mhurhangee/ep-ind-claims huggingface dataset:
An icebreaking vessel, which includes a hull with a bottom, a bow part and a stern part, which bow part includes a forward inclined upper bow portion, a bulbous lower bow portion with a bulb root section at a given position of the bulbous lower bow portion in a longitudinal direction of the vessel, and an intermediate bow portion between the forward inclined upper bow portion and the bulbous lower bow portion, which icebreaking vessel is designed with a construction water line, an upper ice water line and a lower ice water line, characterized in that - an upper surface of the bulbous lower bow portion is arranged to be at or in the vicinity of the water surface when the vessel operates at the construction water line of the vessel, - a lower surface of the bulbous lower bow portion is arranged to penetrate the water surface when the vessel operates at the lower ice water line of the vessel, - the forward inclined upper bow portion is arranged to penetrate the water surface when the vessel operates at the upper ice water line of the vessel, and in that - a cross-sectional area of the bulb root section of the bulbous lower bow portion at the given position is smaller than a cross-sectional area of the bulbous lower bow portion at a first position in the longitudinal direction of the vessel forward of the given position and larger than a cross-sectional area of the bow part under the construction water line at a second position in the longitudinal direction of the vessel aft of the given position. - an upper surface of the bulbous lower bow portion is arranged to be at or in the vicinity of the water surface when the vessel operates at the construction water line of the vessel, - a lower surface of the bulbous lower bow portion is arranged to penetrate the water surface when the vessel operates at the lower ice water line of the vessel, - the forward inclined upper bow portion is arranged to penetrate the water surface when the vessel operates at the upper ice water line of the vessel, and in that - a cross-sectional area of the bulb root section of the bulbous lower bow portion at the given position is smaller than a cross-sectional area of the bulbous lower bow portion at a first position in the longitudinal direction of the vessel forward of the given position and larger than a cross-sectional area of the bow part under the construction water line at a second position in the longitudinal direction of the vessel aft of the given position.
A structure for connecting alternately stacked vacuum insulation panels of an independent type liquefied gas storage tank, comprising: in the structure for connecting the vacuum insulation panels of the independent type liquefied gas storage tank, which installs a stud bolt on the surface of a tank body at a predetermined interval and stacks an insulation panel to encompass the exterior of the tank body through the stud bolt, thus insulating the tank body from the atmosphere, wherein the insulation panel is provided as the vacuum insulation panel for encompassing a core material and having an outer cover whose inside is formed in a vacuum, a pad fitted to the stud bolt in order to form a gap between a lower vacuum insulation panel layer, which is installed to continuously arrange the vacuum insulation panel to encompass the tank body, and the tank body; a first fixing member for fixing the pad by a pressing protrusion at the center thereof with a lower end portion of one side thereof fastened to the stud bolt, and having a screw thread formed on an upper end portion of the other side thereof; a lower vacuum insulation panel layer installed so that edges of adjacent vacuum insulation panels are seated on the pad; a second fixing member having a pressing plate so that the edges of the lower vacuum insulation panels seated on the pad are connected to the first fixing member to be pressed and fixed; and an upper vacuum insulation panel layer formed on an upside of the lower vacuum insulation panel layer so that the vacuum insulation panels are continuously and alternately stacked with one or more layers with respect to the lower vacuum insulation panel, and interface of the stacked vacuum insulation panels becomes zigzag. a pad fitted to the stud bolt in order to form a gap between a lower vacuum insulation panel layer, which is installed to continuously arrange the vacuum insulation panel to encompass the tank body, and the tank body; a first fixing member for fixing the pad by a pressing protrusion at the center thereof with a lower end portion of one side thereof fastened to the stud bolt, and having a screw thread formed on an upper end portion of the other side thereof; a lower vacuum insulation panel layer installed so that edges of adjacent vacuum insulation panels are seated on the pad; a second fixing member having a pressing plate so that the edges of the lower vacuum insulation panels seated on the pad are connected to the first fixing member to be pressed and fixed; and an upper vacuum insulation panel layer formed on an upside of the lower vacuum insulation panel layer so that the vacuum insulation panels are continuously and alternately stacked with one or more layers with respect to the lower vacuum insulation panel, and interface of the stacked vacuum insulation panels becomes zigzag.
