18' 32' 42') at a first point and extending in an inwards direction relative to the annular sealing part (18' 32' 42'), the attachment part extending less than 1/2 of the distance between the first point and a second point located on the inside of the annular sealing part (18' 32' 42') opposite the first point, the attachment part defining a gasket attachment surface arranged to attach by an adhesive to a corresponding plate attachment surface (46") of one of the heat transfer plates characterized in that the annular sealing part (18' 32' 42') extends along a straight line at the location of the attachment part, the attachment part extends in an oblique angle relative to the extension of the annular sealing part (18' 32' 42') at the attachment part.
A wireless communication apparatus comprising: a transmission unit configured to transmit a first wireless signal; a reception unit configured to receive a second wireless signal; an influence degree estimation unit configured to extract a characteristic amount from transmission data of the first wireless signal to be transmitted and from reception data of the second wireless signal, and to estimate an influence degree given to a surrounding terminal station by transmission data at a present transmission power from the transmission unit based on the characteristic amount; and a transmission power control unit configured to control the transmission power of the transmission unit based on the influence degree, wherein a signal detection capability in the reception unit is controlled in accordance with a change in the transmission power of the transmission unit, wherein the influence degree estimation unit is configured to raise a threshold of signal detection in a demodulation unit within the reception unit, at the time when reducing the transmission power, and to balance between a receivable range of the reception unit and a transmittable range of the transmission unit, wherein the influence degree estimation unit is furthermore configured to measure a traffic amount to be handled by the transmission unit and the reception unit as the influence degree, wherein the traffic amount is measured by counting the number of packets or a size of packet to be transmitted and received by the transmission unit and the reception unit. a transmission unit configured to transmit a first wireless signal; a reception unit configured to receive a second wireless signal; an influence degree estimation unit configured to extract a characteristic amount from transmission data of the first wireless signal to be transmitted and from reception data of the second wireless signal, and to estimate an influence degree given to a surrounding terminal station by transmission data at a present transmission power from the transmission unit based on the characteristic amount; and a transmission power control unit configured to control the transmission power of the transmission unit based on the influence degree, wherein a signal detection capability in the reception unit is controlled in accordance with a change in the transmission power of the transmission unit, wherein the influence degree estimation unit is configured to raise a threshold of signal detection in a demodulation unit within the reception unit, at the time when reducing the transmission power, and to balance between a receivable range of the reception unit and a transmittable range of the transmission unit, wherein the influence degree estimation unit is furthermore configured to measure a traffic amount to be handled by the transmission unit and the reception unit as the influence degree, wherein the traffic amount is measured by counting the number of packets or a size of packet to be transmitted and received by the transmission unit and the reception unit.
A computer-implemented method, comprising: launching, within a web view, a web based application, the web view executing the web based application within a first security domain; receiving a request from the web based application to display a user interface, the request indicating one or more criteria for the requested user interface; retrieving user data based on the request via a second security domain, wherein the user data is inaccessible from the first security domain; identifying a user interface to display based on one or more criteria and the user data; displaying, within a session of a user account, the identified user interface (604, 606); monitoring user interaction with the displayed user interface to generate display results; and generating a response to the web based application, the response indicating at least one display result of the monitoring, characterized in that: the displayed user interface plays a video, and wherein the monitoring of the user interaction determines one or more of: whether the video is watched in its entirety, whether one or more portions of the video are skipped based on user input, and whether the user interface is canceled. launching, within a web view, a web based application, the web view executing the web based application within a first security domain; receiving a request from the web based application to display a user interface, the request indicating one or more criteria for the requested user interface; retrieving user data based on the request via a second security domain, wherein the user data is inaccessible from the first security domain; identifying a user interface to display based on one or more criteria and the user data; displaying, within a session of a user account, the identified user interface (604, 606); monitoring user interaction with the displayed user interface to generate display results; and generating a response to the web based application, the response indicating at least one display result of the monitoring, characterized in that: the displayed user interface plays a video, and wherein the monitoring of the user interaction determines one or more of: whether the video is watched in its entirety, whether one or more portions of the video are skipped based on user input, and whether the user interface is canceled. whether the video is watched in its entirety, whether one or more portions of the video are skipped based on user input, and whether the user interface is canceled.
