mhurhangee/patent-ind-claim-en huggingface dataset:
A method for forming a PZT ferroelectric film, wherein the method comprises: a step of applying a liquid composition for forming a PZT ferroelectric film; a step of drying the film applied with the liquid composition; a step of irradiating UV rays onto the dried film at a temperature of 150 to 200°C for 5 to 15 minutes in an oxygen-containing atmosphere; and after the application step, the drying step, and the UV irradiation step once, or more times, a step of firing for crystallizing a precursor film of the UV-irradiated ferroelectric film by raising a temperature with a temperature rising rate of 0.5°C/second or higher in an oxygen-containing atmosphere or by raising a temperature with a temperature rising rate of 0.2°C/second or higher in a non-oxygen containing atmosphere, followed by keeping the temperature at 400 to 500°C for a period of 5 to 60 minutes ; and further, an amount of the liquid composition in each application is set such that thickness of the ferroelectric film be 150 nm or more for each application and ozone is supplied during the UV irradiation. a step of applying a liquid composition for forming a PZT ferroelectric film; a step of drying the film applied with the liquid composition; a step of irradiating UV rays onto the dried film at a temperature of 150 to 200°C for 5 to 15 minutes in an oxygen-containing atmosphere; and after the application step, the drying step, and the UV irradiation step once, or more times, a step of firing for crystallizing a precursor film of the UV-irradiated ferroelectric film by raising a temperature with a temperature rising rate of 0.5°C/second or higher in an oxygen-containing atmosphere or by raising a temperature with a temperature rising rate of 0.2°C/second or higher in a non-oxygen containing atmosphere, followed by keeping the temperature at 400 to 500°C for a period of 5 to 60 minutes ; and further, an amount of the liquid composition in each application is set such that thickness of the ferroelectric film be 150 nm or more for each application and ozone is supplied during the UV irradiation.
Combination appliance having a cooktop and a fume extraction device arranged below the cooktop, and at least one filter unit for the fume extraction device , which filter unit comprises at least one filter body which has at least one filter element and at least one collecting region for liquids, characterised in that the filter unit has a cover which at least covers the at least one filter body at the top and an air inlet opening is formed on the filter unit in the upper region, which air inlet opening serves to let in air that is suctioned by the fume extraction device and which air inlet opening at least partially surrounds the at least one filter body , that an air outlet opening is provided in the bottom side of the filter unit , which air outlet opening serves to let air out of the filter unit to the fume extraction device , wherein the filter body of the filter element is arranged such that said filter body extends between the air inlet opening and the air outlet opening and that the collecting region lies below the at least one filter body and at least partially surrounds the at least one filter body .
A pharmaceutical composition for injection via abdominal subcutaneous fat layer comprising low molecular weight hyaluronic acid (LMW-HA) fragments, wherein LMW-HA fragments have a molecular weight distribution of 10-60KD and are obtained by use of recombinant human hyaluronidase PH20 directly digesting high-molecular-weight hyaluronic acid (HMW-HA) raw material, wherein the injection is a liquid preparation, which is prepared by the following steps: A. Prepare HMW-HA raw material into solution, introduce sodium chloride and magnesium ions, and add recombinant human hyaluronidase PH20 for digestion to obtain the bulk injectable solution containing HA fragments with a molecular weight distribution of 10-60KD; B. Inactivate the residual recombinant human hyaluronidase PH20 in the obtained bulk injectable solution; C. Inactivate viruses and remove bacteria through 0.22um filtration or inactivate bacteria. A. Prepare HMW-HA raw material into solution, introduce sodium chloride and magnesium ions, and add recombinant human hyaluronidase PH20 for digestion to obtain the bulk injectable solution containing HA fragments with a molecular weight distribution of 10-60KD; B. Inactivate the residual recombinant human hyaluronidase PH20 in the obtained bulk injectable solution; C. Inactivate viruses and remove bacteria through 0.22um filtration or inactivate bacteria.
A memory addressable using an addressing scheme with a minimum addressable unit having a size, comprising: a memory array ; a data interface ; and a data path configured for transferring data between the memory array and the data interface in transfer storage units having N bits, where N is a non-integer multiple of the size of the minimum addressable unit; wherein the data path includes a cache configured for connection to the data interface ; wherein the cache includes X group of cache unit arrays , each cache unit array includes the P cache cells arranged in N cache rows and Y cache columns, P is equal to Y multiplied by N, characterized in that data of a plurality of minimum addressable units are scattered among the X groups of the cache unit arrays in a data transfer operation in cache column units of N bits, one selected column in one selected cache unit array in each of the X groups of the cache unit arrays is transferred in one cache clock cycle, and the transferred data of the X groups of the cache unit arrays form a cache addressed unit of a number M bits, M is N multiplied by X, and N, X, P, Y, and M are integers greater than 1. a memory array ; a data interface ; and a data path configured for transferring data between the memory array and the data interface in transfer storage units having N bits, where N is a non-integer multiple of the size of the minimum addressable unit; wherein the data path includes a cache configured for connection to the data interface ; wherein the cache includes X group of cache unit arrays , each cache unit array includes the P cache cells arranged in N cache rows and Y cache columns, P is equal to Y multiplied by N, characterized in that data of a plurality of minimum addressable units are scattered among the X groups of the cache unit arrays in a data transfer operation in cache column units of N bits, one selected column in one selected cache unit array in each of the X groups of the cache unit arrays is transferred in one cache clock cycle, and the transferred data of the X groups of the cache unit arrays form a cache addressed unit of a number M bits, M is N multiplied by X, and N, X, P, Y, and M are integers greater than 1.
