mhurhangee/ep-ind-claims huggingface dataset:
A delivery apparatus for delivering to multiple areas wherein one or more radio communication systems are available in each of the areas, comprising: a storage unit configured to store system information for each of the areas, the system information being required to connect to the available radio communication systems; a detection unit configured to detect a second delivery apparatus for delivering to a portion of the delivery areas of the delivery station; and a delivery unit configured to deliver system information for each of the areas as control information, the system information being required to connect to a radio communication system available in the area, wherein if the detection unit detects the second delivery apparatus, the delivery unit delivers system information as the control information, the system information in the storage unit excluding a portion of the system information required to connect to a radio communication system available in an area where the second delivery apparatus is responsible for delivering the control information. a storage unit configured to store system information for each of the areas, the system information being required to connect to the available radio communication systems; a detection unit configured to detect a second delivery apparatus for delivering to a portion of the delivery areas of the delivery station; and a delivery unit configured to deliver system information for each of the areas as control information, the system information being required to connect to a radio communication system available in the area, wherein if the detection unit detects the second delivery apparatus, the delivery unit delivers system information as the control information, the system information in the storage unit excluding a portion of the system information required to connect to a radio communication system available in an area where the second delivery apparatus is responsible for delivering the control information.
A two-phase type heat transfer device comprising an evaporator collecting heat from a heat source, a condenser providing heat to a cold sink and liquid and vapor transport lines (25, 27) of a first working fluid connected to the evaporator and the condenser, characterized in that: - the operating temperature of the heat source ranges between T1 and T2, being T1 >75oC and T2-T1>100oC; - the first working fluid has a critical point T c1 greater than T1 and smaller than T2 and a freezing point T f smaller than a minimum environmental external temperature T3 set for the heat transfer device; - the evaporator is arranged inside a saddle configured for avoiding that the temperature of the first working fluid in the evaporator is greater than T c1. - the operating temperature of the heat source ranges between T1 and T2, being T1 >75oC and T2-T1>100oC; - the first working fluid has a critical point T c1 greater than T1 and smaller than T2 and a freezing point T f smaller than a minimum environmental external temperature T3 set for the heat transfer device; - the evaporator is arranged inside a saddle configured for avoiding that the temperature of the first working fluid in the evaporator is greater than T c1.
- Single-lever tap (1; 1'), normally used for showers or built-in installations, wherein it includes means for opening and closing the water outlet and draining the single-lever tap, incorporating a perforation being different from the water outlet for the external drainage of the water retained in the pipes, and wherein it further includes a cartridge with drainage means, the cartridge comprising a drive block coupled in a housing, a movable ceramic disc linked to the drive block and to a fixed lower ceramic disc and a closing base with three openings and sealing gasket, wherein the fixed lower ceramic disc, comprises a through-hole for hot water inlet and a through-hole for cold water inlet, positioned very close to their external diameter, and slightly separated from each other, a through-hole for water outlet, positioned around its geometric centre and a water drain, characterised in that the drainage means are side drainage means, that the water drain on the fixed lower ceramic disc is configured as a circular segment, positioned in line with the outlet through-hole and centred with the slanted through-holes (14 and 14') of the water inlet, and that the movable ceramic disc comprises a slanted cavity, centred with a water drainage through-hole and with the water drain, wherein the water drain of the fixed lower ceramic disc communicates to the outside through slots positioned around the contour of the housing in communication with a perforation in the single-lever tap (1-1').
An ophthalmic apparatus, comprising: fundus image acquisition means configured to acquire a first number of fundus images by imaging a fundus of a subject's eye at different times and a second number of fundus images that is smaller than the first number of fundus images and which is acquired by imaging the fundus of the subject's eye at at least one different time from the first number of fundus images; means configured to generate a new fundus image by averaging the first number of fundus images; extraction means configured to extract a feature region from the generated new fundus image; and means (195, 107, 110) configured to track the fundus such that positions of a first polarization tomographic image of the fundus corresponding to the new fundus image and a second polarization tomographic image of the fundus corresponding to the second number of fundus images may be corrected on the basis of the extracted feature region and the second number of fundus images. fundus image acquisition means configured to acquire a first number of fundus images by imaging a fundus of a subject's eye at different times and a second number of fundus images that is smaller than the first number of fundus images and which is acquired by imaging the fundus of the subject's eye at at least one different time from the first number of fundus images; means configured to generate a new fundus image by averaging the first number of fundus images; extraction means configured to extract a feature region from the generated new fundus image; and means (195, 107, 110) configured to track the fundus such that positions of a first polarization tomographic image of the fundus corresponding to the new fundus image and a second polarization tomographic image of the fundus corresponding to the second number of fundus images may be corrected on the basis of the extracted feature region and the second number of fundus images.