Tread strip profile of a pneumatic vehicle tyre, in particular of a passenger car pneumatic vehicle tyre, with at least one circumferential rib which is delimited in the radial direction R towards the outside by a radially outer surface which forms the ground contact area and in the axial direction A by two circumferential grooves (8, 9), grooves which run transversely in the circumferential rib being configured, which grooves extend, starting from the one circumferential groove, in a first axial extent section as far as a fork point, at which the groove splits into two groove arms (16, 17), the groove ending in its extent course in the two groove arms (16, 17) at a spacing from the two circumferential grooves (8, 9), the axial directional component of the extent direction of the groove being greater in its first extent section than the directional component in the circumferential direction U, the groove being configured in the first of the two groove arms (16, 17) so as to extend, starting from the fork point, in the circumferential direction U, characterized in that the groove being configured in the second groove arm, starting from the fork point, with an extent direction with an axial directional component and with a directional component which is oriented in the circumferential direction U, the axial directional component being smaller than the axial directional component of the extent direction of the groove in the first extent section, and in that the groove is configured with a constantly decreasing depth T3 along its extent in the extent course of the first groove arm, starting from the fork point, as far as its extent end.
A device (1; 1') for the detection of the profile of a rolling surface of a rolling body, in particular a tread of a tyre for a vehicle, the device including a light source and an optical assembly configured for processing a first light beam emitted by said light source, wherein: - said first light beam is a planar light beam having a divergent course, - said light source is configured for emitting said first light beam towards said optical assembly, - said optical assembly includes a first refractive member and a second refractive member configured for collimating at least one portion of said first light beam (I, R1) incident thereon into respective measurement beams (RF10, RF12) that are directed towards a measurement section of said device (1; 1') to impinge upon said rolling surface, - said optical assembly further includes a first reflecting member, wherein said light source is configured for emitting said first light beam towards said first reflecting member, said first reflecting member being configured for reflecting said first light beam into a second light beam incident upon said refractive members (10, 12), wherein said first and second refractive members (10, 12) include a first Fresnel lens and a second Fresnel lens, and in that said first and second refractive members (10, 12) are arranged on opposite sides with respect to said light source so as to intercept a respective peripheral band of said second light beam; and wherein said measurement beam includes said peripheral bands collimated (RF 10, RF 12) by said first and second refractive members and a portion of said second light beam that traverses an area comprised between said first and second refractive members (10, 12). - said first light beam is a planar light beam having a divergent course, - said light source is configured for emitting said first light beam towards said optical assembly, - said optical assembly includes a first refractive member and a second refractive member configured for collimating at least one portion of said first light beam (I, R1) incident thereon into respective measurement beams (RF10, RF12) that are directed towards a measurement section of said device (1; 1') to impinge upon said rolling surface, - said optical assembly further includes a first reflecting member, wherein said light source is configured for emitting said first light beam towards said first reflecting member, said first reflecting member being configured for reflecting said first light beam into a second light beam incident upon said refractive members (10, 12), wherein said first and second refractive members (10, 12) include a first Fresnel lens and a second Fresnel lens, and in that said first and second refractive members (10, 12) are arranged on opposite sides with respect to said light source so as to intercept a respective peripheral band of said second light beam; and wherein said measurement beam includes said peripheral bands collimated (RF 10, RF 12) by said first and second refractive members and a portion of said second light beam that traverses an area comprised between said first and second refractive members (10, 12).
A system for diagnostic testing, the system comprising: a meter for performing a diagnostic test on a sample applied to a test media; and a container configured to contain test media compatible with the meter, the container having an opening; wherein the meter comprises: a meter housing; an interface configured for accepting manually inserted test media in order to perform the diagnostic test; a controller configured to perform the diagnostic test; an indicator for indicating a result of the diagnostic test; and a closure portion for selectively closing the opening of the container, characterized in that the meter housing has one side which is shaped to conform to the closure portion and is affixed to the closure portion by a mechanical attachment. a meter for performing a diagnostic test on a sample applied to a test media; and a container configured to contain test media compatible with the meter, the container having an opening; wherein the meter comprises: a meter housing; an interface configured for accepting manually inserted test media in order to perform the diagnostic test; a controller configured to perform the diagnostic test; an indicator for indicating a result of the diagnostic test; and a closure portion for selectively closing the opening of the container, characterized in that an interface configured for accepting manually inserted test media in order to perform the diagnostic test; a controller configured to perform the diagnostic test; an indicator for indicating a result of the diagnostic test; and a closure portion for selectively closing the opening of the container, characterized in that
A holding seal material which has a fiber aggregation of alumina-silica based fibers aggregated into a mat shape as a constituent element, and is placed in a gap between a ceramic body capable of allowing a fluid to flow through the inside thereof and a metal shell covering the outer circumference of the ceramic body, wherein a crystallization rate is gradually increased from a first face side toward a second face side.
