mhurhangee/ep-ind-claims huggingface dataset:
A method (500, 600) of manufacturing a bullnose tile, comprising: cutting (510, 610) a field tile into a bullnose form, whereby the cut reveals the undecorated base of the tile, said field tile being a fired tile with a decoration on the top of this tile; coating at least one of a tie coat or a base coat on the bullnose edge of the bullnose tile; curing the at least one of the tie coat or the base coat; printing (520, 630) a decorative coat comprising print media on a bullnose edge of the bullnose tile; curing (525, 635) the print media; wherein the method further comprises coating a protective coat on the bullnose edge of the bullnose tile; and curing the protective coat. cutting (510, 610) a field tile into a bullnose form, whereby the cut reveals the undecorated base of the tile, said field tile being a fired tile with a decoration on the top of this tile; coating at least one of a tie coat or a base coat on the bullnose edge of the bullnose tile; curing the at least one of the tie coat or the base coat; printing (520, 630) a decorative coat comprising print media on a bullnose edge of the bullnose tile; curing (525, 635) the print media; wherein the method further comprises coating a protective coat on the bullnose edge of the bullnose tile; and curing the protective coat.
A method for manufacturing a polarized light splitting element, comprising forming two or more metal convex portions having a stripe shape and disposed in parallel using a solution including H 3 AlO(C 4 H 9) 2 which is a metal precursor.
Espagnolette fitting for a window, French door or the like having a casement being pivotable in a frame, wherein the casement is latchable in the frame in a locking position, the casement is rotatable by the frame in a rotating position around a vertical axis of rotation and in a tilted position tiltable around a horizontal tilting axis and wherein the casement is moveable into a gap ventilation position in which the casement is distant from the frame by a gap's length, with a drive equipment for driving a longitudinally shiftable espagnolette, with locking pins (17 - 20) arranged on the espagnolette and with several locking plates (13 - 16), arranged distributed over the frame, for receiving said locking pins (17 - 20) in the provided positions, with an opening (23, 33), respectively, in the locking plates (13 - 16) for moving the respective locking pin (17 - 20) in and out and with two stopping edges (21, 22, 31, 32) of the locking plates (13 - 16) for engaging behind the respective locking pin (17 - 20) in different positions of the espagnolette, wherein in at least one of the locking plates (13, 14) a slider (24, 34) is shiftably arranged parallel to the direction of movement of the locking pin (17, 18) in the position of the casement being in the frame, characterized in that the slider has a stopping edge (25, 35), which blocks or unblocks, depending on a switching sequence of the drive equipment, the opening (23, 33) in the locking plate (13, 14) so that the espagnolette fitting has two switching positions in the position, in which the locking pin (17, 18) arranged on the espagnolette is at the opening (23, 33) in the locking plate (13, 14).
A light detecting apparatus for detecting a signal light component included in input light, said light detecting apparatus comprising: an optical current transducer unit which includes first and second photoelectric conversion element units (110, 120) each configured to convert the input light to an electric current and output it, the optical current transducer unit configured to output a differential current between an electric current outputted by the first photoelectric conversion element unit and an electric current outputted by the second photoelectric conversion element unit as a detected current; a first current/voltage converting unit configured to amplify the detected current outputted from said optical current transducer unit, convert it to a voltage signal, and output the voltage signal; a third photoelectric conversion element unit configured to convert the input light to an electric current and output it; and a second current/voltage converting unit configured to amplify the electric current outputted from said third photoelectric conversion element unit and convert it to a voltage signal, characterized in that the apparatus further comprises a signal processing unit is configured to standardize by a DC signal, which is an output of said second current/voltage converting unit, an AC signal, which is an output of said first current/voltage converting unit, and the input light is a light resulting from laser light scattered by a test object. an optical current transducer unit which includes first and second photoelectric conversion element units (110, 120) each configured to convert the input light to an electric current and output it, the optical current transducer unit configured to output a differential current between an electric current outputted by the first photoelectric conversion element unit and an electric current outputted by the second photoelectric conversion element unit as a detected current; a first current/voltage converting unit configured to amplify the detected current outputted from said optical current transducer unit, convert it to a voltage signal, and output the voltage signal; a third photoelectric conversion element unit configured to convert the input light to an electric current and output it; and a second current/voltage converting unit configured to amplify the electric current outputted from said third photoelectric conversion element unit and convert it to a voltage signal, characterized in that the apparatus further comprises a signal processing unit is configured to standardize by a DC signal, which is an output of said second current/voltage converting unit, an AC signal, which is an output of said first current/voltage converting unit, and the input light is a light resulting from laser light scattered by a test object.
