mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining concentration of a peracetic acid formulation, characterized in that the method comprises a step of disposing a light-transmissive container containing a target solution in which a reagent of a predetermined concentration is added to a solution of the peracetic acid formulation side by side with a plurality of color samples (15a-15f), wherein the reagent is potassium iodide, the peracetic acid formulation is for food use, and the concentration of the peracetic acid formulation is in the range of 50 mg/L to 500 mg/L, and in that the method further comprises a step of visually identifying transmitted light transmitted through the container with one of the plurality of color samples by comparing the color of the transmitted light from the container with the colors of the color samples so that the concentration of the peracetic acid formulation contained in the target solution is able to be determined, wherein each of the plurality of color samples exhibits a color corresponding to a respective one of a plurality of the target solutions containing solutions of the peracetic acid formulation of mutually different concentrations, and the plurality of target solutions corresponding to the color samples exhibit an absorbance of 1.5 to light in wavelength ranges different from each other. characterized in that the method comprises a step of disposing a light-transmissive container containing a target solution in which a reagent of a predetermined concentration is added to a solution of the peracetic acid formulation side by side with a plurality of color samples (15a-15f), wherein the reagent is potassium iodide, the peracetic acid formulation is for food use, and the concentration of the peracetic acid formulation is in the range of 50 mg/L to 500 mg/L, and in that the method further comprises a step of visually identifying transmitted light transmitted through the container with one of the plurality of color samples by comparing the color of the transmitted light from the container with the colors of the color samples so that the concentration of the peracetic acid formulation contained in the target solution is able to be determined, wherein each of the plurality of color samples exhibits a color corresponding to a respective one of a plurality of the target solutions containing solutions of the peracetic acid formulation of mutually different concentrations, and the plurality of target solutions corresponding to the color samples exhibit an absorbance of 1.5 to light in wavelength ranges different from each other.
Computer-implemented method for dividing a virtual three-dimensional overall model of a body , representing a virtual image of a body to be manufactured, into at least two virtual partial models , so that the body can be manufactured in a limited production area of an additive manufacturing device , comprising the following steps: - Providing a three-dimensional virtual base body and filling the base body with a plurality of unit cells , wherein each of said unit cells comprises multiple edges and a cell surface defining the outer shape of the respective unit cell ; - Creating a virtual separating surface for the overall model of the body , which has a three-dimensional cell-conforming shape, i.e., a shape that follows the geometry, shape, outer surface and/or contour of the unit cells ; - Creating the overall model of the body with a lattice structure formed from a plurality of cells , wherein the unit cells are replaced by struts extending along the edges of the unit cells and representing bodies with a volume; and - Dividing the overall model along the cell-conforming separating surface into two partial models , wherein common struts of the lattice structure , which are each part of at least one cell of one partial model and part of at least one adjacent cell of the other partial model are divided by means of the cell-conforming separating surface in such a way that the corresponding cells remain closed. - Providing a three-dimensional virtual base body and filling the base body with a plurality of unit cells , wherein each of said unit cells comprises multiple edges and a cell surface defining the outer shape of the respective unit cell ; - Creating a virtual separating surface for the overall model of the body , which has a three-dimensional cell-conforming shape, i.e., a shape that follows the geometry, shape, outer surface and/or contour of the unit cells ; - Creating the overall model of the body with a lattice structure formed from a plurality of cells , wherein the unit cells are replaced by struts extending along the edges of the unit cells and representing bodies with a volume; and - Dividing the overall model along the cell-conforming separating surface into two partial models ,
A semiconductor apparatus comprising: a semiconductor device ; an on-semiconductor-device metal pad electrically connected to the semiconductor device ; a metal interconnect electrically connected to the semiconductor device ; a through electrode electrically connected to the metal interconnect ; a solder bump electrically connected to the metal interconnect ; a first insulating layer on which the semiconductor device is placed; a second insulating layer formed on the semiconductor device ; a third insulating layer formed on the second insulating layer , wherein the metal interconnect is electrically connected to the semiconductor device via the on-semiconductor-device metal pad at an upper surface of the second insulating layer , and the metal interconnect penetrates the second insulating layer from the upper surface of the second insulating layer and is electrically connected to the through electrode at an lower surface of the second insulating layer , an under-semiconductor-device metal interconnect is disposed between the first insulating layer and the semiconductor device , and the under-semiconductor-device metal interconnect is electrically connected to the metal interconnect at the lower surface of the second insulating layer , and the first insulating layer is formed by a photo-curable dry film, the second insulating layer is formed by the photo-curable dry film, and the third insulating layer is formed by the photo-curable dry film or a photo-curable resist coating film. the metal interconnect is electrically connected to the semiconductor device via the on-semiconductor-device metal pad at an upper surface of the second insulating layer , and the metal interconnect penetrates the second insulating layer from the upper surface of the second insulating layer and is electrically connected to the through electrode at an lower surface of the second insulating layer , an under-semiconductor-device metal interconnect is disposed between the first insulating layer and the semiconductor device , and the under-semiconductor-device metal interconnect is electrically connected to the metal interconnect at the lower surface of the second insulating layer , and the first insulating layer is formed by a photo-curable dry film, the second insulating layer is formed by the photo-curable dry film, and the third insulating layer is formed by the photo-curable dry film or a photo-curable resist coating film.