A vertical roller mill, comprising: a rotary table having a grinding surface; a grinding roller for biting and grinding a material between the grinding surface and the grinding roller; and a scraper for adjusting a layer thickness of the material supplied to the grinding roller, wherein the scraper has: a scraper body separately arranged above the grinding surface; a mobilizing means for allowing the scraper body to move in a direction away from the grinding surface; and a resistance adding means for adding a resistance force to a movement of the scraper body in the direction away from the grinding surface, wherein the scraper body has a contact surface with the material, and wherein the contact surface is oriented obliquely downward in a stationary state of the scraper body. a rotary table having a grinding surface; a grinding roller for biting and grinding a material between the grinding surface and the grinding roller; and a scraper for adjusting a layer thickness of the material supplied to the grinding roller, wherein the scraper has: a scraper body separately arranged above the grinding surface; a mobilizing means for allowing the scraper body to move in a direction away from the grinding surface; and a resistance adding means for adding a resistance force to a movement of the scraper body in the direction away from the grinding surface, a scraper body separately arranged above the grinding surface; a mobilizing means for allowing the scraper body to move in a direction away from the grinding surface; and a resistance adding means for adding a resistance force to a movement of the scraper body in the direction away from the grinding surface, wherein the scraper body has a contact surface with the material, and wherein the contact surface is oriented obliquely downward in a stationary state of the scraper body.
Mini gamma camera based on scintillation crystal technology, comprising: • an interchangeable gamma ray collimation system; • a gamma ray detector system comprising a scintillation crystal and at least one position sensitive photodetector; wherein the scintillation crystal transduces energy from the gamma ray, generating visible light photons, which are detected by the photodetector; • an anti-radiation screen; • processing electronics that include a standard computer interface, the processing electronics receive the output signals from the photodetector; and, • an electromagnetic screen; wherein the scintillation crystal is of the continuous type, the mini gamma camera being characterized in that the scintillation crystal comprises several layers, and in that the gamma ray detector system further comprises a system for focusing the scintillation light comprising several layers of focusers wherein the layers of focusers and scintillators are positioned alternately in the direction in which the gamma rays enter. • an interchangeable gamma ray collimation system; • a gamma ray detector system comprising a scintillation crystal and at least one position sensitive photodetector; wherein the scintillation crystal transduces energy from the gamma ray, generating visible light photons, which are detected by the photodetector; • an anti-radiation screen; • processing electronics that include a standard computer interface, the processing electronics receive the output signals from the photodetector; and, • an electromagnetic screen;
A method for producing a frame of an electric machine, the method comprising producing frame modules having an arc-shaped inner surface, the frame modules extending in the axial direction (X-X) over a length of the frame and in the circumferential direction over a portion of the circumference of the frame, each frame module comprising at least one axial cooling duct passing in the axial direction through the frame module, determining the IEC frame number to be produced, determining N, where N = 8 for a frame size IEC 160, N = 9 for a frame size IEC 180 and N = 10 for a frame size IEC 200, etc..., positioning N identical frame modules adjacent to each other so that the arc-shaped inner surface of the frame modules seats on an inner circumference of the frame, welding adjacent frame modules to each other from the edges (53, 54) of the frame modules by welding the opposite side edges (53, 54), in the circumferential direction, of adjacent frame modules together along the axial length of the side edges (53, 54) of the frame modules in order to form a continuous circular frame, machining an inner surface of the frame in order to achieve a circular inner opening of a desired diameter in the frame, whereby an inner diameter of the frame is determined according to the following equation D = 20 * N mm and wherein an arc-length of the arc-shaped inner surface of the frame modules is π * 20 mm. producing frame modules having an arc-shaped inner surface, the frame modules extending in the axial direction (X-X) over a length of the frame and in the circumferential direction over a portion of the circumference of the frame, each frame module comprising at least one axial cooling duct passing in the axial direction through the frame module, determining the IEC frame number to be produced, determining N, where N = 8 for a frame size IEC 160, N = 9 for a frame size IEC 180 and N = 10 for a frame size IEC 200, etc..., positioning N identical frame modules adjacent to each other so that the arc-shaped inner surface of the frame modules seats on an inner circumference of the frame, welding adjacent frame modules to each other from the edges (53, 54) of the frame modules by welding the opposite side edges (53, 54), in the circumferential direction, of adjacent frame modules together along the axial length of the side edges (53, 54) of the frame modules in order to form a continuous circular frame, machining an inner surface of the frame in order to achieve a circular inner opening of a desired diameter in the frame, whereby an inner diameter of the frame is determined according to the following equation D = 20 * N mm and wherein an arc-length of the arc-shaped inner surface of the frame modules is π * 20 mm.