A method for injecting a nano-scale powder liquid suspension into a plume for thermal spraying, the method comprising: a. supplying the nano-scale powder liquid suspension in a suspension supply tube, the suspension supply tube being the outer tube of two concentric tubes (31, 30) of a nano-scale particle liquid suspension feedstock injector, b. providing a propellant in a propellant supply tube, the propellant supply tube being concentrically contained within the suspension supply tube, at least proximate an end of the suspension supply tube; c. ejecting the propellant (21, 33) with the nano-scale powder liquid suspension through a common injection orifice of the nano-scale particle liquid suspension feedstock injector into a plume of a thermal spray apparatus, thereby delivering the feedstock in an annular flow pattern so that the propellant (21, 33) occupies a core and the nano-scale powder liquid suspension occupies an annular sheath disposed radially about the core. a. supplying the nano-scale powder liquid suspension in a suspension supply tube, the suspension supply tube being the outer tube of two concentric tubes (31, 30) of a nano-scale particle liquid suspension feedstock injector, b. providing a propellant in a propellant supply tube, the propellant supply tube being concentrically contained within the suspension supply tube, at least proximate an end of the suspension supply tube; c. ejecting the propellant (21, 33) with the nano-scale powder liquid suspension through a common injection orifice of the nano-scale particle liquid suspension feedstock injector into a plume of a thermal spray apparatus, thereby delivering the feedstock in an annular flow pattern so that the propellant (21, 33) occupies a core and the nano-scale powder liquid suspension occupies an annular sheath disposed radially about the core.
An energy-based instrument for cutting and sealing vascular tissue, comprising: a deforming member (706, 707) configured to deform vascular tissue to cause different layers of the vascular tissue to contact each other, wherein the deforming member includes a first deforming member and a second deforming member configured to move in opposite directions and configured to deform vascular tissue placed between the first deforming member and the second deforming member; and a movable cutting member configured to cut the vascular tissue and to illuminate at least one portion of the vascular tissue with light to seal at least one cut surface of the vascular tissue, wherein at least one of the first deforming member and the second deforming member includes a recess (716, 717) to guide the movable cutting member to cut the vascular tissue, wherein the cutting member includes a cutting edge that mechanically cuts the vascular tissue, wherein the cutting member includes an optical waveguide (601 - 603) configured to guide light through at least one side of the cutting member and to illuminate the vascular tissue with the light to seal the at least one cut surface of the vascular tissue, and wherein the optical waveguide includes a light distribution element configured to distribute light on the at least one cut surface of the vascular tissue through at least one side of the optical waveguide. a deforming member (706, 707) configured to deform vascular tissue to cause different layers of the vascular tissue to contact each other, wherein the deforming member includes a first deforming member and a second deforming member configured to move in opposite directions and configured to deform vascular tissue placed between the first deforming member and the second deforming member; and a movable cutting member configured to cut the vascular tissue and to illuminate at least one portion of the vascular tissue with light to seal at least one cut surface of the vascular tissue, wherein at least one of the first deforming member and the second deforming member includes a recess (716, 717) to guide the movable cutting member to cut the vascular tissue, wherein the cutting member includes a cutting edge that mechanically cuts the vascular tissue, wherein the cutting member includes an optical waveguide (601 - 603) configured to guide light through at least one side of the cutting member and to illuminate the vascular tissue with the light to seal the at least one cut surface of the vascular tissue, and wherein the optical waveguide includes a light distribution element configured to distribute light on the at least one cut surface of the vascular tissue through at least one side of the optical waveguide.
A spot-on composition for use to treat stress, anxiety, aggressiveness in a cat, said spot-on composition comprising between 15% to 25% (w%/w%) methyl palmitate, between 10% to 27% (w%/w%) methyl linoleate, between 25% to 35% (w%/w%) methyl oleate, between 5% to 15% (w%/w%) methyl stearate, between 5% to 15% (w%/w%) methyl laurate and between 5% to 15% (w%/w%) methyl myristate, and a vehicle for localized percutaneous application to the cat.
Filter assembly for a water-bearing domestic appliance, in particular for a dishwasher, having a cylindrical filter sieve, a sump, in which the filter sieve is accommodated, and a cleaning device for cleaning the filter sieve with a spray jet which can be vertically displaced in an interior of the filter sieve, wherein the spray jet can be vertically displaced along a central axis of the filter sieve, and wherein the cleaning device has a baffle plate which can be displaced along the central axis of the filter sieve and a nozzle, which is configured to spray washing liquor onto the baffle plate in order to displace the baffle plate along the central axis of the filter sieve and in order to generate the spray jet.
