mhurhangee/patent-ind-claim-en huggingface dataset:
An Sn-plated stainless steel sheet, comprising a stainless steel sheet, a Ni-plating layer formed on the stainless steel sheet, and an Sn-plating layer formed on the Ni-plating layer, characterized in that the Ni-plating layer has a thickness of 0.3 to 3 μm, the Sn-plating layer has a thickness of 0.3 to 5 μm and a ratio of the thickness of the Ni-plating layer to the thickness of the Sn-plating layer (thickness of the Ni-plating layer / thickness of the Sn-plating layer) is 0.5/2.7 to 0.5 /0.3 and wherein a Ni crystal of the Ni-plating layer has a lattice distortion of 0.5% or less which lattice distortion is determined in accordance with the following method from a X-ray diffraction pattern obtained by using a wide angle X-ray diffractometer available from Rigaku Corporation under the model number: RINT-TTR III type, X-ray source: CuKα rays, tube voltage: 50 kV, tube current: 300 mA, step width: 0.02°, measurement speed: 1 sec/step, slit: 0.5°-0.15 mm-0.5°, diffraction line curved monochromator: (a) Determining integral widths β1 to β3 and Bragg angles θ1 to θ3 of three diffraction lines of Ni in the Ni-plating layer corresponding to Miller indexes of Ni , Ni and Ni , wherein the β 2 /tan 2 θ and the β/tanθsinθ satisfy the relationship represented by the equation: β 2 / tan 2 θ = λ / ε × β / tan ⁢ θ ⁢ sin ⁢ θ + 4 η 2 wherein β is an integral width, λ is a wavelength of X-ray, ε is a length of a crystal lattice, and η is a lattice strain; (b) when taking the β 2 /tan 2 θ as a Y axis, and the β/tanθsinθ as an X axis, drawing a linear approximate curve by using a minimum square method; and (c) determining the lattice distortion from the Y-axis intercept of a straight line having a correlation coefficient of 0.9 or more. (a) Determining integral widths β1 to β3 and Bragg angles θ1 to θ3 of three diffraction lines of Ni in the Ni-plating layer corresponding to Miller indexes of Ni , Ni and Ni , wherein the β 2 /tan 2 θ and the β/tanθsinθ satisfy the relationship represented by the equation: β 2 / tan 2 θ = λ / ε × β / tan ⁢ θ ⁢ sin ⁢ θ + 4 η 2 wherein β is an integral width, λ is a wavelength of X-ray, ε is a length of a crystal lattice, and η is a lattice strain; (b) when taking the β 2 /tan 2 θ as a Y axis, and the β/tanθsinθ as an X axis, drawing a linear approximate curve by using a minimum square method; and (c) determining the lattice distortion from the Y-axis intercept of a straight line having a correlation coefficient of 0.9 or more.
A projection display device , comprising: a light source that emits a first laser light (L1) for displaying a projection and a second laser light (L2) for inspection; a drive reflection unit that reflects the first laser light (L1) and the second laser light (L2) emitted from the light source , and uses the first laser light (L1) and the second laser light (L2) in scanning; a light diffusion unit that allows the first laser light (L1) used in the scanning by the drive reflection unit to be transmitted through the light diffusion unit and diffuses the first laser light (L1); a light selection unit that allows the first laser light (L1) to be transmitted through the light selection unit and reflects the second laser light (L2) at a position on an incident surface of the light diffusion unit , at a position on an emission surface of the light diffusion unit , or at a position that is distant from the emission surface toward an emission side of the light diffusion unit ; and a light detection unit that detects the second laser light (L2) reflected by the light selection unit , characterized in that the light selection unit allows the first laser light (L1) to be transmitted through the light selection unit and reflects the second laser light (L2) at the position on the emission surface of the light diffusion unit or at the position that is distant from the emission surface toward the emission side of the light diffusion unit . a light source that emits a first laser light (L1) for displaying a projection and a second laser light (L2) for inspection; a drive reflection unit that reflects the first laser light (L1) and the second laser light (L2) emitted from the light source , and uses the first laser light (L1) and the second laser light (L2) in scanning; a light diffusion unit that allows the first laser light (L1) used in the scanning by the drive reflection unit to be transmitted through the light diffusion unit and diffuses the first laser light (L1); a light selection unit that allows the first laser light (L1) to be transmitted through the light selection unit and reflects the second laser light (L2) at a position on an incident surface of the light diffusion unit , at a position on an emission surface of the light diffusion unit , or at a position that is distant from the emission surface toward an emission side of the light diffusion unit ; and a light detection unit that detects the second laser light (L2) reflected by the light selection unit , characterized in that the light selection unit allows the first laser light (L1) to be transmitted through the light selection unit and reflects the second laser light (L2) at the position on the emission surface of the light diffusion unit or at the position that is distant from the emission surface toward the emission side of the light diffusion unit .
