mhurhangee/ep-ind-claims huggingface dataset:
A liquid crystal display device comprising: first and second substrates (11, 12); a liquid crystal layer filled between the first and second substrates (11, 12); a pixel electrode which is provided on the first substrate in such a manner as to correspond to a pixel, and has a rectangular shape; a first common electrode provided on the second substrate; a color filter provided on the first common electrode; and a second common electrode which is provided on the color filter, includes an opening portion disposed in such a manner as to overlap the pixel electrode, and is electrically connected to the first common electrode, wherein the opening portion entirely overlaps the pixel electrode. first and second substrates (11, 12); a liquid crystal layer filled between the first and second substrates (11, 12); a pixel electrode which is provided on the first substrate in such a manner as to correspond to a pixel, and has a rectangular shape; a first common electrode provided on the second substrate; a color filter provided on the first common electrode; and a second common electrode which is provided on the color filter, includes an opening portion disposed in such a manner as to overlap the pixel electrode, and is electrically connected to the first common electrode, wherein the opening portion entirely overlaps the pixel electrode.
A method of controlling a lighting system comprising a plurality of illumination sources arranged to emit light for illuminating a scene, the lighting system being operable to vary at least color and intensity of the light at each location of an array of locations over at least two spatial dimensions of the scene by mapping color values from different positions in the static image to corresponding locations of said array of locations by varying the intensity of light of the corresponding color at each location of the array of locations, and the method comprising: receiving as a user selection from a user a static picture having different color values at different positions; receiving as a second user selection from the user one or more algorithms selected by the user from amongst a plurality of predetermined algorithms; and characterized in that the method further comprises creating a dynamic lighting effect by using the static picture in combination with the one or more algorithms, each algorithm representing motion, in order to create the appearance of motion of a plurality of discrete, virtual lighting objects, wherein each of the virtual lighting objects acts as a color picker moving across the static picture and across the scene, taking over the color at its present location such that the intensity of the light at that location is turned on or dimmed up, with the corresponding color, while the light at the other locations in the array is turned off or dimmed down, wherein the motion of each of the virtual lighting objects being related but not coincident. receiving as a user selection from a user a static picture having different color values at different positions; receiving as a second user selection from the user one or more algorithms selected by the user from amongst a plurality of predetermined algorithms; and characterized in that the method further comprises creating a dynamic lighting effect by using the static picture in combination with the one or more algorithms, each algorithm representing motion, in order to create the appearance of motion of a plurality of discrete, virtual lighting objects, wherein each of the virtual lighting objects acts as a color picker moving across the static picture and across the scene, taking over the color at its present location such that the intensity of the light at that location is turned on or dimmed up, with the corresponding color, while the light at the other locations in the array is turned off or dimmed down, wherein the motion of each of the virtual lighting objects being related but not coincident.
Oven arrangement, adapted to heat preform building material arranged on at least one plate-like carrier for producing preform building elements used for building a rotor blade of a wind turbine, comprising at least one oven and at least one lifting means, wherein the oven comprises a housing adapted to receive the carrier, wherein the housing comprises an opening at a bottom side of the housing for positioning the carrier in the interior of the housing by lowering the oven over the carrier using the lifting means, wherein the oven comprises at least one heating means and/or wherein the oven is connectable to a heat supplying means.
A sensing system (102, 200, 400, 500) for a guidance system, the sensing system comprising: a detector (206, 406, 506); an aperture lens (202, 402, 502); and a lightpipe (204, 300, 404, 504) arranged to receive electromagnetic radiation from the aperture lens (202, 402, 502) and guide the electromagnetic radiation to the detector (206, 406, 506), wherein the lightpipe (204, 300, 404, 504) comprises a bundle of fused optical fiber cladding, wherein the bundle of fused optical fiber cladding comprises a plurality of optical fibers fused together, each of the optical fibers of the bundle including cladding without a core, wherein the cladding is selected to have appropriate indices of refraction for electromagnetic wavelengths used by the guidance system, in order to facilitate propagation of the wavelengths through the bundle of fused optical fiber cladding. a detector (206, 406, 506); an aperture lens (202, 402, 502); and a lightpipe (204, 300, 404, 504) arranged to receive electromagnetic radiation from the aperture lens (202, 402, 502) and guide the electromagnetic radiation to the detector (206, 406, 506), wherein the lightpipe (204, 300, 404, 504) comprises a bundle of fused optical fiber cladding, wherein the bundle of fused optical fiber cladding comprises a plurality of optical fibers fused together, each of the optical fibers of the bundle including cladding without a core, wherein the cladding is selected to have appropriate indices of refraction for electromagnetic wavelengths used by the guidance system, in order to facilitate propagation of the wavelengths through the bundle of fused optical fiber cladding.