A method for charging a pool cleaning robot, the method comprises: wirelessly charging a first wireless charging element of a pool cleaning robot; wherein the method is characterized by : positioning the first wireless charging element within a charging range of a second wireless charging element of a floating unit; wherein the floating unit is electrically and mechanically coupled to an external power source ,wherein the positioning comprises moving at least one of the pool cleaning robot and the floating unit; and wherein the wirelessly charging comprises wirelessly charging , by the second wireless charging element, the first wireless charging element, wherein the charging occurs while maintaining the first wireless charging element within the charging range of the floating unit, despite movements of the floating unit. wirelessly charging a first wireless charging element of a pool cleaning robot; wherein the method is characterized by : positioning the first wireless charging element within a charging range of a second wireless charging element of a floating unit; wherein the floating unit is electrically and mechanically coupled to an external power source ,wherein the positioning comprises moving at least one of the pool cleaning robot and the floating unit; and wherein the wirelessly charging comprises wirelessly charging , by the second wireless charging element, the first wireless charging element, wherein the charging occurs while maintaining the first wireless charging element within the charging range of the floating unit, despite movements of the floating unit. positioning the first wireless charging element within a charging range of a second wireless charging element of a floating unit; wherein the floating unit is electrically and mechanically coupled to an external power source ,wherein the positioning comprises moving at least one of the pool cleaning robot and the floating unit; and wherein the wirelessly charging comprises wirelessly charging , by the second wireless charging element, the first wireless charging element, wherein the charging occurs while maintaining the first wireless charging element within the charging range of the floating unit, despite movements of the floating unit.
A treatment device for performing a treatment operation on or to a subject, wherein the treatment device is configured for providing one or more images to a processing unit for determination of whether the treatment device is in contact with skin, wherein the treatment device further comprises: an optical diffuser arranged on the treatment device such that an outer surface of the optical diffuser is proximate to, or in contact with, the skin of the subject when the treatment device is to be used to perform the treatment operation; and an imaging unit for obtaining the one or more images using light characterized in that the light is passing through the optical diffuser from the skin into the treatment device an optical diffuser arranged on the treatment device such that an outer surface of the optical diffuser is proximate to, or in contact with, the skin of the subject when the treatment device is to be used to perform the treatment operation; and an imaging unit for obtaining the one or more images using light characterized in that the light is passing through the optical diffuser from the skin into the treatment device
A method of replacing a plurality of yaw pads, arranged between a tower and a nacelle of a wind turbine, with new yaw pads, the method comprising: determining the center of gravity of the nacelle; based on the center of gravity, selecting a set of the plurality of yaw pads; substituting each of the selected yaw pads with a shim, each of the substituted shims comprising a thickness greater than the substituted yaw pad, wherein the nacelle is balanced on the shims after the replacements; replacing the remaining of the plurality of yaw pads with new yaw pads after substituting; and after the remaining of the plurality of yaw pads are replaced, replacing the shims with new yaw pads. determining the center of gravity of the nacelle; based on the center of gravity, selecting a set of the plurality of yaw pads; substituting each of the selected yaw pads with a shim, each of the substituted shims comprising a thickness greater than the substituted yaw pad, wherein the nacelle is balanced on the shims after the replacements; replacing the remaining of the plurality of yaw pads with new yaw pads after substituting; and after the remaining of the plurality of yaw pads are replaced, replacing the shims with new yaw pads.
