mhurhangee/ep-ind-claims huggingface dataset:
Combined forward navigation and anti-collision light for an aircraft, comprising: a forward navigation light source, a first lens, arranged over the forward navigation light source, with the forward navigation light source and the first lens in operation generating a forward navigation light output, an anti-collision light source, a second lens, arranged over the anti-collision light source, with the anti-collision light source and the second lens in operation generating an anti-collision light output, a mounting structure (10, 20; 42), to which the forward navigation light source, the first lens, the anti-collision light source, and the second lens are mounted, wherein the mounting structure (10, 20; 42) provides a common mounting plane, with the forward navigation light source and the anti-collision light source being arranged on the common mounting plane, an end of life detector, arranged between the forward navigation light source and the anti-collision light source, and a third lens, arranged over the end of life detector, with the third lens directing light from the forward navigation light source and from the anti-collision light source towards the end of life detector. a forward navigation light source, a first lens, arranged over the forward navigation light source, with the forward navigation light source and the first lens in operation generating a forward navigation light output, an anti-collision light source, a second lens, arranged over the anti-collision light source, with the anti-collision light source and the second lens in operation generating an anti-collision light output, a mounting structure (10, 20; 42), to which the forward navigation light source, the first lens, the anti-collision light source, and the second lens are mounted, wherein the mounting structure (10, 20; 42) provides a common mounting plane, with the forward navigation light source and the anti-collision light source being arranged on the common mounting plane, an end of life detector, arranged between the forward navigation light source and the anti-collision light source, and a third lens, arranged over the end of life detector, with the third lens directing light from the forward navigation light source and from the anti-collision light source towards the end of life detector.
Electrical switch comprising: - a main body comprising fixing portions for connecting the electrical switch to a support frame which can be fixed to a wall; - a button which is tiltably pivoted on the main body and can be actuated by an operator using pressure; - a switching mechanism housed inside said main body and designed so as to control the opening and closing of an electrical contact by an oscillation movement of a relative actuation element; - an amplification mechanism for amplifying the oscillation movement of the actuation element, said amplification mechanism comprising: - a motion transformation element connected to the main body, characterised in that said motion transformation element is jointed to the actuation element, said motion transformation element being associated with said button, so as to constrain said button to said motion transformation element so that said motion transformation element is urged by the tilting of the button so as to move said actuation element according to said oscillation movement. - a main body comprising fixing portions for connecting the electrical switch to a support frame which can be fixed to a wall; - a button which is tiltably pivoted on the main body and can be actuated by an operator using pressure; - a switching mechanism housed inside said main body and designed so as to control the opening and closing of an electrical contact by an oscillation movement of a relative actuation element; - an amplification mechanism for amplifying the oscillation movement of the actuation element, said amplification mechanism comprising: - a motion transformation element connected to the main body, characterised in that said motion transformation element is jointed to the actuation element, said motion transformation element being associated with said button, so as to constrain said button to said motion transformation element so that said motion transformation element is urged by the tilting of the button so as to move said actuation element according to said oscillation movement. - a motion transformation element connected to the main body, characterised in that said motion transformation element is jointed to the actuation element, said motion transformation element being associated with said button, so as to constrain said button to said motion transformation element so that said motion transformation element is urged by the tilting of the button so as to move said actuation element according to said oscillation movement.
A dispenser assembly, comprising: a dispenser, which comprises a handle and a siphon inlet; a waterproof box, wherein a gap is disposed between the waterproof box and the dispenser; and a first block rib, which is disposed inside the waterproof box and at one end of the waterproof box adjacent to the handle, wherein the first block rib is configured to prevent liquid from overflowing from the gap; wherein the waterproof box comprises a water collection cavity, the water collection cavity is formed between the first block rib and the one end of the waterproof box adjacent to the handle, and the first block rib is provided with a water leak port, and a position of the water leak port is lower than a position of the gap; characterized in that: the dispenser assembly further comprises a second rib is an arc-shaped structure and configured to face to the siphon inlet and in that e water leak port is disposed at a middle of a bottom of a lower end of the first block rib; and the arc-shaped structure being the second block rib is convex toward the first block rib. a dispenser, which comprises a handle and a siphon inlet; a waterproof box, wherein a gap is disposed between the waterproof box and the dispenser; and a first block rib, which is disposed inside the waterproof box and at one end of the waterproof box adjacent to the handle, wherein the first block rib is configured to prevent liquid from overflowing from the gap; wherein the waterproof box comprises a water collection cavity, the water collection cavity is formed between the first block rib and the one end of the waterproof box adjacent to the handle, and the first block rib is provided with a water leak port, and a position of the water leak port is lower than a position of the gap; characterized in that: the dispenser assembly further comprises a second rib is an arc-shaped structure and configured to face to the siphon inlet and in that e water leak port is disposed at a middle of a bottom of a lower end of the first block rib; and the arc-shaped structure being the second block rib is convex toward the first block rib.
