mhurhangee/ep-ind-claims huggingface dataset:
An elevatable building for preventing flood damage including: a foundation permanently set into a ground level surface; a platform; a lifting mechanism associated with the platform, having at least one vertical shaft engageable with a driving means arranged to raise the platform above the ground level surface and away from the foundation; a plurality of walls and a roof assembled on the platform that define a habitable space of the building; an adaptable connection directs utility services from the ground level toward and/or into the habitable space, wherein the adaptable connection adapts to the height from ground level of the platform when it is raised or lowered by the lifting mechanism, thereby enabling utility services to remain connected while the platform is raised above the ground level surface; and characterised in that the at least one vertical shaft is threaded, and the threaded vertical shaft is received above the platform in a condition wherein the building is in its lowermost position, and substantially the entire threaded vertical shaft is hidden from view within the walls, supporting columns or associated cladding of the building. a foundation permanently set into a ground level surface; a platform; a lifting mechanism associated with the platform, having at least one vertical shaft engageable with a driving means arranged to raise the platform above the ground level surface and away from the foundation; a plurality of walls and a roof assembled on the platform that define a habitable space of the building; an adaptable connection directs utility services from the ground level toward and/or into the habitable space, wherein the adaptable connection adapts to the height from ground level of the platform when it is raised or lowered by the lifting mechanism, thereby enabling utility services to remain connected while the platform is raised above the ground level surface; and characterised in that the at least one vertical shaft is threaded, and the threaded vertical shaft is received above the platform in a condition wherein the building is in its lowermost position, and substantially the entire threaded vertical shaft is hidden from view within the walls, supporting columns or associated cladding of the building.
An apparatus, comprising a processing element configured to cause a wireless device to: establish a radio resource control, RRC, connection with a cellular base station; determine a data inactivity timer length and a target RRC state for implicit RRC transitions, wherein to determine the target RRC state to implicit RRC transitions, the processing element is further configured to cause the wireless device to: provide an indication of a preferred target RRC state to the cellular base station; and receive an indication of the target RRC state from the cellular base station; initiate a data inactivity timer having the determined data inactivity timer length; determine that the data inactivity timer has expired; and transition to the target RRC state based at least in part on determining that the data inactivity timer has expired. establish a radio resource control, RRC, connection with a cellular base station; determine a data inactivity timer length and a target RRC state for implicit RRC transitions, wherein to determine the target RRC state to implicit RRC transitions, the processing element is further configured to cause the wireless device to: provide an indication of a preferred target RRC state to the cellular base station; and receive an indication of the target RRC state from the cellular base station; provide an indication of a preferred target RRC state to the cellular base station; and receive an indication of the target RRC state from the cellular base station; initiate a data inactivity timer having the determined data inactivity timer length; determine that the data inactivity timer has expired; and transition to the target RRC state based at least in part on determining that the data inactivity timer has expired.
Sliding insert element for the upper corner region of a sliding leaf of a lift and slide door, comprising - a sliding shoe portion having an outwardly open, U-shaped cross section and comprising mutually parallel side plates (11.1, 11.2) and a base, wherein at least the inner surfaces of the side plates (11.1, 11.2) form sliding surfaces for at least one positionally fixed guide element and wherein the outwardly pointing side surfaces of the side plates (11.1, 11.2) each have arranged thereon at least one latching and/or guide element along at least one guide line, - and a fastening portion which is positioned at a right angle to the sliding shoe portion and has, on each of its outwardly pointing side surfaces, at least one latching and/or guide element (17, 18) arranged along at least one guide line, wherein the guide lines (15, 16) of the sliding shoe portion and of the fastening portion intersect. - a sliding shoe portion having an outwardly open, U-shaped cross section and comprising mutually parallel side plates (11.1, 11.2) and a base, wherein at least the inner surfaces of the side plates (11.1, 11.2) form sliding surfaces for at least one positionally fixed guide element and wherein the outwardly pointing side surfaces of the side plates (11.1, 11.2) each have arranged thereon at least one latching and/or guide element along at least one guide line, - and a fastening portion which is positioned at a right angle to the sliding shoe portion and has, on each of its outwardly pointing side surfaces, at least one latching and/or guide element (17, 18) arranged along at least one guide line,
Composition for use in therapeutic or prophylactic treatment of an amoebic gill disease in fish by treatment of mucus on fish gills, wherein the composition comprises an extruded fish feed supplemented with arginine; said fish feed comprising protein, binder, fat, vitamins and minerals; and a total arginine content of the fish feed is at least 3.0% (wt/wt) of a total feed weight.