An abrasive article , comprising: a body; and a plurality of Z-shaped abrasive segments extending from a face of the body, characterized in that the Z-shaped abrasive segments comprise a segment including a plurality of outer peripheral serrations formed in an outer circumferential wall of the segment. a body; and a plurality of Z-shaped abrasive segments extending from a face of the body, characterized in that the Z-shaped abrasive segments comprise a segment including a plurality of outer peripheral serrations formed in an outer circumferential wall of the segment.
A method for colouring hair comprising: a) carrying out the following sequence of steps: i) applying a first composition comprising at least one cationic polymer to a first portion of the hair; and ii) applying a second composition comprising at least one anionic polymer to a second portion of the hair; the first and the second portions of the hair having at least one common area; and b) repeating step a) at least once, wherein the common area of each of the repeated steps a) has at least one common area with: - the common area of step a); and - the common area of each of the other repeated steps a), in case step a) is repeated more than once; wherein in step a) and/or in at least one of the repeated steps a), the cationic polymer is a cationic coloured polymer and/or the anionic polymer is an anionic coloured polymer. a) carrying out the following sequence of steps: i) applying a first composition comprising at least one cationic polymer to a first portion of the hair; and ii) applying a second composition comprising at least one anionic polymer to a second portion of the hair; the first and the second portions of the hair having at least one common area; and i) applying a first composition comprising at least one cationic polymer to a first portion of the hair; and ii) applying a second composition comprising at least one anionic polymer to a second portion of the hair; b) repeating step a) at least once, wherein the common area of each of the repeated steps a) has at least one common area with: - the common area of step a); and - the common area of each of the other repeated steps a), in case step a) is repeated more than once; wherein in step a) and/or in at least one of the repeated steps a), the cationic polymer is a cationic coloured polymer and/or the anionic polymer is an anionic coloured polymer. - the common area of step a); and - the common area of each of the other repeated steps a), in case step a) is repeated more than once;
A transport refrigeration system comprising: a container having a doorway with at least one door ; and a refrigeration system including: a reversible first fan for driving a first air flow along an air flowpath; a heat absorption exchanger along the air flowpath for cooling the air; and a second fan positioned to in at least one mode of operation drive a second air flow including an air curtain flow (520-1) downward across the doorway, wherein the second air flow has an exterior inlet . a container having a doorway with at least one door ; and a refrigeration system including: a reversible first fan for driving a first air flow along an air flowpath; a heat absorption exchanger along the air flowpath for cooling the air; and a second fan positioned to in at least one mode of operation drive a second air flow including an air curtain flow (520-1) downward across the doorway, wherein the second air flow has an exterior inlet . a reversible first fan for driving a first air flow along an air flowpath; a heat absorption exchanger along the air flowpath for cooling the air; and a second fan positioned to in at least one mode of operation drive a second air flow including an air curtain flow (520-1) downward across the doorway, wherein the second air flow has an exterior inlet .
Filter system for filtering a fluid, comprising - a filter housing having a housing upper part and a housing lower part which extend along a housing axis (M), - an outlet port disposed at the housing upper part for discharging the filtered fluid, - a non-return valve disposed inside the outlet port , - a filter element separating a raw fluid side from a clean fluid side , wherein the filter element features a valve seat for the non-return valve , wherein the non-return valve , in a closed position (P1), closes a fluid path through the outlet port and, in an open position (P2), opens the fluid path through the outlet port , wherein the filter element comprises a filter bellows disposed around its longitudinal axis (L), wherein the filter element features a pipe connection having an opening in a longitudinal axis (L) of the filter element for evacuating the filtered fluid from the interior of the filter bellows , wherein the pipe connection is designed as valve seat , wherein the pipe connection is provided as actuation member , wherein a valve holder is disposed inside the outlet port , the closure member resting in the removed state of the filter element on said valve holder, in particular wherein, in the installed state of the filter element , the pipe connection of the filter element projects through the valve holder . - a filter housing having a housing upper part and a housing lower part which extend along a housing axis (M), - an outlet port disposed at the housing upper part for discharging the filtered fluid, - a non-return valve disposed inside the outlet port , - a filter element separating a raw fluid side from a clean fluid side , wherein the filter element features a valve seat for the non-return valve ,
Interface device for tensioning or relaxing a bolt in a nut-and-bolt assembly , wherein the bolt extends in an axial direction, wherein the interface device comprises a frame having a first end portion (100-1) and a second end portion (100-2), opposite to the first end portion (100-1), the first end portion (100-1) of the frame being provided with a rotatably-mounted nut ring for receiving and rotating a conventional nut provided on the bolt in operational use of the interface device , the second end portion (100-2) of the frame comprising a mechanical tensioner nut being configured for reacting on the frame and for receiving a part of the bolt that extends beyond the conventional nut in operational use of the interface device , the mechanical tensioner nut being further configured for being driven by a low-pressure torque tension tool to tension or relax the bolt in operational use of the interface device , characterised in that the mechanical tensioner nut comprises a first part connectable with said bolt to pull said bolt in the axial direction for elongating said bolt and thereby for tensioning said bolt, or to relax said bolt by shortening said bolt, wherein said mechanical tensioner nut further comprises a second part connected with said first part , and a friction element configured for cooperating with at least one of said parts , said second part being freely rotatable relative to said friction element while freely abutting against said friction element , said first part having a threaded outer surface and said second part having a threaded inner surface for cooperating with said threaded outer surface of said first part , so that, when the second part is rotated in a transverse direction (TD) around a virtual axis (VA) that extends in an axial direction (AD) of the mechanical tensioner nut , said first part moves only in the axial direction (AD) so as to tension or relax said bolt , wherein the direction into which said first part moves depends on the rotational direction of the second part ..
