mhurhangee/patent-ind-claim-en huggingface dataset:
A method of preparing an optical element having a primer layer, the method including: - providing an optical element; - coating a surface of the optical element with a coating composition consisting of: i. an epoxy monomer; ii. a vinyl ether monomer; iii. a cationic photoinitiator; and iv. a solvent; and optionally v. (a) a supplementary polymerisable monomer having greater than one acrylate moiety per molecule and/or a leveling agent; wherein the epoxy monomer and vinyl ether monomer are in amounts effective to form a primer layer on a surface of the optical element after a single polymerization step of cationically polymerizing the coating composition; - cationically polymerising the coating composition to form the primer layer on the surface of the optical element. - providing an optical element; - coating a surface of the optical element with a coating composition consisting of: i. an epoxy monomer; ii. a vinyl ether monomer; iii. a cationic photoinitiator; and iv. a solvent; and optionally v. (a) a supplementary polymerisable monomer having greater than one acrylate moiety per molecule and/or a leveling agent; wherein the epoxy monomer and vinyl ether monomer are in amounts effective to form a primer layer on a surface of the optical element after a single polymerization step of cationically polymerizing the coating composition; i. an epoxy monomer; ii. a vinyl ether monomer; iii. a cationic photoinitiator; and iv. a solvent; and optionally v. (a) a supplementary polymerisable monomer having greater than one acrylate moiety per molecule and/or a leveling agent; - cationically polymerising the coating composition to form the primer layer on the surface of the optical element.
A seat structure for a saddle riding vehicle, the saddle riding vehicle including a pair of main frames and a rider's seat, the seat structure comprising: a mesh seat as the rider's seat, the mesh seat including a seat bottom plate , the seat bottom plate having at least one opening ; and a pipe opening anteriorly with respect to the mesh seat and extending toward the mesh seat , wherein the pipe extends so as to overlap at least one of the main frames toward the at least one opening in the seat bottom plate , in order to send outside air to the seat bottom plate of the mesh seat through the pipe and to the mesh seat by way of the at least one opening . a mesh seat as the rider's seat, the mesh seat including a seat bottom plate , the seat bottom plate having at least one opening ; and a pipe opening anteriorly with respect to the mesh seat and extending toward the mesh seat , wherein the pipe extends so as to overlap at least one of the main frames toward the at least one opening in the seat bottom plate , in order to send outside air to the seat bottom plate of the mesh seat through the pipe and to the mesh seat by way of the at least one opening .
Device for converting a pivoting movement of a pinion into a translational movement of a slide , the device comprising: - a slide support member and a support element connected to the pinion in terms of rotation and connected to the slide in terms of translation, the pinion being mounted with the ability to pivot with respect to the support member , which comprises a fixed tubular wall , the tubular wall being provided with at least one cam surface collaborating with a cam follower mounted on the support element , the pinion being carried by the support member coaxially with respect to the tubular wall, the device being characterized in that - an element (25; 35; 45) forming an angular limit stop is arranged between the slide and the support element , so as to allow two-directional rotation of the support element with respect to the slide over only a given angular portion. - a slide support member and a support element connected to the pinion in terms of rotation and connected to the slide in terms of translation, the pinion being mounted with the ability to pivot with respect to the support member , which comprises a fixed tubular wall , the tubular wall being provided with at least one cam surface collaborating with a cam follower mounted on the support element , the pinion being carried by the support member coaxially with respect to the tubular wall, the device being characterized in that - an element (25; 35; 45) forming an angular limit stop is arranged between the slide and the support element , so as to allow two-directional rotation of the support element with respect to the slide over only a given angular portion.
An image analysis apparatus configured to analyze a skin condition from a video of a face of a subject captured with an imaging part , the image analysis apparatus comprising: a tracking part configured to: - track positions of a plurality of tracking points arranged in advance in an analysis region of the face based on a change in an expression of the face included in the video, and - obtain an amount of strain of a skin in the analysis region based on a change in a distance between the plurality of tracking points; and a skin condition analysis part configured to: - classify a wrinkle with respect to the analysis region, based on the tracking points arranged in the region, and calculate a wrinkle parameter for the classified wrinkle, said wrinkle parameter including at least one of a wrinkle area, a wrinkle length, a wrinkle ratio, and - analyze the skin condition of the subject based on the amount of strain obtained by the tracking part and the calculated wrinkle parameter. a tracking part configured to: - track positions of a plurality of tracking points arranged in advance in an analysis region of the face based on a change in an expression of the face included in the video, and - obtain an amount of strain of a skin in the analysis region based on a change in a distance between the plurality of tracking points; and - track positions of a plurality of tracking points arranged in advance in an analysis region of the face based on a change in an expression of the face included in the video, and - obtain an amount of strain of a skin in the analysis region based on a change in a distance between the plurality of tracking points; and a skin condition analysis part configured to: - classify a wrinkle with respect to the analysis region, based on the tracking points arranged in the region, and calculate a wrinkle parameter for the classified wrinkle, said wrinkle parameter including at least one of a wrinkle area, a wrinkle length, a wrinkle ratio, and - analyze the skin condition of the subject based on the amount of strain obtained by the tracking part and the calculated wrinkle parameter. - classify a wrinkle with respect to the analysis region, based on the tracking points arranged in the region, and calculate a wrinkle parameter for the classified wrinkle, said wrinkle parameter including at least one of a wrinkle area, a wrinkle length, a wrinkle ratio, and - analyze the skin condition of the subject based on the amount of strain obtained by the tracking part and the calculated wrinkle parameter.