Filter element of a rotating disc filter for separating liquids from a suspension , in particular a fibrous material suspension, the interior of which filter element, delimited by one or more perforated and profiled filter plates , is connected to a vacuum source, wherein the outer side of the filter plates , facing away from the interior , has a multiplicity of elevations with a round or elongated cross section, characterized in that at least one of the filter plates of the filter element has an undulating cross section with elevations on the wave crests of the outer side.
Shaping system with at least one shape component, wherein the shape component comprises a shaping component which comprises a plurality of individual cardboard form elements , wherein upper edges and/or upper sides of the cardboard form elements together form a contour , the cardboard form elements are inserted into one another, and through openings are formed between the cardboard form elements , and at least one shaping mat resting against the contour is arranged on the shaping component , characterized in that the shaping component stands on a carrier which is coupled with a lifting system .
A computer-implemented method comprising: receiving a manual tagging selection to tag a person or object in a stored or newly-created photo; determining that the manual tagging selection made in different images exceeds a manual-selection tagging threshold for the person or object; responsive to the manual tagging selection exceeding the manual-selection tagging threshold, performing facial or object recognition on multiple visual images to determine visual images having a face or sub-image recognized as matching the person or the object; enabling , for each of the determined visual images, selection to confirm or reject the face or the sub-image recognized as matching the person or object; and responsive to confirming or failing to reject the face or the sub-image recognized in the determined visual images, automatically tagging the face or the sub-image in the determined visual images to confirm that the face or the sub-image is correctly recognized as being the person or the object, wherein said enabling comprises presenting the face or the sub-image at a higher resolution than other portions of the visual image thereby providing indicia of the face or the sub-image that a user is to consider when deciding to confirm or reject. receiving a manual tagging selection to tag a person or object in a stored or newly-created photo; determining that the manual tagging selection made in different images exceeds a manual-selection tagging threshold for the person or object; responsive to the manual tagging selection exceeding the manual-selection tagging threshold, performing facial or object recognition on multiple visual images to determine visual images having a face or sub-image recognized as matching the person or the object; enabling , for each of the determined visual images, selection to confirm or reject the face or the sub-image recognized as matching the person or object; and responsive to confirming or failing to reject the face or the sub-image recognized in the determined visual images, automatically tagging the face or the sub-image in the determined visual images to confirm that the face or the sub-image is correctly recognized as being the person or the object, wherein said enabling comprises presenting the face or the sub-image at a higher resolution than other portions of the visual image thereby providing indicia of the face or the sub-image that a user is to consider when deciding to confirm or reject.
Centrifugal pump comprising a motor shaft and a plurality of centrifugal pump stages mounted in series on said motor shaft , each centrifugal pump stage comprising an impeller provided with an axial hub predisposed to be mounted in freely slidable axial manner on said shaft of the centrifugal pump coaxial thereto; a diffuser unit extended at a first face of said impeller ; a suction unit associated with said diffuser unit and extended at a second face of said impeller , stop means associated in series with said shaft of the centrifugal pump, in such a way as to be rotatable with said shaft , said impeller being floating in use in independent manner inside said diffuser unit between a first position and a second position in which said impeller is in abutment against respective stop means , in such a way as to be rotatable with said shaft , said impeller is made of metallic material and has, at said second face, at least one annular crown , coaxial to the axis of said impeller and predisposed to shape the suction mouth of the liquid inside the same impeller , sealing means with a low friction coefficient being associated with said annular crown and having the outer rim facing a static zone of the pump stage, so as to obtain a seailng area at said suction mouth of the impeller ; the centrifugal pump being characterized in that said stop means are respectively made up of a bush predisposed to be axially inserted on said shaft of the centrifugal pump, in abutment at the opposite edges with corresponding bushes of adjacent pump stages, said axial hub of the impeller being coaxially mounted on said bush , said bush being associated with an elastic lip member , said elastic lip member being held in a throat of said bush so as to elastically act on said impeller unit for keeping said impeller unit in the correct working position.