A cable comprising a longitudinal structural element including at least one of an electrical conductor and an optical conductor, and a strain sensor arranged within a bending neutral region of the cable and mechanically coupled with the longitudinal structural element, wherein the strain sensor includes an optical fiber coated with at least one coating layer, characterized in that it further comprises a release layer surrounding the coating layer, and a protective layer (8,10) surrounding the release layer; and wherein the release layer includes a material selected from a silicone polymer, a fluoropolymer mixture or an extruded polymer containing a slip agent, the release layer being configured to facilitate the stripping of the protective layers with a stripping force of 0.1N/cm to 0.9N/cm while maintaining the mechanical congruence with the cable conductors along the whole cable.
A device for pulling a resilient elongate element (21; 114), comprising: a powered rotational motor (4; 102) having an output; a rotatable drum (8; 110) connected to the output of said rotational motor (4; 102), the rotatable drum (8; 110) having a longitudinal axis and a circumference; a guide mechanism (1, 7) for guiding the resilient elongate element (21; 114) onto, around at least a portion of the circumference of, and off of the rotatable drum (8; 110); wherein when said powered rotational motor (4; 102) turns the rotatable drum (8; 110), the rotatable drum (8; 110) thereby continuously pulls the resilient elongate element (21; 114) through the device; characterized in that: the guide mechanism (1, 7) includes one or more clip elements and is configured to attach to the resilient elongate element (21; 114) without threading an end of the resilient elongate element (21; 114) through the device; and the device is configured to be a portable hand-held device. a powered rotational motor (4; 102) having an output; a rotatable drum (8; 110) connected to the output of said rotational motor (4; 102), the rotatable drum (8; 110) having a longitudinal axis and a circumference; a guide mechanism (1, 7) for guiding the resilient elongate element (21; 114) onto, around at least a portion of the circumference of, and off of the rotatable drum (8; 110); wherein when said powered rotational motor (4; 102) turns the rotatable drum (8; 110), the rotatable drum (8; 110) thereby continuously pulls the resilient elongate element (21; 114) through the device; characterized in that: the guide mechanism (1, 7) includes one or more clip elements and is configured to attach to the resilient elongate element (21; 114) without threading an end of the resilient elongate element (21; 114) through the device; and the device is configured to be a portable hand-held device. the guide mechanism (1, 7) includes one or more clip elements and is configured to attach to the resilient elongate element (21; 114) without threading an end of the resilient elongate element (21; 114) through the device; and the device is configured to be a portable hand-held device.
A mount for a semiconductor device, the mount comprising: an insulating substrate having first and second parallel face surfaces (66, 67), an edge surface that connects the parallel surfaces and having formed therein a recess having an opening on the first face surface; and an electrically conductive plug seated in the recess and having a first exposed surface on or near the edge surface and a second exposed surface on or near the first face surface; characterized by the recess including a cross section having a dimension substantially parallel to the edge surface at a first distance from the edge surface that is smaller than a dimension of the cross section at a second, larger distance from the edge surface. an insulating substrate having first and second parallel face surfaces (66, 67), an edge surface that connects the parallel surfaces and having formed therein a recess having an opening on the first face surface; and an electrically conductive plug seated in the recess and having a first exposed surface on or near the edge surface and a second exposed surface on or near the first face surface; characterized by the recess including a cross section having a dimension substantially parallel to the edge surface at a first distance from the edge surface that is smaller than a dimension of the cross section at a second, larger distance from the edge surface.