A die (1, 2) for underwater cutting type pelletizer to be used in an underwater cutting type pelletizer for making pellets from a thermoplastic resin derived from a mixer/extruder, the die comprising: an annular die orifice part having a plurality of die orifices for allowing the thermoplastic resin to pass through; an outer periphery-side fixing part provided on the outer periphery side of said die orifice part to fix said die orifice part to the mixer/extruder; an inner periphery-side fixing part provided on the inner periphery side of said die orifice part to fix said die orifice part to the mixer/extruder; an outside annular passage formed within at least one of said die orifice part and said outer periphery-side fixing part along a boundary line between said die orifice part and said outer periphery-side fixing part; an inside annular passage formed within at least one of said die orifice part and said inner periphery-side fixing part along a boundary line between said die orifice part and said inner periphery-side fixing part; a communicating passage formed in an area other than the area where each die orifice is formed within said die orifice part to allow said outside annular passage to communicate with said inside annular passage, thereby circulating heated fluid to said outside annular passage and said inside annular passage to heat said die orifice part; characterized by a heating part provided within said inner periphery-side fixing part along said inside annular passage to heat said inner periphery-side fixing part. an annular die orifice part having a plurality of die orifices for allowing the thermoplastic resin to pass through; an outer periphery-side fixing part provided on the outer periphery side of said die orifice part to fix said die orifice part to the mixer/extruder; an inner periphery-side fixing part provided on the inner periphery side of said die orifice part to fix said die orifice part to the mixer/extruder; an outside annular passage formed within at least one of said die orifice part and said outer periphery-side fixing part along a boundary line between said die orifice part and said outer periphery-side fixing part; an inside annular passage formed within at least one of said die orifice part and said inner periphery-side fixing part along a boundary line between said die orifice part and said inner periphery-side fixing part; a communicating passage formed in an area other than the area where each die orifice is formed within said die orifice part to allow said outside annular passage to communicate with said inside annular passage, thereby circulating heated fluid to said outside annular passage and said inside annular passage to heat said die orifice part; characterized by a heating part provided within said inner periphery-side fixing part along said inside annular passage to heat said inner periphery-side fixing part.
An optical module, comprising: a housing (111, 112); a first circuit board layer being disposed in the housing (111, 112); a second circuit board layer being disposed in the housing (111, 112) and comprising a first substrate and a first flexible circuit board disposed on the first substrate, wherein a circuit of the second circuit board layer is electrically connected with a circuit of the first circuit board layer; a third circuit board layer being disposed in the housing (111, 112) and comprising a second substrate and a second flexible circuit board disposed on the second substrate, wherein at least one of the first and second substrates (1221, 1231) is in contact with the housing and a circuit of the third circuit board layer is electrically connected with the circuit of the second circuit board layer; and a light emitting chip electrically connected to at least one of the first, second and third circuit board layers (121, 122, 123); characterized in that, the second substrate is in contact with the first substrate; and the first circuit board layer, the second circuit board layer and the third circuit board layer are superposed in a direction vertical to the first circuit board layer, the second circuit board layer and the third circuit board layer. a housing (111, 112); a first circuit board layer being disposed in the housing (111, 112); a second circuit board layer being disposed in the housing (111, 112) and comprising a first substrate and a first flexible circuit board disposed on the first substrate, wherein a circuit of the second circuit board layer is electrically connected with a circuit of the first circuit board layer; a third circuit board layer being disposed in the housing (111, 112) and comprising a second substrate and a second flexible circuit board disposed on the second substrate, wherein at least one of the first and second substrates (1221, 1231) is in contact with the housing and a circuit of the third circuit board layer is electrically connected with the circuit of the second circuit board layer; and a light emitting chip electrically connected to at least one of the first, second and third circuit board layers (121, 122, 123); characterized in that, the second substrate is in contact with the first substrate; and the first circuit board layer, the second circuit board layer and the third circuit board layer are superposed in a direction vertical to the first circuit board layer, the second circuit board layer and the third circuit board layer.