A method for growing cells or microorganisms, the method comprising: operating a mixing element within a compartment of a container so that the mixing element mixes a solution within the compartment, the solution having a first volume and comprising media and cells or microorganisms, the mixing element being operated during growth of the cells or microorganisms; sensing one or more processing variables of the solution within the compartment, the one or more processing variables being selected from the group consisting of gassing rate, pH, dissolved O 2 , dissolved CO 2 , conductivity, optical density, viscosity, or flow pattern of the solution; and adjusting a horizontal position, vertical position, tilt, or movement pattern along a two dimensional path or three dimensional path of the mixing element within the compartment based on the sensed one or more processing variables of the solution, the mixing element comprising an impeller and the step of operating the mixing element comprising rotating the impeller. operating a mixing element within a compartment of a container so that the mixing element mixes a solution within the compartment, the solution having a first volume and comprising media and cells or microorganisms, the mixing element being operated during growth of the cells or microorganisms; sensing one or more processing variables of the solution within the compartment, the one or more processing variables being selected from the group consisting of gassing rate, pH, dissolved O 2 , dissolved CO 2 , conductivity, optical density, viscosity, or flow pattern of the solution; and adjusting a horizontal position, vertical position, tilt, or movement pattern along a two dimensional path or three dimensional path of the mixing element within the compartment based on the sensed one or more processing variables of the solution, the mixing element comprising an impeller and the step of operating the mixing element comprising rotating the impeller.
A wheel balancing device for balancing spoked wheels , comprising: a rotatable holding device configured to receive and rotatably support a spoked wheel to be balanced; at least one spoke sensor configured to detect the spokes of the spoked wheel , characterized in that the wheel balancing device comprises in addition an angular position sensor and an evaluation device , the angular position sensor being configured to detect the current angular position of the spoked wheel , and the evaluation device being configured to determine the position of the spokes along the circumference of the spoked wheel by combining signals delivered by the angular position sensor and the spoke sensor , while the spoked wheel is accelerated or decelerated. a rotatable holding device configured to receive and rotatably support a spoked wheel to be balanced; at least one spoke sensor configured to detect the spokes of the spoked wheel , characterized in that the wheel balancing device comprises in addition an angular position sensor and an evaluation device , the angular position sensor being configured to detect the current angular position of the spoked wheel , and the evaluation device being configured to determine the position of the spokes along the circumference of the spoked wheel by combining signals delivered by the angular position sensor and the spoke sensor , while the spoked wheel is accelerated or decelerated.
A device for reading out a test kit for the detection of biomarkers, containing an opaque housing, a holding device for fixing a functional layer with or without a cassette, a functional layer with antibodies fixed thereon for the immunological detection of an antigen and/or a functional layer with antigens fixed thereon for the immunological detection of an antibody, a transmitter for controlled illumination of the functional layer, wherein the transmitter can emit light of different wavelengths in a controlled manner, a receiver to determine the reflected or transmitted light, a processor for controlling the transmitter, the receiver, and for signal conditioning, a display device for displaying the result, wherein the device is controlled by means of software running on the processor, wherein the control causes the transmitter to successively emit light of at least 2 different wavelength ranges, the signal conditioning only evaluates the brightness signal (Y-signal} of the receiver, repeats the measuring cycle once or several times (2 - 5 times), evaluates and displays the measured signals via digital image processing. an opaque housing, a holding device for fixing a functional layer with or without a cassette, a functional layer with antibodies fixed thereon for the immunological detection of an antigen and/or a functional layer with antigens fixed thereon for the immunological detection of an antibody, a transmitter for controlled illumination of the functional layer, wherein the transmitter can emit light of different wavelengths in a controlled manner, a receiver to determine the reflected or transmitted light, a processor for controlling the transmitter, the receiver, and for signal conditioning, a display device for displaying the result, wherein the device is controlled by means of software running on the processor, wherein the control causes the transmitter to successively emit light of at least 2 different wavelength ranges, the signal conditioning only evaluates the brightness signal (Y-signal} of the receiver, repeats the measuring cycle once or several times (2 - 5 times), evaluates and displays the measured signals via digital image processing.