A machine for separative machining of a plate-shaped workpiece , having: a first movement unit for moving the workpiece in a first direction (X); a second movement unit for moving a machining head for the separative machining in a second direction (Y); and two workpiece bearing faces for bearing the workpiece , a gap that extends along the second direction (Y) being formed therebetween, characterized by a push-out unit having a push-out element , wherein the push-out element is movable at least in the second direction (Y) within the gap so as to press against a workpiece part , which was cut free from the workpiece during separative machining, at a predefined push-out position (AP), and by a control unit which in the case of a cut-free workpiece part in which the center of area (FS) of an area (F) that is surrounded by the external contour of the cut-free workpiece part , or the center of mass (MS), deviates from the centroid (LS) of the external contour line , is configured for predefining a push-out position (AP) which coincides with the centroid of the external contour line (LS), or is offset from the center of area (FS) or from the center of mass (MS) of the cut-free workpiece part in the direction toward the centroid (LS) of the contour line of said cut-free workpiece part . a first movement unit for moving the workpiece in a first direction (X); a second movement unit for moving a machining head for the separative machining in a second direction (Y); and two workpiece bearing faces for bearing the workpiece , a gap that extends along the second direction (Y) being formed therebetween, characterized by a push-out unit having a push-out element , wherein the push-out element is movable at least in the second direction (Y) within the gap so as to press against a workpiece part , which was cut free from the workpiece during separative machining, at a predefined push-out position (AP), and by a control unit which in the case of a cut-free workpiece part in which the center of area (FS) of an area (F) that is surrounded by the external contour of the cut-free workpiece part , or the center of mass (MS), deviates from the centroid (LS) of the external contour line , is configured for predefining a push-out position (AP) which coincides with the centroid of the external contour line (LS), or is offset from the center of area (FS) or from the center of mass (MS) of the cut-free workpiece part in the direction toward the centroid (LS) of the contour line of said cut-free workpiece part .
A thermal management system for sensors with electronic and/or optical components, comprising: - an external housing covering an internal housing , the external housing comprising a first fluid path and the internal housing comprising a second fluid path , wherein the first and second fluid paths form a circuit suitable for a refrigerating fluid to circulate; - a thermal insulator layer arranged between the external housing and the internal housing ; - a fluid circulation system connected to the first fluid path and the second fluid path ; wherein the external housing and internal housing are made of a material with high thermal conductivity and the thermal insulator layer is made of a material that has lower thermal conductivity than the external housing and internal housing material. - an external housing covering an internal housing , the external housing comprising a first fluid path and the internal housing comprising a second fluid path , wherein the first and second fluid paths form a circuit suitable for a refrigerating fluid to circulate; - a thermal insulator layer arranged between the external housing and the internal housing ; - a fluid circulation system connected to the first fluid path and the second fluid path ;
An adaptive ergonomic positioning device comprising: a. an insert assembly wherein said insert assembly comprises connection means to a surgical table existing head end table segment attachment means or a surgical chair existing head end chair segment attachment means ; b. a main support assembly connected to said insert assembly , wherein said main support assembly further comprises a main support frame ; c. a head support assembly connected to said main support frame ; and d. two patient arm support assemblies connected to said main support frame ; wherein said adaptive ergonomic positioning device can be removably connected to said surgical table existing head end table segment attachment means or said surgical chair existing head end chair segment attachment means . a. an insert assembly wherein said insert assembly comprises connection means to a surgical table existing head end table segment attachment means or a surgical chair existing head end chair segment attachment means ; b. a main support assembly connected to said insert assembly , wherein said main support assembly further comprises a main support frame ; c. a head support assembly connected to said main support frame ; and d. two patient arm support assemblies connected to said main support frame ; wherein said adaptive ergonomic positioning device can be removably connected to said surgical table existing head end table segment attachment means or said surgical chair existing head end chair segment attachment means .