Production method of PDMS-I based antimicrobial solution characterized by the following steps: - Activation of Polydimethylsiloxane (PDMS) with sulfuric acid, - Diluting PDMS and sulfuric acid solution with isopropyl alcohol, - Heating the solution, - Cooling down the transparent solution obtained and adding iodine, - After adding iodine, mixing the solution to obtain a solution made up of PDMS-I complex. - Activation of Polydimethylsiloxane (PDMS) with sulfuric acid, - Diluting PDMS and sulfuric acid solution with isopropyl alcohol, - Heating the solution, - Cooling down the transparent solution obtained and adding iodine, - After adding iodine, mixing the solution to obtain a solution made up of PDMS-I complex. - Diluting PDMS and sulfuric acid solution with isopropyl alcohol, - Heating the solution, - Cooling down the transparent solution obtained and adding iodine, - After adding iodine, mixing the solution to obtain a solution made up of PDMS-I complex.
Shoe, in particular sports shoe, which has a shoe upper part and a sole which is connected to the shoe upper part, wherein the shoe upper part and the sole are connected to one another by means of a connection element, wherein the connection element is a longitudinally extending, profiled moulded part that has an upper stripe-shaped section and wherein the shoe upper part has a stripe-shaped upper part section in its region that adjoins the sole, which stripe-shaped upper part section is connected to the strip-shaped section of the connecting element, characterized in that the connection element comprises a lower fork-shaped section which has two fork sections (7, 8), wherein the sole has a stripe-shaped sole section in its region that adjoins the shoe upper part, which strip-shaped sole section extends between the two fork sections (7, 8) and is connected to at least one of the fork sections (7, 8).
An air cooling machine comprising a compressor whose inlet is connected to an air outlet of a cooling chamber via a heat exchanger, whereby a compressor outlet is connected to an air inlet of the cooling chamber via a cooler, the heat exchanger and a turbodetander, the turbodetander being coupled to a motor of the compressor, wherein downstream of the outlet of the compressor is for defrosting air conduits and/or the heat exchanger connected a bypass air conduit into which is inserted a bypass valve which is openable for defrosting the air conduits and/or the heat exchanger (3, wherein when the bypass valve opens, the supply of cooling air or cooling water to the cooler is closed, and a bypass air conduit continuing from the bypass valve terminates downstream of an outlet of the turbodetander, upstream of the heat exchanger and is configured for supplying warm air from the compressor outlet, whereby a first and second three-way valve are arranged inside the cooling chamber respectively at the air inlet of the cooling chamber and at the air outlet of the cooling chamber or a four-way two-position valve is arranged inside the cooling chamber at the air inlet of the cooling chamber and at the air outlet of the cooling chamber, whereby the first and second three-way valve or the four-way two-position valve are displaceable to a position in which the supplied air does not enter the cooling chamber, but returns from the first and second three-way valve or the four-way two-position valve via the heat exchanger to the compressor for defrosting the air conduits and/or the heat exchanger when the bypass valve opens, whereby upstream of the air outlet of the cooling chamber, a dehumidifier is arranged in the cooling chamber.
A semiconductor device comprising a first substrate (2, 12), at least one semiconductor chip directly or indirectly mounted to the first substrate (2, 12), a white insulating layer (14, 24) formed on a surface of the first substrate (2, 12) and functioning as a reflecting material, and a wiring (13, 23) formed on the white insulating layer (14, 24), wherein at least the surface of the first substrate (2, 12) is made of a metal, and the white insulating layer (14, 24) is formed on the surface of the first substrate (2, 12) by coating a liquid material, which contains SiO 2 in the form of nanoparticles and white inorganic pigment particles, and by baking the coated liquid material, and wherein a content of inorganic material in the white insulating layer (14, 24) is 95 % by weight or greater, and wherein a content of the white inorganic pigment in the white insulating layer (14, 24) is greater than 40 % by weight, and a content of the SiO 2 particles in the white insulating layer (14, 24) is 25 % by weight or greater. a first substrate (2, 12), at least one semiconductor chip directly or indirectly mounted to the first substrate (2, 12), a white insulating layer (14, 24) formed on a surface of the first substrate (2, 12) and functioning as a reflecting material, and a wiring (13, 23) formed on the white insulating layer (14, 24), wherein at least the surface of the first substrate (2, 12) is made of a metal, and the white insulating layer (14, 24) is formed on the surface of the first substrate (2, 12) by coating a liquid material, which contains SiO 2 in the form of nanoparticles and white inorganic pigment particles, and by baking the coated liquid material, and wherein a content of inorganic material in the white insulating layer (14, 24) is 95 % by weight or greater, and wherein a content of the white inorganic pigment in the white insulating layer (14, 24) is greater than 40 % by weight, and a content of the SiO 2 particles in the white insulating layer (14, 24) is 25 % by weight or greater.