A spring-loaded terminal connection comprising a busbar, a clamping spring (3a, 3b) that has a clamping arm (6a, 6b), the clamping arm (6a, 6b) extending towards the busbar and has a spring clamping (7a, 7b) edge to clamp an electrical conductor, wherein the busbar has a busbar clamping edge (11a, 11b) to fix the electrical conductor to be clamped, wherein the busbar clamping edge (11a, 11b) is arranged across the width of the busbar transversely to the electrical conductor to be clamped, wherein the busbar clamping edge (11a, 11b) extends over only part of a conductor contact section of the busbar, so that the busbar clamping edge (11a, 11b) extends over only part of the width of the busbar, wherein the remaining part forms at least one busbar web, wherein the busbar clamping edge (11a, 11b) has a radius less than or equal to 0.2 mm, wherein the busbar has a recess, and wherein the recess is designed to receive the spring clamping edge (7a, 7b) and is located in front of the busbar clamping edge (11a, 11b) with respect to the conductor insertion direction, characterized in, that a depression is located in the area of the busbar clamping edge (11a, 11b) behind the busbar clamping edge (11a, 11b) with respect to the conductor insertion direction.
An orally disintegrable tablet which can be administered without water wherein the oral disintegration time is one minute or less which comprises (i) fine granules having an average particle diameter, which is a volume based distribution median diameter, of 300 to 400 μm, which fine granules comprise a composition coated by an enteric coating layer, wherein the enteric coating layer comprises an aqueous enteric polymer agent, said composition having 10 weight % or more of an acid-labile physiologically active substance which is lansoprazole and (ii) an additive, wherein the additive comprises a water-soluble sugar alcohol.
A package for smoking articles comprising a container portion and a lid hingedly connected to the container portion about a hinge line, the container portion having an inner frame and an outer frame, the lid including an end portion and front lid wall and side lid walls extending from the end portion that overlap front and side container walls (6,8) of the container portion when closed, and a recess being formed in the inner frame extending from an upper edge of the inner frame into the front and one of the side container walls (6, 8) of the inner frame, characterised in that the front container wall has a locking element that locates over a corresponding locking part on the front lid wall, and a lower edge of the recess is spaced further from the upper edge of the container wall than the locking element.
A method for fault detection in a direct current electrical system by a solid state power controller (SSPC), the SSPC comprising a high bandwidth fault detector, which is a first, higher speed, fault detector and a low bandwidth fault detector, which is a second, lower speed fault detector, the method comprising: detecting a possible fault by the high bandwidth fault detector, wherein the high bandwidth fault detector detects the possible fault based on information from an output current sensor that is located between a power switch of the SSPC and an SSPC output, the SSPC output being connected to a DC load, and the power switch being located between the SSPC output and a DC power source input of the SSPC; placing the power switch of the SSPC in saturation at a predetermined current limit based on the possible fault; determining whether the possible fault is a confirmed fault by the low bandwidth fault detector, wherein the low bandwidth fault detector determines whether the possible fault is the confirmed fault based on information from each of an input voltage sensor configured to determine a voltage at the DC power source input, an output voltage sensor configured to determine a voltage at the SSPC output, a temperature sensor of the SSPC, and the output current sensor; in the event the possible fault is determined to be the confirmed fault, turning off the power switch; and in the event the possible fault is determined not to be the confirmed fault, turning on the power switch at a minimum on-resistance. detecting a possible fault by the high bandwidth fault detector, wherein the high bandwidth fault detector detects the possible fault based on information from an output current sensor that is located between a power switch of the SSPC and an SSPC output, the SSPC output being connected to a DC load, and the power switch being located between the SSPC output and a DC power source input of the SSPC; placing the power switch of the SSPC in saturation at a predetermined current limit based on the possible fault; determining whether the possible fault is a confirmed fault by the low bandwidth fault detector, wherein the low bandwidth fault detector determines whether the possible fault is the confirmed fault based on information from each of an input voltage sensor configured to determine a voltage at the DC power source input, an output voltage sensor configured to determine a voltage at the SSPC output, a temperature sensor of the SSPC, and the output current sensor; in the event the possible fault is determined to be the confirmed fault, turning off the power switch; and in the event the possible fault is determined not to be the confirmed fault, turning on the power switch at a minimum on-resistance.