A method for configuration of radio interface based synchronisation, wherein said method comprises the steps of: - obtaining hearability information and synchronisation ability information concerning a multitude of radio base stations , said hearability information comprising, for each radio base station of said multitude of radio base stations , an identity of a radio base station under consideration, experienced signal quality of signals from other radio base stations of said multitude of radio base stations , and identities of said other radio base stations of said multitude of radio base stations , and said synchronisation ability information comprising, for each radio base station of said multitude of radio base stations , information about a quality of synchronisation, other than the radio interface based synchronisation, obtainable by the radio base station under consideration; - creating a radio interface based synchronisation configuration for said multitude of radio base stations , in dependence of said obtained hearability information and said obtained synchronisation ability information, said radio interface based synchronisation configuration comprising definition of synchronisation links, which radio base stations of said multitude of radio base stations are recommended to use for synchronisation purposes; and - providing data defining said radio interface based synchronisation configuration for transmission to the respective radio base stations . - obtaining hearability information and synchronisation ability information concerning a multitude of radio base stations , said hearability information comprising, for each radio base station of said multitude of radio base stations , an identity of a radio base station under consideration, experienced signal quality of signals from other radio base stations of said multitude of radio base stations , and identities of said other radio base stations of said multitude of radio base stations , and said synchronisation ability information comprising, for each radio base station of said multitude of radio base stations , information about a quality of synchronisation, other than the radio interface based synchronisation, obtainable by the radio base station under consideration; an identity of a radio base station under consideration, experienced signal quality of signals from other radio base stations of said multitude of radio base stations , and identities of said other radio base stations of said multitude of radio base stations , and - creating a radio interface based synchronisation configuration for said multitude of radio base stations , in dependence of said obtained hearability information and said obtained synchronisation ability information, said radio interface based synchronisation configuration comprising definition of synchronisation links, which radio base stations of said multitude of radio base stations are recommended to use for synchronisation purposes; and - providing data defining said radio interface based synchronisation configuration for transmission to the respective radio base stations .
A method for establishing a wireless connection between a mobile device and a desired one of a plurality of luminaires using a short-range wireless communication technique, the method comprising repeatedly transmitting, from each of the plurality of luminaires , respective first device discovery messages according to a predefined pattern when a respective luminaire (110-n) is in receipt of operating power, wherein a first device discovery message includes a device identifier of the respective luminaire (110-n); receiving, in the mobile device from the plurality of luminaires , respective at least one first device discovery message; receiving, via a user interface of the mobile device , a selection of a first luminaire (110-k) of the plurality of luminaires ; transmitting, from the mobile device , at least one second device discovery message that includes a device identifier of the first luminaire (110-k) and a first command; initiating, in the first luminaire (110-k), provision of a selection indication in response to receiving at least one second device discovery message including the device identifier assigned therefor and the first command; and receiving, via the user interface of the mobile device one of a selection of a second luminaire (110-m) of the plurality of luminaires or a confirmation of selection of the first luminaire (110-k): transmitting, in response to receiving a selection of the second luminaire (110-m), at least one further second device discovery message that includes a device identifier of the second selected luminaire (110-m) and the first command, and establishing, in response to receiving a confirmation of selection of the first luminaire (110-k), a wireless connection with the first luminaire (110-k) for exchange of information between the mobile device and the first luminaire (110-k) and exchanging information between the mobile device and the first luminaire (110-k) via the established wireless connection. transmitting, in response to receiving a selection of the second luminaire (110-m), at least one further second device discovery message that includes a device identifier of the second selected luminaire (110-m) and the first command, and establishing, in response to receiving a confirmation of selection of the first luminaire (110-k), a wireless connection with the first luminaire (110-k) for exchange of information between the mobile device and the first luminaire (110-k) and exchanging information between the mobile device and the first luminaire (110-k) via the established wireless connection.
An apparatus for cultivating plants that includes a cabinet forming a space where plants are cultivated; a door connected to the cabinet to open or close the space, a bed disposed in the space of the cabinet , the apparatus comprising: at least one seed package separably seated on the bed and having a medium including seeds of plants and nutrient solution; and a light assembly for radiating light to the at least one seed package disposed on the bed , wherein the bed includes an upper bed on which the seed package is seated and a bottom bed on which the upper bed is seated and that forms a water collecting part storing water, and the at least one seed package is supplied with the water stored in the water collecting part , wherein the upper bed has a seating part where the at least one seed package is seated, characterized in that the bottom bed has at least one recess part recessed downward to accommodate the seating part , wherein the recess part is formed at a position corresponding to the seating part and recessed in the shape corresponding to the seating part , the bottom of the water collecting part is positioned lower than the recess part , and the bottom of the seating part is seated on the bottom of the recess part . at least one seed package separably seated on the bed and having a medium including seeds of plants and nutrient solution; and a light assembly for radiating light to the at least one seed package disposed on the bed , wherein the bed includes an upper bed on which the seed package is seated and a bottom bed on which the upper bed is seated and that forms a water collecting part storing water, and the at least one seed package is supplied with the water stored in the water collecting part , wherein the upper bed has a seating part where the at least one seed package is seated, characterized in that the bottom bed has at least one recess part recessed downward to accommodate the seating part , wherein the recess part is formed at a position corresponding to the seating part and recessed in the shape corresponding to the seating part , the bottom of the water collecting part is positioned lower than the recess part , and the bottom of the seating part is seated on the bottom of the recess part .