A method comprising: predicting a future request for data stored on an implantable medical device; detecting that a telemetry session between the IMD and an external device comprises available bandwidth; and characterized by automatically transferring data that is predicted to be requested in the future from the IMD to the external device via the available bandwidth of the telemetry session. predicting a future request for data stored on an implantable medical device; detecting that a telemetry session between the IMD and an external device comprises available bandwidth; and characterized by automatically transferring data that is predicted to be requested in the future from the IMD to the external device via the available bandwidth of the telemetry session.
An airbag of an electronic blood pressure monitor, wherein the airbag comprises an outer wall and at least one connection wall (391, 392, 393, 394); the outer wall comprises a first wall, a peripheral side wall, and a second wall; the first wall and the second wall are disposed opposite to each other; the peripheral side wall is connected to a periphery of the first wall and a periphery of the second wall; the first wall, the peripheral side wall, and the second wall form an air chamber; characterized in that the at least one connection wall (391, 392, 393, 394) is located in the air chamber; each connection wall (391, 392, 393, 394) is connected to the peripheral side wall and the first wall or to the peripheral side wall and the second wall; and each connection wall (391, 392, 393, 394) is configured to be tensed when the airbag is in an expanded state. the airbag comprises an outer wall and at least one connection wall (391, 392, 393, 394); the outer wall comprises a first wall, a peripheral side wall, and a second wall; the first wall and the second wall are disposed opposite to each other; the peripheral side wall is connected to a periphery of the first wall and a periphery of the second wall; the first wall, the peripheral side wall, and the second wall form an air chamber; characterized in that the at least one connection wall (391, 392, 393, 394) is located in the air chamber; each connection wall (391, 392, 393, 394) is connected to the peripheral side wall and the first wall or to the peripheral side wall and the second wall; and each connection wall (391, 392, 393, 394) is configured to be tensed when the airbag is in an expanded state.
A communication method, in which a first apparatus receives data via a direct route from a second apparatus and transmits in response an acknowledgement signal, wherein if the same data has also been transmitted via an indirect route and the data is not properly received via the direct route, the first apparatus introduces an indirect-route delay in transmitting the acknowledgement signal to allow receipt of the data via the indirect route, and otherwise no indirect-route delay is introduced, characterised in that the first apparatus only introduces an indirect-route delay if the same data has also been transmitted via an indirect route, the data is not properly received via the direct route and the quality of service requirements in operation allow such a delay.
An annular valve comprising an annular valve member and inner and outer valve seats (12, 14), the annular valve member having a seat-facing surface which faces the annular valve seats, either the seat-facing surface of the annular valve member or the inner valve seat comprising an annular inner sealing ridge, either the seat-facing surface of the annular valve member or the outer valve seat comprising an annular outer sealing ridge, wherein the inner sealing ridge is more resistant to plastic deformation than the outer sealing ridge, characterized in that the inner sealing ridge is formed, at least in part, from a material which is harder than the material or materials from which the outer sealing ridge is formed.