A process for liquefying one or more cereal proteins, comprising the steps of: a) Providing a composition comprising one or more cereal proteins, said composition having a dry substance of from 5 to 40 % by weight of the composition and said composition being in the form of one or more visco-elastic lumps; then b) Adding one or more hydrolytic enzymes and/or processing aids to the composition; then c) Optionally pre-conditioning the composition; then d) Homogenizing the composition, wherein the product leaving the liquefaction process is liquefied and homogeneous and no more lumps are present, characterized in that the process is a continuous plug flow process. a) Providing a composition comprising one or more cereal proteins, said composition having a dry substance of from 5 to 40 % by weight of the composition and said composition being in the form of one or more visco-elastic lumps; then b) Adding one or more hydrolytic enzymes and/or processing aids to the composition; then c) Optionally pre-conditioning the composition; then d) Homogenizing the composition,
A method for manufacturing the active plate of a flat matrix display screen, in which each cell comprises an electrode plate (1; 81) connected by a transistor (2; 82) to a first conductive line, characterized in that it comprises the steps of: providing an outgrowth (11; 92) coated with an insulator of each first conductive line at the level of each cell; etching or making porous an end portion of each outgrowth; laterally growing, by a VLS method, a PIP or NIN semiconductor structure in each end portion which has been etched or made porous; and establishing a contact at the free end of the semiconductor structure and forming a gate at the level of the median portion of the semiconductor structure. providing an outgrowth (11; 92) coated with an insulator of each first conductive line at the level of each cell; etching or making porous an end portion of each outgrowth; laterally growing, by a VLS method, a PIP or NIN semiconductor structure in each end portion which has been etched or made porous; and establishing a contact at the free end of the semiconductor structure and forming a gate at the level of the median portion of the semiconductor structure.
Tray for taking an impression of at least partial regions of the upper and lower jaw of a patient comprising at least two tray parts (1, 2, 14, 31, 32), whereby at least one marking (8, 18, 38, 48) is arranged on the surface of each tray part and enables the determination of the position and orientation of the markings (8, 18, 38, 48) and tray parts (1, 2, 14, 31, 32) with respect to each other, at least one tray part (2, 32) for the upper jaw and at least one tray part (1, 31) for the lower jaw are provided, whereby the tray parts (1, 2, 31, 32) can be placed at a distance from each other by means of a screw or a pin (20, 50), wherein the pin (20, 50), comprising a mobile pestle (20, 50) that is supported against the tray part (1, 2, 31, 32) as in a bearing in spring-loaded manner, or the screw are arranged on one of the tray parts (1, 2, 31, 32), whereby the other tray part (1, 2, 31, 32) comprises a recess (22, 52) for accommodation of the tip of the screw or tip of the pestle (20, 50).