Apparatus, comprising: a power control module configured to control an ablation procedure on biological tissue using radiofrequency power; and a processor coupled to the power control module and configured to: receive a measurement of an impedance to the RF power during the procedure, and receive a measurement of the temperature of the biological tissue during the procedure; and if an increase in the impedance exceeds a preset value, halt supply of the RF power to the tissue, and if an increase in the impedance does not exceed the pre-set value, check if the measured temperature exceeds or reaches a pre-set maximum allowable temperature; and if the measured temperature reaches or exceeds the pre-set maximum allowable temperature, reduce the supply of the RF power to the tissue. a power control module configured to control an ablation procedure on biological tissue using radiofrequency power; and a processor coupled to the power control module and configured to: receive a measurement of an impedance to the RF power during the procedure, and receive a measurement of the temperature of the biological tissue during the procedure; and if an increase in the impedance exceeds a preset value, halt supply of the RF power to the tissue, and if an increase in the impedance does not exceed the pre-set value, check if the measured temperature exceeds or reaches a pre-set maximum allowable temperature; and if the measured temperature reaches or exceeds the pre-set maximum allowable temperature, reduce the supply of the RF power to the tissue. receive a measurement of an impedance to the RF power during the procedure, and receive a measurement of the temperature of the biological tissue during the procedure; and if an increase in the impedance exceeds a preset value, halt supply of the RF power to the tissue, and if an increase in the impedance does not exceed the pre-set value, check if the measured temperature exceeds or reaches a pre-set maximum allowable temperature; and if the measured temperature reaches or exceeds the pre-set maximum allowable temperature, reduce the supply of the RF power to the tissue.
A controller for magnetic levitation equipment comprising: - a plurality of current source modules for connecting to at least one power supply for direct current, DC, and said current source modules comprising current channels for actuating coils of the magnetic levitation equipment; - a controller device connected to the current source modules by a control connection for controlling switching of electric current by the current source modules to the current channels; characterized in that each of the current source modules comprises switching equipment for a 3-phase electric current and the switching equipment is connected to two current channels by three ports, and one of the ports is configured to connect to both of the current channels, when the current channels are connected to the coils. - a plurality of current source modules for connecting to at least one power supply for direct current, DC, and said current source modules comprising current channels for actuating coils of the magnetic levitation equipment; - a controller device connected to the current source modules by a control connection for controlling switching of electric current by the current source modules to the current channels; characterized in that each of the current source modules comprises switching equipment for a 3-phase electric current and the switching equipment is connected to two current channels by three ports, and one of the ports is configured to connect to both of the current channels, when the current channels are connected to the coils.
A digital microscopy method, comprising: capturing a plurality of overlapping images of a sample, wherein the capturing of at least one of said plurality of images is performed while the sample and a focal plane are in relative motion along an optical axis at a speed greater than zero; providing an estimated relative arrangement of the focal plane and the sample along the optical axis; and processing the plurality of images using a reference criterion to determine a reference relative arrangement of the focal plane and the sample along the optical axis; characterized: in that the capturing of the plurality of overlapping images is performed such as to produce different image capture densities along the optical axis; and by varying a speed of the relative motion, by decelerating as the relative arrangement of the focal plane and the sample grows closer to the estimated relative arrangement and accelerating as the relative arrangement of the focal plane and the sample moves away from the estimated relative arrangement. capturing a plurality of overlapping images of a sample, wherein the capturing of at least one of said plurality of images is performed while the sample and a focal plane are in relative motion along an optical axis at a speed greater than zero; providing an estimated relative arrangement of the focal plane and the sample along the optical axis; and processing the plurality of images using a reference criterion to determine a reference relative arrangement of the focal plane and the sample along the optical axis; characterized: in that the capturing of the plurality of overlapping images is performed such as to produce different image capture densities along the optical axis; and by varying a speed of the relative motion, by decelerating as the relative arrangement of the focal plane and the sample grows closer to the estimated relative arrangement and accelerating as the relative arrangement of the focal plane and the sample moves away from the estimated relative arrangement.
Method for executing a client application on a client terminal (1, 2), which communicates with a server application on a server via a telecommunications network, said client application including at least two views (V1, V2), at least one view being configured to establish at least one request to the server application, characterized in that at least one parameterization attribute (PO, PR) of the request is associated with a view, and in that the method includes the following steps on the client application: - selecting a view (V1-V4), which is known as the current view; - obtaining said attribute (PO, PR) associated with the current view; - generating a request to the server application, said request being parameterized on the basis of the obtained attribute. - selecting a view (V1-V4), which is known as the current view; - obtaining said attribute (PO, PR) associated with the current view; - generating a request to the server application, said request being parameterized on the basis of the obtained attribute.