A method for characterizing a lighting environment using thermal imaging, the method comprising the steps of: providing a lighting unit comprising a light source, a thermal imager, and a controller; obtaining, using the thermal imager, one or more thermal images of one or more surfaces within the lighting environment; the method characterized by: extracting, by the controller using the one or more thermal images, a thermal signature on the one or more surfaces within the lighting environment, wherein the thermal signature results from a thermal shadow cast by an object within the lighting environment; determining according to one or more extraction algorithms, from the thermal signature, a depth queue for the object; and characterizing, by the controller using the determined depth queue, the lighting environment; wherein the step of characterizing the lighting environment comprises identifying the object, determining a height of the object, determining an orientation of the object, or localizing the object within the lighting environment, and wherein the lighting environment is characterized for adjusting or adapting a light profile emitted by the light source. providing a lighting unit comprising a light source, a thermal imager, and a controller; obtaining, using the thermal imager, one or more thermal images of one or more surfaces within the lighting environment; extracting, by the controller using the one or more thermal images, a thermal signature on the one or more surfaces within the lighting environment, wherein the thermal signature results from a thermal shadow cast by an object within the lighting environment; determining according to one or more extraction algorithms, from the thermal signature, a depth queue for the object; and characterizing, by the controller using the determined depth queue, the lighting environment;
An arrangement for a device for use with a service involving play out of audio from a headset having two earpieces, comprising an application for providing said play out of audio to a user of the device, wherein said application has at least two modes of operation including a first active mode (111, 220) and a second active mode (112, 240), wherein said first active mode (111, 220) corresponds to the headset being in full physical contact with said user corresponding to both earpieces being in full physical contact with the user and said second active mode (112, 240) corresponds to the headset being in less than full physical contact with said user corresponding to at least one of the earpieces being removed from the ear of the user, wherein detection of full physical contact of the headset with said user causes the application to be in said first active mode (111, 220) and detection of less than full physical contact of the headset with said user causes the application to switch to the second active mode (112, 240), wherein said first active mode (111, 220) corresponds to full operation of a microphone and speakers of said headset, and when the application operates in the second active mode (112, 240), audio signals from said microphone of said headset are discarded so as to mute said microphone of said headset.
A compound represented by Formula 1 below: in Formula 1, X is O or S, Ar 1 is any one selected from the group consisting of the following functional groups: wherein, Y 11, Y 12 and Y 13 are each independently -CH or N, with the proviso that at least one of Y 11, Y 12 and Y 13 is N, Y 21, Y 22, Y 23 and Y 24 are each independently -CH or N, with the proviso that at least one of Y 21, Y 22, Y 23 and Y 24 is N, Ar 4 and Ar 5 are each independently selected from the group consisting of hydrogen, deuterium, an alkyl having 1 to 20 carbon atoms, an aryl having 6 to 20 carbon atoms, and a heteroaryl having 3 to 20 carbon atoms containing at least one of N, Si and S, R 1 and R 2 are each independently selected from the group consisting of hydrogen, deuterium, an alkyl having 1 to 20 carbon atoms, and an aryl having 6 to 20 carbon atoms, and p, q and r are each independently an integer of 1 or 2, Ar 2 is a functional group of Formula 2 below, with the proviso that Ar 1 and Ar 2 are different from each other, in Formula 2, Ar 3 is an aryl having 6 to 20 carbon atoms, and m is an integer of 0 to 2. X is O or S, Ar 1 is any one selected from the group consisting of the following functional groups: wherein, Y 11, Y 12 and Y 13 are each independently -CH or N, with the proviso that at least one of Y 11, Y 12 and Y 13 is N, Y 21, Y 22, Y 23 and Y 24 are each independently -CH or N, with the proviso that at least one of Y 21, Y 22, Y 23 and Y 24 is N, Ar 4 and Ar 5 are each independently selected from the group consisting of hydrogen, deuterium, an alkyl having 1 to 20 carbon atoms, an aryl having 6 to 20 carbon atoms, and a heteroaryl having 3 to 20 carbon atoms containing at least one of N, Si and S, R 1 and R 2 are each independently selected from the group consisting of hydrogen, deuterium, an alkyl having 1 to 20 carbon atoms, and an aryl having 6 to 20 carbon atoms, and p, q and r are each independently an integer of 1 or 2, Y 11, Y 12 and Y 13 are