A wireless sensor network (10; 54) comprising: a plurality of wireless sensors (12a, 12b) that sense at least one parameter and transmit sensor signals representative of the at least one parameter sensed; and a wireless data concentrator (26; 64) that receives the sensor signals and adjusts the transmission schedules of at least one of the plurality of wireless sensors (12a, 12b) based on a change in operating status of at least another one or more of the plurality of wireless sensors (12a, 12b); characterised in that: the wireless data concentrator (26; 64) adjusts the transmission schedule of the at least one of the plurality of wireless sensors (12a, 12b) by increasing a transmission rate of the at least one of the plurality of wireless sensors (12a, 12b) in response to the operating status of another one or more wireless sensors (12a, 12b) changing from an operative state to an inoperative state, wherein the at least one of the plurality of sensors (12a, 12b) and the other one or more wireless sensors (12a, 12b) redundantly sense at least one parameter of a same region. a plurality of wireless sensors (12a, 12b) that sense at least one parameter and transmit sensor signals representative of the at least one parameter sensed; and a wireless data concentrator (26; 64) that receives the sensor signals and adjusts the transmission schedules of at least one of the plurality of wireless sensors (12a, 12b) based on a change in operating status of at least another one or more of the plurality of wireless sensors (12a, 12b);
A system comprising: - a radiation source configured to deliver radiation towards an object, wherein the radiation is X-ray radiation or gamma ray radiation; - a radiation detector configured to detect the radiation; and - an apparatus for tuning an effective focal spot size of the radiation source, the apparatus comprising: - a plurality of column structures (214, 314) defining a plurality of channels (216, 316) passing through the apparatus from a first surface (218, 318) to a second surface (220, 320), wherein the column structures (214, 314) comprise a first substance, the channels (216, 316) include a second substance, the first substance attenuates the radiation more than the second substance, and the column structures (214, 314) define the channels (216, 316) such that lines passing through the channels (216, 316) converge, and - a motion system configured to move the apparatus, characterized in that the motion system is configured to nutate the apparatus such that the column structures (214, 314) do not continuously cast shadows at locations on a radiation detector to assist in the removal of fixed patterning within an image, and wherein the motion system is configured to cant or tilt the apparatus to adjust the size of the effective focal spot. - a radiation source configured to deliver radiation towards an object, wherein the radiation is X-ray radiation or gamma ray radiation; - a radiation detector configured to detect the radiation; and - an apparatus for tuning an effective focal spot size of the radiation source, the apparatus comprising: - a plurality of column structures (214, 314) defining a plurality of channels (216, 316) passing through the apparatus from a first surface (218, 318) to a second surface (220, 320), wherein the column structures (214, 314) comprise a first substance, the channels (216, 316) include a second substance, the first substance attenuates the radiation more than the second substance, and the column structures (214, 314) define the channels (216, 316) such that lines passing through the channels (216, 316) converge, and - a motion system configured to move the apparatus, characterized in that - a plurality of column structures (214, 314) defining a plurality of channels (216, 316) passing through the apparatus from a first surface (218, 318) to a second surface (220, 320), wherein the column structures (214, 314) comprise a first substance, the channels (216, 316) include a second substance, the first substance attenuates the radiation more than the second substance, and the column structures (214, 314) define the channels (216, 316) such that lines passing through the channels (216, 316) converge, and - a motion system configured to move the apparatus, characterized in that the motion system is configured to nutate the apparatus such that the column structures (214, 314) do not continuously cast shadows at locations on a radiation detector to assist in the removal of fixed patterning within an image, and wherein the motion system is configured to cant or tilt the apparatus to adjust the size of the effective focal spot.