A method for processing a transparent workpiece, the method comprising: directing a laser beam oriented along a beam path and propagating in a beam propagation direction into the transparent workpiece such that and characterized in that a portion of the laser beam directed into the transparent workpiece comprises a laser beam focal arc and generates an induced absorption within the transparent workpiece, the induced absorption producing a defect within the transparent workpiece, wherein the laser beam focal arc comprises: curvature; a wavelength λ; a spot size w 0; and a Rayleigh range Z R that is greater than F D πw 0 2 λ where F D is a dimensionless divergence factor comprising a value of 10 or greater, wherein the curvature is defined by a line shift direction that deviates from an unaffected beam propagation direction, and wherein the line shift direction varies in the x-direction according to a line shift function x p ( z) or the line shift direction varies in the y-direction according to a line shift function y p ( z); and wherein the z-direction is the unaffected beam propagation direction and at least one of x p (z) and y p (z) is non-zero, wherein the curvature is produced by impinging the laser beam on a phase-altering optical element, wherein the unaffected beam propagation direction refers to the beam propagation direction the laser beam would have in the transparent workpiece if the phase of the laser beam had not been altered by a phase-altering optical element. directing a laser beam oriented along a beam path and propagating in a beam propagation direction into the transparent workpiece such that and characterized in that a portion of the laser beam directed into the transparent workpiece comprises a laser beam focal arc and generates an induced absorption within the transparent workpiece, the induced absorption producing a defect within the transparent workpiece, wherein the laser beam focal arc comprises: curvature; a wavelength λ; a spot size w 0; and a Rayleigh range Z R that is greater than F D πw 0 2 λ where F D is a dimensionless divergence factor comprising a value of 10 or greater, curvature; a wavelength λ; a spot size w 0; and a Rayleigh range Z R that is greater than F D πw 0 2 λ where F D is a dimensionless divergence factor comprising a value of 10 or greater, wherein the curvature is defined by a line shift direction that deviates from an unaffected beam propagation direction, and wherein the line shift direction varies in the x-direction according to a line shift function x p ( z) or the line shift direction varies in the y-direction according to a line shift function y p ( z); and wherein the z-direction is the unaffected beam propagation direction and at least one of x p (z) and y p (z) is non-zero, wherein the curvature is produced by impinging the laser beam on a phase-altering optical element, wherein the unaffected beam propagation direction refers to the beam propagation direction the laser beam would have in the transparent workpiece if the phase of the laser beam had not been altered by a phase-altering optical element.
A method of calculating time of flight of a lidar signal, the method comprising: i) transmitting a light pulse to start an acquisition time period having a plurality of successive time portions; ii) for each successive time portion, if a photon is received: iia) recording a time at which the photon is received; iib) updating a histogram to record a cumulative count of photons received during the time portion; iic) calculating a time difference between the time at which the photon is received and a reference point of the time portion; iid) updating a cumulative total of the calculated time difference for the time portion; iii) repeating steps i) to iid) for a succession of N transmitted light pulses; iv) identifying a peak in a time portion of the histogram; and v) estimating a time of flight from the cumulative total of the calculated time difference for the time portion of the histogram containing the identified peak. i) transmitting a light pulse to start an acquisition time period having a plurality of successive time portions; ii) for each successive time portion, if a photon is received: iia) recording a time at which the photon is received; iib) updating a histogram to record a cumulative count of photons received during the time portion; iic) calculating a time difference between the time at which the photon is received and a reference point of the time portion; iid) updating a cumulative total of the calculated time difference for the time portion; iia) recording a time at which the photon is received; iib) updating a histogram to record a cumulative count of photons received during the time portion; iic) calculating a time difference between the time at which the photon is received and a reference point of the time portion; iid) updating a cumulative total of the calculated time difference for the time portion; iii) repeating steps i) to iid) for a succession of N transmitted light pulses; iv) identifying a peak in a time portion of the histogram; and v) estimating a time of flight from the cumulative total of the calculated time difference for the time portion of the histogram containing the identified peak.