An imaging system, comprising: a magnetic resonance portion configured to produce an electric field; and a second imaging portion, the second imaging portion, including: a detector comprising a two dimensional array of detector tiles wherein each tile comprises an array of scintillator crystals, and wherein adjacent tiles along an axial direction are spaced apart by a gap with an electrically conductive material located in the gap, neighboring tiles along a transaxial direction are offset from each other in the axial direction, neighboring gaps form a continuous electrically conductive region that extends diagonally between tiles across the detector in the transaxial direction, and the electrically conductive material is configured to shield the tiles from the electric field. a magnetic resonance portion configured to produce an electric field; and a second imaging portion, the second imaging portion, including: a detector comprising a two dimensional array of detector tiles wherein each tile comprises an array of scintillator crystals, and wherein adjacent tiles along an axial direction are spaced apart by a gap with an electrically conductive material located in the gap, neighboring tiles along a transaxial direction are offset from each other in the axial direction, neighboring gaps form a continuous electrically conductive region that extends diagonally between tiles across the detector in the transaxial direction, and the electrically conductive material is configured to shield the tiles from the electric field.
A system, comprising: a vehicle (101, 501, 601, 701, 801); a laser particle sensor (102, 502, 602, 702, 802) mounted on a first portion of the vehicle (101, 501, 601, 701, 801), wherein the laser particle sensor (102, 502, 602, 702, 802) comprises: an optical system and a processing system coupled to the optical system; wherein the optical system is configured to transmit one or more laser light beams (112, 512, 612, 712, 812) through a selected measurement region to detect particles in a volume of freestream fluid; and wherein the optical system is configured to receive a backscattered portion of the one or more laser light beams (112, 512, 612, 812) transmitted by the optical system; characterized in that a second portion of the vehicle (101, 501, 601, 701, 801) is covered with a light absorbent material (525, 625) which is a non-reflective material that is absorbent with respect to a wavelength of the one or more light beams (112, 512, 612, 712, 812), and wherein the optical system is arranged to transmit the one or more laser light beams (112, 512, 612, 712, 812) toward the second portion of the vehicle (101, 501, 601, 701, 801) to terminate the one or more laser light beams (112, 512, 612, 712, 812) on the second portion of the vehicle (101, 501, 601, 701, 801). a vehicle (101, 501, 601, 701, 801); a laser particle sensor (102, 502, 602, 702, 802) mounted on a first portion of the vehicle (101, 501, 601, 701, 801), wherein the laser particle sensor (102, 502, 602, 702, 802) comprises: an optical system and a processing system coupled to the optical system; wherein the optical system is configured to transmit one or more laser light beams (112, 512, 612, 712, 812) through a selected measurement region to detect particles in a volume of freestream fluid; and wherein the optical system is configured to receive a backscattered portion of the one or more laser light beams (112, 512, 612, 812) transmitted by the optical system; characterized in that a second portion of the vehicle (101, 501, 601, 701, 801) is covered with a light absorbent material (525, 625) which is a non-reflective material that is absorbent with respect to a wavelength of the one or more light beams (112, 512, 612, 712, 812), and wherein the optical system is arranged to transmit the one or more laser light beams (112, 512, 612, 712, 812) toward the second portion of the vehicle (101, 501, 601, 701, 801) to terminate the one or more laser light beams (112, 512, 612, 712, 812) on the second portion of the vehicle (101, 501, 601, 701, 801).
Process for reconstitution of a solid form of a pharmaceutical composition, comprising the following successive steps: (i) providing the solid form of the pharmaceutical composition in a sealed container, the pressure within the container being an initial pressure (p i) comprised between 0.5 Pa and 1.2×10 5 Pa; (ii) at a first time point (t 0) introducing a solvent into said sealed container so that the pressure within the container increases from the initial pressure (p i) to a resulting pressure (p r), and maintaining the resulting pressure (p r) within the container during a controlled time (Δt 1), wherein the controlled time (Δt 1) is comprised between 1 second and 2 minutes depending on the pharmaceutical composition and starts from the end of the introduction of the solvent into the sealed container; and (iii) at a second time point (t 2) increasing the pressure within the container to a controlled pressure (p 2) higher than said resulting pressure (p r) until complete reconstitution. (i) providing the solid form of the pharmaceutical composition in a sealed container, the pressure within the container being an initial pressure (p i) comprised between 0.5 Pa and 1.2×10 5 Pa; (ii) at a first time point (t 0) introducing a solvent into said sealed container so that the pressure within the container increases from the initial pressure (p i) to a resulting pressure (p r), and maintaining the resulting pressure (p r) within the container during a controlled time (Δt 1), wherein the controlled time (Δt 1) is comprised between 1 second and 2 minutes depending on the pharmaceutical composition and starts from the end of the introduction of the solvent into the sealed container; and (iii) at a second time point (t 2) increasing the pressure within the container to a controlled pressure (p 2) higher than said resulting pressure (p r) until complete reconstitution.