Cooling station comprising a liquid cooler which has a first distribution box consisting of a hollow extruded profile made of aluminium that has outwardly open guide grooves, and comprising a platform which can be pushed onto the liquid cooler and fixedly connected thereto by means of mechanical connecting elements which can be inserted into the guide grooves of the first distribution box, the cooling station comprising a set of platforms, each platform being connectable to the liquid cooler, and the set comprising platforms which have various hydraulic and/or electrical connections, each platform of the set having the same mechanical connecting elements for connecting to the liquid cooler, characterised in that each platform of the set has separate connections for at least the liquid feed line and the liquid discharge line.
A radiation detector comprising a pixel, the pixel having: a first diode arranged to collect radiation-generated carriers from a first collection region; a second diode arranged to collect radiation-generated carriers from a second collection region, wherein the first diode has a higher node capacitance than the second diode; switching components (220A, 220B) operable to permit independent readout of signals from the first diode and the second diode; first bias wiring for applying a first bias voltage (VRSTA) to the first diode; second bias wiring for applying a second bias voltage (VRSTB) to the second diode, characterised in that the first collection region and the second collection region at least partially overlap or entirely overlap, and the first and second bias wiring are arranged to apply the first bias voltage (VRSTA) to reset the first diode and to apply the second bias voltage (VRSTB) to reset the second diode, wherein collection of radiation-generated carriers by the first diode begins after resetting the first diode and collection of radiation-generated carriers by the second diode begins after resetting the second diode, wherein the first and second bias voltages (VRSTA, VRSTB) are different, with the second bias voltage (VRSTB) greater than the first bias voltage (VRSTA). a first diode arranged to collect radiation-generated carriers from a first collection region; a second diode arranged to collect radiation-generated carriers from a second collection region, wherein the first diode has a higher node capacitance than the second diode; switching components (220A, 220B) operable to permit independent readout of signals from the first diode and the second diode; first bias wiring for applying a first bias voltage (VRSTA) to the first diode; second bias wiring for applying a second bias voltage (VRSTB) to the second diode, characterised in that the first collection region and the second collection region at least partially overlap or entirely overlap, and the first and second bias wiring are arranged to apply the first bias voltage (VRSTA) to reset the first diode and to apply the second bias voltage (VRSTB) to reset the second diode, wherein collection of radiation-generated carriers by the first diode begins after resetting the first diode and collection of radiation-generated carriers by the second diode begins after resetting the second diode, wherein the first and second bias voltages (VRSTA, VRSTB) are different, with the second bias voltage (VRSTB) greater than the first bias voltage (VRSTA).
An electrostatic chuck comprising: a base body having a first surface comprising a bottom surface and a protruding surface part protruding from the bottom surface, wherein the protruding surface part comprises a first top surface and a step surface disposed between the first top surface and the bottom surface, wherein the step surface is surrounding the first top surface in a plan view, and wherein the protruding surface part comprises a first side surface that is connected to the first top surface and the step surface and that surrounds the first top surface over a circumferential direction, a conductive film covering at least a part of the first top surface, wherein the conductive film comprises a first region that covers at least a part of the first top surface and a third region that covers a region of the step surface which is close to the first side surface over the circumferential direction, wherein the conductive film further comprises a second region that covers the first side surface over the circumferential direction and is connected to the first region and the third region, and wherein the step surface has an exposed part being exposed from the conductive film. a base body having a first surface comprising a bottom surface and a protruding surface part protruding from the bottom surface, wherein the protruding surface part comprises a first top surface and a step surface disposed between the first top surface and the bottom surface, wherein the step surface is surrounding the first top surface in a plan view, and wherein the protruding surface part comprises a first side surface that is connected to the first top surface and the step surface and that surrounds the first top surface over a circumferential direction, a conductive film covering at least a part of the first top surface, wherein the conductive film comprises a first region that covers at least a part of the first top surface and a third region that covers a region of the step surface which is close to the first side surface over the circumferential direction, wherein the conductive film further comprises a second region that covers the first side surface over the circumferential direction and is connected to the first region and the third region, and wherein the step surface has an exposed part being exposed from the conductive film.