A method for determining at least one postural characteristic (α) of the head of a wearer of a pair of spectacles comprising a frame and two lenses (150G, 150D), using a determining device comprising an image sensor, at least one light source (220, 230, 240) and a processing unit, characterized in that it comprises steps of: a) acquiring via the image sensor an image (301, 302, 303) of at least part of the head of the wearer, in which image appears the pair of spectacles illuminated by the light source (220, 230, 240); b) locating via the processing unit, in said image (301, 302, 303), two reflections (160D, 160G, 161D, 161G) generated by the light source (220, 230, 240) and respectively reflected by the optical faces of the two lenses (150G, 150D) of the pair of spectacles and not by the edges of the lenses or by the edges of the openings in the lenses if any; and c) deducing via the processing unit the postural characteristic (α) of the head of the wearer relative to said image sensor, as a function of the position of said reflections (160D, 160G, 161D, 161G) in said image (301, 302, 303), said postural characteristic (α) being a yaw angle (α) which separates the sagittal plane of the head of the wearer and the optical axis of the image sensor. a) acquiring via the image sensor an image (301, 302, 303) of at least part of the head of the wearer, in which image appears the pair of spectacles illuminated by the light source (220, 230, 240); b) locating via the processing unit, in said image (301, 302, 303), two reflections (160D, 160G, 161D, 161G) generated by the light source (220, 230, 240) and respectively reflected by the optical faces of the two lenses (150G, 150D) of the pair of spectacles and not by the edges of the lenses or by the edges of the openings in the lenses if any; and c) deducing via the processing unit the postural characteristic (α) of the head of the wearer relative to said image sensor, as a function of the position of said reflections (160D, 160G, 161D, 161G) in said image (301, 302, 303), said postural characteristic (α) being a yaw angle (α) which separates the sagittal plane of the head of the wearer and the optical axis of the image sensor.
Device for using water power for energy generation, having a bladed waterwheel having a shaft and having blades arranged indirectly or directly on the shaft and rotatable therewith, which, by the flowing water, can be brought into a rotary motion about the axis of the shaft, having bearings (31, 32) for the shaft of the bladed waterwheel placeable on both sides on the bank of the flowing water or water-conducting cross-section, having a device for receiving the kinetic energy of the rotating shaft and for the indirect or direct transference to a conversion device into a different energy form, characterised in that the shaft of the bladed waterwheel is formed as a hollow shaft, and in which the device for receiving the kinetic energy is arranged between the bearings (31, 32) for the shaft of the bladed waterwheel.
Circuit arrangement for undervoltage identification of an energy source, having a transistor switch and at least one further switch, wherein the transistor switch and the further switch have a low impedance in an operating state of the circuit arrangement and the transistor switch turns off the further switch in order to interrupt the voltage supply when a supply voltage of the energy source falls below a defined voltage value (U S), characterized in that the defined voltage value (U S) is formed from the sum of a Zener voltage (U Z) of a Zener diode and a threshold voltage (U BE) of the transistor switch and in that the transistor switch and the Zener diode are connected downstream of the further switch on the energy source side.
An air conditioner system, comprising: a compressor; a four-way valve configured to provide a refrigerant circulation path depending on an operation mode of the air conditioner system; a blocking valve, disposed between the compressor and the four-way valve, having an opened state in which refrigerant discharged from the compressor passes through the blocking valve to the four-way valve, and a closed state in which the refrigerant discharged from the compressor is blocked by the blocking valve from passing to the four-way valve; a circulation line configured to provide a path for introducing the refrigerant discharged from the compressor back into the compressor, when the blocking valve is in the closed state; and a controller configured to control the blocking valve to be in the opened state or the closed state based on a pressure of the refrigerant discharged from the compressor, wherein the controller is configured to control the blocking valve to be in the closed state, once the air conditioner system starts to operate. a compressor; a four-way valve configured to provide a refrigerant circulation path depending on an operation mode of the air conditioner system; a blocking valve, disposed between the compressor and the four-way valve, having an opened state in which refrigerant discharged from the compressor passes through the blocking valve to the four-way valve, and a closed state in which the refrigerant discharged from the compressor is blocked by the blocking valve from passing to the four-way valve; a circulation line configured to provide a path for introducing the refrigerant discharged from the compressor back into the compressor, when the blocking valve is in the closed state; and a controller configured to control the blocking valve to be in the opened state or the closed state based on a pressure of the refrigerant discharged from the compressor, wherein the controller is configured to control the blocking valve to be in the closed state, once the air conditioner system starts to operate.