A contact probe for electrically connecting a contact point of an object to be tested and a contact point of a test circuit, the contact probe comprising: a first plunger configured to contact the contact point of the object to be tested, a second plunger configured to contact the contact point of the test circuit, a barrel made of conductive metal and configured to support at least one of the first plunger and the second plunger to slide therein, and a spring configured to be interposed between the first plunger and the second plunger within the barrel , wherein one of the first plunger and the second plunger comprises an opening hole to accommodate one end of the spring , and the other one of the first plunger and the second plunger includes a stem arranged to be accommodated in the opening hole , and wherein one of the first plunger and the second plunger comprises an insulating member , and the opening hole is formed in the insulating member . a first plunger configured to contact the contact point of the object to be tested, a second plunger configured to contact the contact point of the test circuit, a barrel made of conductive metal and configured to support at least one of the first plunger and the second plunger to slide therein, and a spring configured to be interposed between the first plunger and the second plunger within the barrel , wherein one of the first plunger and the second plunger comprises an opening hole to accommodate one end of the spring , and the other one of the first plunger and the second plunger includes a stem arranged to be accommodated in the opening hole , and wherein one of the first plunger and the second plunger comprises an insulating member , and the opening hole is formed in the insulating member .
A measurement sensor package , comprising: a substrate with a plate-shaped including a plurality of dielectric layers stacked on one another, the substrate having a first surface , a first recess which has an opening in the first surface and is configured to accommodate a light emitter and a second recess which has an opening in the first surface and is configured to accommodate a light receiver; a lid covering the first surface of the substrate , the lid with a plate-shaped made of an insulating material and being optically transmissive, the lid being contactable with a measurement object and having a facing surface facing the first surface ; a bond extending continuously along four sides of the first surface of the substrate and configured to bond the first surface of the substrate and the facing surface of the lid facing the first surface together, the bond being electrically conductive and light-shielding; a ground conductor layer surrounding the opening of the second recess on the substrate , the ground conductor layer being conductive; and a metallic thin layer on the facing surface , the metallic thin layer having an aperture to regulate light receivable by the light receiver, the ground conductor layer and the metallic thin layer being electrically connected to each other with the bond , and being arranged inside a periphery of the bond as viewed through from above. a substrate with a plate-shaped including a plurality of dielectric layers stacked on one another, the substrate having a first surface , a first recess which has an opening in the first surface and is configured to accommodate a light emitter and a second recess which has an opening in the first surface and is configured to accommodate a light receiver; a lid covering the first surface of the substrate , the lid with a plate-shaped made of an insulating material and being optically transmissive, the lid being contactable with a measurement object and having a facing surface facing the first surface ; a bond extending continuously along four sides of the first surface of the substrate and configured to bond the first surface of the substrate and the facing surface of the lid facing the first surface together, the bond being electrically conductive and light-shielding; a ground conductor layer surrounding the opening of the second recess on the substrate , the ground conductor layer being conductive; and a metallic thin layer on the facing surface , the metallic thin layer having an aperture to regulate light receivable by the light receiver, the ground conductor layer and the metallic thin layer being electrically connected to each other with the bond , and being arranged inside a periphery of the bond as viewed through from above.