A system for determining dimensions of an object, the system comprising: an imaging system that includes: an imaging sensor; and a lens arrangement that includes a lens and defines an optical axis, a field-of-view that at least partly includes the object, and a sensor-lens distance between the imaging sensor and the lens; and a processor device configured to: determine an object-imaging distance as a distance between the object and the lens arrangement based upon retrieval from a look-up table or measurement by a distance sensor; determine an axis angle as an angle of the optical axis relative to a reference frame based upon retrieval from a look-up table or measurement by an angular measurement sensor; acquire an image of the object using the imaging sensor; identify one or more features (46, 50) of the object within the image; and determine one or more of the dimensions (64, 66) of the object based upon at least the object-imaging distance, the axis angle, and the one or more identified features (46, 50) of the object. an imaging system that includes: an imaging sensor; and a lens arrangement that includes a lens and defines an optical axis, a field-of-view that at least partly includes the object, and a sensor-lens distance between the imaging sensor and the lens; and an imaging sensor; and a lens arrangement that includes a lens and defines an optical axis, a field-of-view that at least partly includes the object, and a sensor-lens distance between the imaging sensor and the lens; and a processor device configured to: determine an object-imaging distance as a distance between the object and the lens arrangement based upon retrieval from a look-up table or measurement by a distance sensor; determine an axis angle as an angle of the optical axis relative to a reference frame based upon retrieval from a look-up table or measurement by an angular measurement sensor; acquire an image of the object using the imaging sensor; identify one or more features (46, 50) of the object within the image; and determine one or more of the dimensions (64, 66) of the object based upon at least the object-imaging distance, the axis angle, and the one or more identified features (46, 50) of the object. determine an object-imaging distance as a distance between the object and the lens arrangement based upon retrieval from a look-up table or measurement by a distance sensor; determine an axis angle as an angle of the optical axis relative to a reference frame based upon retrieval from a look-up table or measurement by an angular measurement sensor; acquire an image of the object using the imaging sensor; identify one or more features (46, 50) of the object within the image; and determine one or more of the dimensions (64, 66) of the object based upon at least the object-imaging distance, the axis angle, and the one or more identified features (46, 50) of the object.
An implantable marker for use in surgical guidance comprising one or more ferromagnetic elements formed of at least one ferromagnetic material and at least one diamagnetic element formed of at least one diamagnetic material; wherein the at least one diamagnetic material comprises graphite and the one or more ferromagnetic elements are juxtaposed the at least one diamagnetic element, characterised in that the graphite has a substantially isotropic grain structure.
A radio frequency adapter for connecting a radio frequency antenna to an antenna connector, the radio frequency adapter comprising: a waveguide which is arranged to transmit radio frequency waves from and to the radio frequency antenna; an impedance matching element, which is arranged within the waveguide and which is configured for impedance matching to the radio frequency antenna; a conductive inner conductor which is electrically and mechanically connected to the impedance matching element, wherein the inner conductor can be electrically connected directly or indirectly to the antenna connector, wherein the inner conductor extends along a central axis of the waveguide; a conductive sheath adjacent to the waveguide; and an electrically insulating spacer element, which is arranged between the sheath and the inner conductor and thus insulates the inner conductor from the sheath and seals the waveguide in a fluid-tight manner, wherein a first internal diameter of the sheath is smaller than a second internal diameter of the waveguide, so that a step is formed in the region of the connection between the waveguide and the sheath, and wherein the spacer element is arranged at least partially in the waveguide and characterized in that the spacer element forms a collar in the waveguide. a waveguide which is arranged to transmit radio frequency waves from and to the radio frequency antenna; an impedance matching element, which is arranged within the waveguide and which is configured for impedance matching to the radio frequency antenna; a conductive inner conductor which is electrically and mechanically connected to the impedance matching element, wherein the inner conductor can be electrically connected directly or indirectly to the antenna connector, wherein the inner conductor extends along a central axis of the waveguide; a conductive sheath adjacent to the waveguide; and an electrically insulating spacer element, which is arranged between the sheath and the inner conductor and thus insulates the inner conductor from the sheath and seals the waveguide in a fluid-tight manner, wherein a first internal diameter of the sheath is smaller than a second internal diameter of the waveguide, so that a step is formed in the region of the connection between the waveguide and the sheath, and wherein the spacer element is arranged at least partially in the waveguide and characterized in that the spacer element forms a collar in the waveguide.
A cleaning device for vehicles, having a reservoir for storing a cleaning fluid, having at least one feed pump to feed the cleaning fluid from the reservoir, having a plurality of spray devices for applying the cleaning fluid to surfaces (1 to 4) to be cleaned, and having valve devices disposed in supply lines (34 to 37) for the spray devices in order to control the flow of the cleaning fluid to the spray devices, a buffer reservoir being provided for the cleaning fluid which is hydraulically connected to the high pressure side of the at least one feed pump, the cleaning fluid being stored in the buffer reservoir under hydraulic pressure, and the supply lines (34 to 37) for the spray devices leading out from the buffer reservoir characterized in that the buffer reservoir has a rigid outer wall, and in that a movably guided piston is disposed in the interior of the buffer reservoir, defining a storage chamber for the cleaning fluid with a front side of the piston.