A gas turbine shroud, wherein a ceramic abradable coating is placed on a hot gas path surface of the shroud facing a gas turbine moving blade, the ceramic abradable coating being obtained by spraying a bond layer on a substrate, spraying a thermal barrier ceramic layer on the bond layer, spraying an abradable ceramic layer on the thermal barrier ceramic layer, and forming a slit groove in the abradable ceramic layer by machining, wherein the abradable ceramic layer divided by the slit groove has a rectangular section with a width of 2 to 7 mm, and a slit groove width is 0.5 to 2 mm.
A radiation detection device comprising: a radiation detection panel; a supporting member configured to support the radiation detection panel at a side of a first surface of the supporting member; and a housing configured to accommodate the radiation detection panel and the supporting member, wherein the supporting member has one or more concave portions (30, 36, 38, 40, 41) at the first surface, the one or more concave portions (30, 36, 38, 40, 41) are filled with a filler having a lower density than a material forming the supporting member, and the filler is made from a foamed material, characterized in that a surface layer of the filler exposed from the first surface has a higher density than an inside of the filler except the surface layer, the radiation detection device further comprises: a buffer member that is provided between a radiation incident surface of the radiation detection panel and a top plate of the housing which covers the radiation incident surface, and wherein the buffer member is more flexible than the filler. a radiation detection panel; a supporting member configured to support the radiation detection panel at a side of a first surface of the supporting member; and a housing configured to accommodate the radiation detection panel and the supporting member, wherein the supporting member has one or more concave portions (30, 36, 38, 40, 41) at the first surface, the one or more concave portions (30, 36, 38, 40, 41) are filled with a filler having a lower density than a material forming the supporting member, and the filler is made from a foamed material, characterized in that a surface layer of the filler exposed from the first surface has a higher density than an inside of the filler except the surface layer, the radiation detection device further comprises: a buffer member that is provided between a radiation incident surface of the radiation detection panel and a top plate of the housing which covers the radiation incident surface, and wherein the buffer member is more flexible than the filler. a buffer member that is provided between a radiation incident surface of the radiation detection panel and a top plate of the housing which covers the radiation incident surface, and wherein the buffer member is more flexible than the filler.
Device for withdrawing body fluid with a lancing element that can puncture the skin of a body part which has a receiving structure for body fluid obtained from the skin puncture which in particular acts as a capillary and a lancing drive for a forward and retracting movement of the lancing element, wherein the duration of the retracting movement is longer than the duration of the forward movement and the lancing element is moved in a first retraction phase of the rectracting movement at a maximum retraction speed of more than 0.02 m/s, characterized in that the lancing drive is designed to pull back the lancing element (14 during the first retraction phase by a constant first partial distance (Δd) from the deepest puncture position into an intermediate position situated under the skin surface independently of the lancing depth, and to retract the lancing element from the skin during a second retraction phase for collecting body fluid into the receiving structure which follows the first retraction phase in such a manner that the collecting period is in a range between 0.3 and 0.8 s and the retraction speed is between 0.6 and 2 mm/s.
An aerosol creation system, comprising: a pair of counter-rotating rollers (100,102) that are positioned adjacent each other and define a nip between each other, the nip having an upstream side and a downstream side; a fluid source that coats at least one of the rollers with a fluid; and a driving element that drives the pair of counter-rotating rollers to rotate in counter rotation with respect to each other and causes the fluid coating to be drawn through the nip to the downstream side of the nip, the fluid stretched on the downstream side of the nip between respective surfaces of each of the counter-rotating rollers to form a fluid filament, the fluid filament stretched until the fluid filament breaks into a plurality of droplets, the aerosol creation system being characterized in that it further comprises an aerosol harvesting system having an aid in forming the droplets of the aerosol. a pair of counter-rotating rollers (100,102) that are positioned adjacent each other and define a nip between each other, the nip having an upstream side and a downstream side; a fluid source that coats at least one of the rollers with a fluid; and a driving element that drives the pair of counter-rotating rollers to rotate in counter rotation with respect to each other and causes the fluid coating to be drawn through the nip to the downstream side of the nip, the fluid stretched on the downstream side of the nip between respective surfaces of each of the counter-rotating rollers to form a fluid filament, the fluid filament stretched until the fluid filament breaks into a plurality of droplets, the aerosol creation system being characterized in that it further comprises an aerosol harvesting system having an aid in forming the droplets of the aerosol.