Endoscopic needle holder for handling curved needles comprising a translatable core, a remote actuation mechanism provided at one of the ends of the needle door, and at the other end an articulated assembly comprising a first gripping jaw secured to a duct and a second gripping jaw actuated by said movable core: - said jaws (100, 200) consist of cylindrical parts which are coaxial with said movable core - said first jaw has a plurality of peripheral teeth (120, 130, 140) which extend longitudinally, - said second jaw consists of a cylindrical part having a plurality of peripheral teeth (220, 230, 240) - said second jaw is movable relative to the first jaw by a longitudinal linear movement between a rest position in which the jaws (100, 200) are spaced apart to delimit, between the ends of the teeth, an interval which is at least equal to the cross-section of a needle, and a close position in which they support the curved needle, characterized in that said jaws (100, 200) have alternating peripheral teeth and peripheral grooves (150, 160, 170; 250, 260, 270) having shapes and positions which are complementary to the teeth of the opposite jaw. - said jaws (100, 200) consist of cylindrical parts which are coaxial with said movable core - said first jaw has a plurality of peripheral teeth (120, 130, 140) which extend longitudinally, - said second jaw consists of a cylindrical part having a plurality of peripheral teeth (220, 230, 240) - said second jaw is movable relative to the first jaw by a longitudinal linear movement between a rest position in which the jaws (100, 200) are spaced apart to delimit, between the ends of the teeth, an interval which is at least equal to the cross-section of a needle, and a close position in which they support the curved needle,
Method for operating a position determination system for a mobile unit; in which map data are provided, which comprise position information for first landmarks of a first landmark type; environment data are collected; a position of the mobile unit is determined; training data are generated and stored based on the position of the mobile unit, the collected environment data and the position information for the first landmarks; on the basis of the training data, a first detector module for detecting landmarks of the first landmark type on the basis of the collected environment data is generated, wherein the first detector module is generated by means of a machine learning method, characterized in that when generating the first detector module, a correlation is determined for the training data and it is tested whether the correlation exceeds a threshold value, wherein the machine learning method used is based on comparing portions of the environment data comprised by the training data with each other and/or with negative examples without the landmarks, and determining correlations. map data are provided, which comprise position information for first landmarks of a first landmark type; environment data are collected; a position of the mobile unit is determined; training data are generated and stored based on the position of the mobile unit, the collected environment data and the position information for the first landmarks; on the basis of the training data, a first detector module for detecting landmarks of the first landmark type on the basis of the collected environment data is generated, wherein the first detector module is generated by means of a machine learning method, when generating the first detector module, a correlation is determined for the training data and it is tested whether the correlation exceeds a threshold value, wherein the machine learning method used is based on comparing portions of the environment data comprised by the training data with each other and/or with negative examples without the landmarks, and determining correlations.
A light source device, comprising: a light source (131, 131a, 131b) for generating incoherent light; and an optical amplifier (132, 132a, 132b, 132c) having gain characteristics indicating a gain at each wavelength, the optical amplifier receiving the incoherent light as input light and outputting amplified light obtained by amplifying an intensity of the input light, wherein a central wavelength of an intensity distribution indicating the intensity at each wavelength of the input light is a wavelength longer than a central wavelength of the gain characteristics, wherein the device is configured such that, in operation: - the input light includes light with an intensity at which the optical amplifier is saturated in the gain, - the input light comprises said intensity for which light amplification in the optical amplifier is saturated over a wavelength region, which corresponds to a saturation wavelength region of the light amplification in the optical amplifier, and - the saturation wavelength region of the light amplification wider than a wavelength region in which the input light has an intensity for which light amplification in the optical amplifier is not saturated. a light source (131, 131a, 131b) for generating incoherent light; and an optical amplifier (132, 132a, 132b, 132c) having gain characteristics indicating a gain at each wavelength, the optical amplifier receiving the incoherent light as input light and outputting amplified light obtained by amplifying an intensity of the input light, wherein a central wavelength of an intensity distribution indicating the intensity at each wavelength of the input light is a wavelength longer than a central wavelength of the gain characteristics, wherein the device is configured such that, in operation: - the input light includes light with an intensity at which the optical amplifier is saturated in the gain, - the input light comprises said intensity for which light amplification in the optical amplifier is saturated over a wavelength region, which corresponds to a saturation wavelength region of the light amplification in the optical amplifier, and - the saturation wavelength region of the light amplification wider than a wavelength region in which the input light has an intensity for which light amplification in the optical amplifier is not saturated. - the input light includes light with an intensity at which the optical amplifier is saturated in the gain, - the input light comprises said intensity for which light amplification in the optical amplifier is saturated over a wavelength region, which corresponds to a saturation wavelength region of the light amplification in the optical amplifier, and - the saturation wavelength region of the light amplification wider than a wavelength region in which the input light has an intensity for which light amplification in the optical amplifier is not saturated.