An apparatus including: a portable chamber, comprising: a radiation source; (i) a load board slot configured for: holding a load board configured to hold a device under test; and (ii) electrically connecting the load board to an automatic testing equipment; and at least one movable device for positioning the load board slot relative to the radiation source; wherein said chamber, connected to the automatic testing equipment, is configured to construct and operate one or more different soft errors testing of the DUT; wherein said soft errors testing comprises, while selectively exposing the DUT to radiation: a) supplying said DUT with voltages for proper operation; b) receiving a response to said supplying as output from the DUT; c) counting soft errors in the response; the apparatus is characterised by a motion control configured to receive instructions and control the at least one movable device according to the received instructions, wherein the motion control is configured to position the load board slot relative to the radiation source according to at least one of the following parameters: (i) a size of the DUT; and/or (ii) the amount of radiation detected by a detector. a portable chamber, comprising: a radiation source; (i) a load board slot configured for: holding a load board configured to hold a device under test; and (ii) electrically connecting the load board to an automatic testing equipment; and at least one movable device for positioning the load board slot relative to the radiation source; a radiation source; (i) a load board slot configured for: holding a load board configured to hold a device under test; and (ii) electrically connecting the load board to an automatic testing equipment; and at least one movable device for positioning the load board slot relative to the radiation source; (i) a load board slot configured for: holding a load board configured to hold a device under test; and (ii) electrically connecting the load board to an automatic testing equipment; and wherein said chamber, connected to the automatic testing equipment, is configured to construct and operate one or more different soft errors testing of the DUT; wherein said soft errors testing comprises, while selectively exposing the DUT to radiation: a) supplying said DUT with voltages for proper operation; b) receiving a response to said supplying as output from the DUT; c) counting soft errors in the response; the apparatus is characterised by a) supplying said DUT with voltages for proper operation; b) receiving a response to said supplying as output from the DUT; c) counting soft errors in the response; the apparatus is characterised by a motion control configured to receive instructions and control the at least one movable device according to the received instructions, wherein the motion control is configured to position the load board slot relative to the radiation source according to at least one of the following parameters: (i) a size of the DUT; and/or (ii) the amount of radiation detected by a detector.
Circuitry for a terminal device for use with a wireless telecommunications system, the circuitry comprising controller circuitry configured: to conduct a first measurement of a parameter associated with a radio signal transmitted by infrastructure equipment (101, 102) of the wireless telecommunications network and received by a receiver of the terminal device; to determine whether the measured parameter meets a predetermined criteria; and when the measured parameter is determined to meet the predetermined criteria, to conduct a second measurement of a parameter associated with a radio signal transmitted by infrastructure equipment (101, 102) of the wireless telecommunications network and received by the receiver of the terminal device; wherein the first measurement is a measurement of a first parameter associated with a first radio reference signal and the second measurement is a measurement of a second parameter associated with a second radio reference signal; and wherein conducting the second measurement is triggered by the terminal device determining the measured parameter from the first measurement meets the predefined criteria; characterised in that the first radio reference signal is a cell specific reference signal identifying a cell of the wireless telecommunications system and the second radio reference signal is a beam specific reference signal identifying a beam formed within a cell of the wireless telecommunications system. to conduct a first measurement of a parameter associated with a radio signal transmitted by infrastructure equipment (101, 102) of the wireless telecommunications network and received by a receiver of the terminal device; to determine whether the measured parameter meets a predetermined criteria; and when the measured parameter is determined to meet the predetermined criteria, to conduct a second measurement of a parameter associated with a radio signal transmitted by infrastructure equipment (101, 102) of the wireless telecommunications network and received by the receiver of the terminal device; wherein the first measurement is a measurement of a first parameter associated with a first radio reference signal and the second measurement is a measurement of a second parameter associated with a second radio reference signal; and wherein conducting the second measurement is triggered by the terminal device determining the measured parameter from the first measurement meets the predefined criteria; characterised in that the first radio reference signal is a cell specific reference signal identifying a cell of the wireless telecommunications system and the second radio reference signal is a beam specific reference signal identifying a beam formed within a cell of the wireless telecommunications system.
An offshore aquaculture system comprising: a semisubmersible platform comprising buoyancy mechanisms controllable to change buoyancy of the semi-submersible platform and having storage and maintenance facilities for supporting aquaculture, a framework connected to the semisubmersible platform, a plurality of net covered rigid aquaculture cages movably connected by a controllable positioning apparatus to the framework, wherein the cages are vertically movable with respect to the platform, and a control unit arranged to control the positioning apparatus and to determine a depth of the plurality of rigid aquaculture cages in respect to sea level according to sea conditions. a semisubmersible platform comprising buoyancy mechanisms controllable to change buoyancy of the semi-submersible platform and having storage and maintenance facilities for supporting aquaculture, a framework connected to the semisubmersible platform, a plurality of net covered rigid aquaculture cages movably connected by a controllable positioning apparatus to the framework, wherein the cages are vertically movable with respect to the platform, and a control unit arranged to control the positioning apparatus and to determine a depth of the plurality of rigid aquaculture cages in respect to sea level according to sea conditions.