A liquid treatment apparatus comprising: an inlet configured to be connected to a source of liquid to be treated; at least one liquid treatment vessel arranged to expose liquid in the vessel to ultraviolet radiation in an advanced oxidation process reaction; and a source of ultraviolet radiation arranged in the liquid treatment vessel; wherein the source of ultraviolet radiation comprises a longitudinal axis (L) oriented substantially parallel to a direction of flow of liquid past the source of ultraviolet radiation; wherein a boundary surface between the source of ultraviolet radiation and a liquid to be treated is provided with one or more cleaning elements ; wherein the one or more cleaning elements extend in a longitudinal direction of the boundary surface; and wherein the cleaning elements comprise filaments or bristles , and the filaments or bristles are partially constructed from a photocatalytic material, fully constructed from a photocatalytic material, or coated with a photocatalytic material; characterised in that the cleaning elements are fixed to the liquid treatment vessel ; and the liquid treatment vessel and the boundary surface are arranged to be rotationally moveable relative to one another around the longitudinal axis (L) of the source of ultraviolet radiation to rotate the one or more cleaning elements with respect to the boundary surface. an inlet configured to be connected to a source of liquid to be treated; at least one liquid treatment vessel arranged to expose liquid in the vessel to ultraviolet radiation in an advanced oxidation process reaction; and a source of ultraviolet radiation arranged in the liquid treatment vessel; wherein the source of ultraviolet radiation comprises a longitudinal axis (L) oriented substantially parallel to a direction of flow of liquid past the source of ultraviolet radiation; wherein a boundary surface between the source of ultraviolet radiation and a liquid to be treated is provided with one or more cleaning elements ; wherein the one or more cleaning elements extend in a longitudinal direction of the boundary surface; and wherein the cleaning elements comprise filaments or bristles , and the filaments or bristles are partially constructed from a photocatalytic material, fully constructed from a photocatalytic material, or coated with a photocatalytic material; characterised in that the cleaning elements are fixed to the liquid treatment vessel ; and the liquid treatment vessel and the boundary surface are arranged to be rotationally moveable relative to one another around the longitudinal axis (L) of the source of ultraviolet radiation to rotate the one or more cleaning elements with respect to the boundary surface.
A pharmaceutical package comprising: a glass body having a delamination factor of less than or equal to 10, the glass body having an inner surface, an outer surface, and a wall thickness extending between the outer surface and the inner surface, wherein the glass body is ion exchanged and comprises a compressively stressed layer extending from the outer surface of the glass body into the wall thickness, the compressively stressed layer having a surface compressive stress greater than or equal to 150 MPa; and at least one marking within the wall thickness, the marking comprising a portion of the glass body having a refractive index that differs from a refractive index of an unmarked portion of the glass body, wherein the at least one marking is not within the compressively stressed layer. a glass body having a delamination factor of less than or equal to 10, the glass body having an inner surface, an outer surface, and a wall thickness extending between the outer surface and the inner surface, wherein the glass body is ion exchanged and comprises a compressively stressed layer extending from the outer surface of the glass body into the wall thickness, the compressively stressed layer having a surface compressive stress greater than or equal to 150 MPa; and at least one marking within the wall thickness, the marking comprising a portion of the glass body having a refractive index that differs from a refractive index of an unmarked portion of the glass body, wherein the at least one marking is not within the compressively stressed layer.
An ink composition for a secondary battery separator comprising: a binder; water; a first solvent; and a second solvent, wherein the first solvent has surface energy of 30 mN/m or less at 20oC, the second solvent has a vapor pressure of 2 kPa or less at 20oC, and the first solvent and the second solvent are different from each other. a binder; water; a first solvent; and a second solvent, wherein the first solvent has surface energy of 30 mN/m or less at 20oC, the second solvent has a vapor pressure of 2 kPa or less at 20oC, and the first solvent and the second solvent are different from each other.
An ice bin comprising: a bin body, the bin body comprising a lower portion , an upper portion , and a perimeter wall extending heightwise from the lower portion to the upper portion, the upper portion of the bin body defining an ice drop area configured so that ice dropped from an ice maker supported above the ice bin is passable through the ice drop area into the interior, the bin body further comprising an ice retrieval area spaced apart from the ice drop area for providing access to the interior of the ice bin, characterized in that the perimeter wall comprises a support plate configured to support an ice scoop on the perimeter wall in the interior of the ice bin by a force of magnetic attraction between the ice scoop and the support plate, wherein the ice bin further comprises an upright frame member formed from ferromagnetic material so that the ice scoop can be supported on an exterior of the ice bin by force of magnetic attraction between the upright frame member and the ice scoop