A measurement device configured to measure a three-dimensional shape of an object for measurement shaped by a shaping device , the measurement device comprising: a projector configured to project a plurality of light lines onto the object for measurement , each light line of the plurality of light lines being projected under a projection condition; an imager configured to capture an image of the object for measurement on which the plurality of light lines are projected; a shape data calculator configured to identify a projection condition of the light lines based on shaping information of the object for measurement and to calculate three-dimensional shape of the object for measurement by calculating a plurality of line shapes from the image captured by the imager , based on the projection condition, characterized in that the shape data calculator is further configured to acquire shape data acquired under ideal conditions, to calculate a predictive pattern data acquired when the light line for the ideal shape is projected while adding an assumed range of shape error for error that is determined by the shaping performance of the shaping device , and to identify the projection condition of the light lines by comparing the predictive image data with the image data captured by the imager . a projector configured to project a plurality of light lines onto the object for measurement , each light line of the plurality of light lines being projected under a projection condition; an imager configured to capture an image of the object for measurement on which the plurality of light lines are projected; a shape data calculator configured to identify a projection condition of the light lines based on shaping information of the object for measurement and to calculate three-dimensional shape of the object for measurement by calculating a plurality of line shapes from the image captured by the imager , based on the projection condition, characterized in that the shape data calculator is further configured to acquire shape data acquired under ideal conditions, to calculate a predictive pattern data acquired when the light line for the ideal shape is projected while adding an assumed range of shape error for error that is determined by the shaping performance of the shaping device , and to identify the projection condition of the light lines by comparing the predictive image data with the image data captured by the imager .
A transgenic Drosophila, wherein genes encoding mammalian β-1,4-galactose transferase and α-2,3-sialyltransferase are introduced, and GM3 ganglioside is expressed.
A channel assembly for fluid conduits, comprising a base profile and a cover profile that is removably fixed to said base profile to form with the latter a closed-section channel intended for housing therein at least one fluid conduit extending longitudinally into said channel , said base profile being formed by a plate that is configured for being fixed to a wall, or to any other flat support, parallel to a main plane of said plate , said plate constituting a bottom wall of said channel and lacking side walls that constitute the side walls of said channel , and said cover profile having a U-shaped cross section with two opposite walls and a transverse wall constituting respective side walls and an upper wall of said channel , respectively, characterized in that said base profile is provided with at least one fin projecting from said plate into said channel , said fin extending in the longitudinal direction of said channel and comprising a wall orthogonal to said main plane of said plate , said wall of the fin being perforated with a plurality of through openings distributed along said fin , each of said through openings having a closed contour and forming an eyelet for the passage of a zip tie which is not part of said channel assembly, and in that said base profile is provided with a plurality of transverse weakening lines distributed along said base profile , each of said weakening lines extending partially into said bottom wall and partially into said fin .
A gas turbine engine comprising: a mid-turbine frame including: an inner frame case ; and at least one spoke connected to the inner frame case , wherein the at least one spoke includes a fluid passage in fluid communication with a channel on a radially inner end of the fluid passage ; and a cavity located radially inward from the mid-turbine frame in fluid communication with the channel ; characterised in that : the channel is directed in a radially inward and circumferential direction, and the channel is located in a plug separate from the at least one spoke and the plug contacts the at least one spoke and is adjacent to the inner frame case . a mid-turbine frame including: an inner frame case ; and at least one spoke connected to the inner frame case , wherein the at least one spoke includes a fluid passage in fluid communication with a channel on a radially inner end of the fluid passage ; and an inner frame case ; and at least one spoke connected to the inner frame case , wherein the at least one spoke includes a fluid passage in fluid communication with a channel on a radially inner end of the fluid passage ; and a cavity located radially inward from the mid-turbine frame in fluid communication with the channel ; characterised in that : the channel is directed in a radially inward and circumferential direction, and the channel is located in a plug separate from the at least one spoke and the plug contacts the at least one spoke and is adjacent to the inner frame case .