each independently -CH or N, with the proviso that at least one of Y 11, Y 12 and Y 13 is N, Y 21, Y 22, Y 23 and Y 24 are each independently -CH or N, with the proviso that at least one of Y 21, Y 22, Y 23 and Y 24 is N, Ar 4 and Ar 5 are each independently selected from the group consisting of hydrogen, deuterium, an alkyl having 1 to 20 carbon atoms, an aryl having 6 to 20 carbon atoms, and a heteroaryl having 3 to 20 carbon atoms containing at least one of N, Si and S, R 1 and R 2 are each independently selected from the group consisting of hydrogen, deuterium, an alkyl having 1 to 20 carbon atoms, and an aryl having 6 to 20 carbon atoms, and p, q and r are each independently an integer of 1 or 2, Ar 2 is a functional group of Formula 2 below, with the proviso that Ar 1 and Ar 2 are different from each other, in Formula 2, Ar 3 is an aryl having 6 to 20 carbon atoms, and m is an integer of 0 to 2. Ar 3 is an aryl having 6 to 20 carbon atoms, and m is an integer of 0 to 2.
A wind turbine blade for a rotor having a substantially horizontal rotor shaft, the rotor comprising a hub from which the wind turbine blade extends substantially in a radial direction when mounted to the hub, the wind turbine blade being made of a fibre-reinforced composite material comprising fibres embedded in a polymer matrix, the wind turbine blade comprising: - a profiled contour including a leading edge and a trailing edge as well as a pressure side and a suction side, the profiled contour generating a lift when being impacted by an incident airflow, wherein the profiled contour is divided into: - a root region with a substantially circular profile closest to the hub, - an airfoil region with a lift generating profile furthest away from the hub, and optionally - a transition region between the root region and the airfoil region, the profile of the transition region changing gradually in the radial direction from the circular profile of the root region to the lift generating profile of the airfoil region, wherein the profiled contour is formed by a first shell part and a second shell part being bonded together in a bonding region between the first and the second shell part by a curable bonding means, the first and the second shell part being formed in a fibre-reinforced polymer, characterised in that the wind turbine blade further comprises resistive heating means being arranged in thermal connection with the bonding means such that the resistive heating means supplies heat for curing of the curable bonding means during assembling of the wind turbine blade. - a profiled contour including a leading edge and a trailing edge as well as a pressure side and a suction side, the profiled contour generating a lift when being impacted by an incident airflow, wherein the profiled contour is divided into: - a root region with a substantially circular profile closest to the hub, - an airfoil region with a lift generating profile furthest away from the hub, and optionally - a transition region between the root region and the airfoil region, the profile of the transition region changing gradually in the radial direction from the circular profile of the root region to the lift generating profile of the airfoil region, wherein the profiled contour is formed by a first shell part and a second shell part being bonded together in a bonding region between the first and the second shell part by a curable bonding means, the first and the second shell part being formed in a fibre-reinforced polymer, characterised in that the wind turbine blade further comprises resistive heating means being arranged in thermal connection with the bonding means such that the resistive heating means supplies heat for curing of the curable bonding means during assembling of the wind turbine blade.
Composition, in particular a cosmetic composition, characterized in that it comprises: - at least one monoglyceride, - at least one tartaric ester of monoglycerides based on C12-C22 fatty acids, - at least one UV filter, - at least one surfactant having a HLB greater than 10, and - at least one hydrophilic gelling agent; wherein the content of said one or more surfactant(s) having a HLB greater than 10 is comprised between 0.2% and 10% by weight, based on the total weight of the composition. - at least one monoglyceride, - at least one tartaric ester of monoglycerides based on C12-C22 fatty acids, - at least one UV filter, - at least one surfactant having a HLB greater than 10, and - at least one hydrophilic gelling agent;
Method for managing memory of a computer having at least one virtual machine and having a virtualization controller, wherein an operating system runs in the virtual machine, and wherein the virtualization controller uses extended page tables (SPD1, PT1, EPD, EPT) to check and convert the memory access operations to host physical addresses, characterized in that the operating system transmits a pre-allocation for the extended page tables to the virtualization controller after the system has been started, and in that the extended page tables are configured by the virtualization controller according to the transmitted pre-allocation.