A use of microcapsules using latent heat storage materials as the capsule core in a gypsum slurry of gypsum plaster boards, wherein the gypsum contains 0.1% to 5% by weight polymers and 0. 05% to 2% by weight water retention agents, each based on the total dry weight of gypsum and latent heat storage materials, wherein the microcapsules have a capsule wall comprising polymer, an average particle size of 0.5 to 100 μm and a capsule core consisting of >95% by weight latent heat storage materials, and wherein the latent heat storage materials are lipophilic substances having their solid/liquid phase transition in the temperature range from -20 to 120°C.
A method of processing a cell culture, the method comprising: (a) providing an open circuit filtration system comprising a bioreactor comprising a cell culture, a tangential flow filtration (TFF) unit having first and second inlets, a first conduit in fluid communication between the bioreactor and the TFF unit first inlet, and a second conduit in fluid communication between the bioreactor and the TFF unit second inlet, and at least one pump disposed within the system for flowing fluid through the system, wherein the system is configured such that fluid can be flowed reversibly through the system from or to the bioreactor and through the first and second conduits and the TFF unit via the at least one pump, and filtrate can be collected from the TFF unit; (b) flowing cell culture from the bioreactor through the first and second conduits and the TFF unit in a first flow direction for a first period of time, (c) reversing the first flow direction and flowing the cell culture through the first and second conduits and the TFF unit in a second flow direction for a second period of time; (d) reversing the second flow direction and flowing the culture through the first and second conduits and the TFF unit in the first flow direction for a third period of time; (e) repeating steps (c) - (d) at least two times; and (f) collecting the filtrate. (a) providing an open circuit filtration system comprising a bioreactor comprising a cell culture, a tangential flow filtration (TFF) unit having first and second inlets, a first conduit in fluid communication between the bioreactor and the TFF unit first inlet, and a second conduit in fluid communication between the bioreactor and the TFF unit second inlet, and at least one pump disposed within the system for flowing fluid through the system, wherein the system is configured such that fluid can be flowed reversibly through the system from or to the bioreactor and through the first and second conduits and the TFF unit via the at least one pump, and filtrate can be collected from the TFF unit; (b) flowing cell culture from the bioreactor through the first and second conduits and the TFF unit in a first flow direction for a first period of time, (c) reversing the first flow direction and flowing the cell culture through the first and second conduits and the TFF unit in a second flow direction for a second period of time; (d) reversing the second flow direction and flowing the culture through the first and second conduits and the TFF unit in the first flow direction for a third period of time; (e) repeating steps (c) - (d) at least two times; and (f) collecting the filtrate.
Flexible boot which comprises an external bottom assembly and an upper , the upper itself comprising a bottom portion and a top portion , the boot extending lengthwise from a rear end to a front end , width-wise between a lateral side and a medial side , and height-wise from the bottom assembly to an upper end , the bottom portion extending at the rear end , at the lateral side , at the front end and at the medial side , the top portion comprising a lateral wall and a medial wall , the lateral wall having a rear edge , an upper edge and a front edge , the medial wall having a rear edge , an upper edge and a front edge , the lateral wall and medial wall delimiting a rear opening , an upper opening and a front opening , the upper opening communicating with the rear opening and with the front opening , the upper comprising a cover for closing the rear opening , the cover having a lower edge , an upper edge , a lateral end and a medial end , the cover being connected to the rest of the upper by a rear hinge , the axis of which is transverse, the hinge along the cover to be inclined towards the rear or towards the front, the boot comprising a tightening means that urges the cover towards the front, and a means for limiting the inclination of the cover towards the front.
Blade for a turbomachine, comprising an airfoil having at least one thicker portion on a pressure side of the airfoil , the thicker portion extending from a radially outer end region or end of the airfoil over a maximum of 20% and a minimum of 5% of a radial extent of the airfoil , characterized in that - the thicker portion has a region (B) of constant thickness (D), - the region (B) of constant thickness (D) has a surface area which corresponds to at least 20% of a total surface area of the thicker portion , - the region (B) of constant thickness (D) is at least substantially rectangular, - the thicker portion comprises at least one edge region (R), the thickness (D) of which decreases continuously from the region (B) of constant thickness (D) to a normal profile thickness of the airfoil without the thicker portion , and - the edge region (R) surrounds the region (B) of constant thickness (D) in a U-shaped manner. - the thicker portion has a region (B) of constant thickness (D), - the region (B) of constant thickness (D) has a surface area which corresponds to at least 20% of a total surface area of the thicker portion , - the region (B) of constant thickness (D) is at least substantially rectangular, - the thicker portion comprises at least one edge region (R), the thickness (D) of which decreases continuously from the region (B) of constant thickness (D) to a normal profile thickness of the airfoil without the thicker portion , and - the edge region (R) surrounds the region (B) of constant thickness (D) in a U-shaped manner.