A solar battery module comprising: a light penetrable sheet member ; a sheet member ; a plurality of plate-like solar cells held between said light penetrable sheet member on a light receiving surface side and said sheet member on a back surface side being sealed by a sealing resin , each solar cell comprising a collecting electrode arranged on the light receiving surface and a collecting electrode arranged on the back surface; characterized in that a connection member formed from metal foil is connected to bus electrode sections of the collecting electrode on the light receiving surface and the collecting electrode on the back surface of an adjacent solar cell , wherein the connection member comprises a light diffusion section which is made by the light receiving surface of the connection member having a rugged surface for diffusely reflecting a light incident through the light penetrable sheet member to the light receiving surface of one of the plurality of solar cells opposite the light penetrable sheet member , and wherein a light reflected on the light diffusion section above said one of the plurality of solar cells is reflected on the light penetrable sheet member and is incident on regions which contribute to power generation in the light receiving surface of said one of the plurality of solar cells outside the light diffusion section . a light penetrable sheet member ; a sheet member ; a plurality of plate-like solar cells held between said light penetrable sheet member on a light receiving surface side and said sheet member on a back surface side being sealed by a sealing resin , each solar cell comprising a collecting electrode arranged on the light receiving surface and a collecting electrode arranged on the back surface; characterized in that a connection member formed from metal foil is connected to bus electrode sections of the collecting electrode on the light receiving surface and the collecting electrode on the back surface of an adjacent solar cell , wherein the connection member comprises a light diffusion section which is made by the light receiving surface of the connection member having a rugged surface for diffusely reflecting a light incident through the light penetrable sheet member to the light receiving surface of one of the plurality of solar cells opposite the light penetrable sheet member , and wherein a light reflected on the light diffusion section above said one of the plurality of solar cells is reflected on the light penetrable sheet member and is incident on regions which contribute to power generation in the light receiving surface of said one of the plurality of solar cells outside the light diffusion section .
A heat-exchanger unit, comprising: a heat exchanger ; a fan configured to supply air to the heat exchanger ; and a vortex generator located upstream of the heat exchanger in a direction in which the air flows and configured to generate a vortex flow of the air, the heat exchanger being provided with a first heat-exchanger section that includes a plurality of heat transfer parts that are arranged at intervals in a first direction; and a second heat-exchanger section that includes a plurality of heat transfer parts that are arranged at intervals in the first direction, the first heat-exchanger section being located closer to the vortex generator than is the second heat-exchanger section , characterized in that each of the intervals in the first direction between the plurality of heat transfer parts of the first heat-exchanger section being greater than each of the intervals in the first direction between the plurality of heat transfer parts of the second heat-exchanger section , the plurality of heat transfer parts being each provided with a refrigerant passage portion through which refrigerant flows inside the refrigerant passage portion in a second direction that intersects the first direction, and a fin portion that extends from the refrigerant passage portion toward the vortex generator , where a virtual line (CL) passes through a center of a width of the refrigerant passage portion in the first direction and extends in a third direction that is orthogonal to the first direction and the second direction, the fin portion overlapping with the virtual line (CL) in position. a heat exchanger ; a fan configured to supply air to the heat exchanger ; and a vortex generator located upstream of the heat exchanger in a direction in which the air flows and configured to generate a vortex flow of the air, the heat exchanger being provided with a first heat-exchanger section that includes a plurality of heat transfer parts that are arranged at intervals in a first direction; and a second heat-exchanger section that includes a plurality of heat transfer parts that are arranged at intervals in the first direction, the first heat-exchanger section being located closer to the vortex generator than is the second heat-exchanger section , characterized in that each of the intervals in the first direction between the plurality of heat transfer parts of the first heat-exchanger section being greater than each of the intervals in the first direction between the plurality of heat transfer parts of the second heat-exchanger section , the plurality of heat transfer parts being each provided with a refrigerant passage portion through which refrigerant flows inside the refrigerant passage portion in a second direction that intersects the first direction, and a fin portion that extends from the refrigerant passage portion toward the vortex generator , where a virtual line (CL) passes through a center of a width of the refrigerant passage portion in the first direction and extends in a third direction that is orthogonal to the first direction and the second direction, the fin portion overlapping with the virtual line (CL) in position.
An article for contacting coagulating and/or coagulated blood components made of a polymer material, wherein the article is at least partially coated with a coating material comprising a polymer, wherein: a) the article is a measurement cup, a pin, or a sleeve for a pin, and b) the polymer comprised by the coating material is selected from the group consisting of acrylonitrile butadiene styrene (ABS), methyl methacrylate acrylonitrile butadiene styrene (MABS) and high impact polystyrene (HIPS). a) the article is a measurement cup, a pin, or a sleeve for a pin, and b) the polymer comprised by the coating material is selected from the group consisting of acrylonitrile butadiene styrene (ABS), methyl methacrylate acrylonitrile butadiene styrene (MABS) and high impact polystyrene (HIPS).
Battery holder for retrofitting a vehicle to become an electric vehicle, wherein the battery holder - has a U-shaped base plate which comprises two opposing, mutually spaced legs and a connecting portion which interconnects the two opposing, mutually spaced legs at one end, - a U-shaped cover which comprises two opposing, mutually spaced legs and a connecting portion which interconnects the two opposing, mutually spaced legs at one and, and - wall portions which interconnect the U-shaped base plate and the U-shaped cover such that a U-shaped battery holder interior with legs and a connecting portion results, characterised in that the opposing, mutually spaced legs of the base plate are shorter than the opposing, mutually spaced legs of the cover , such that a stabilisation portion of the U-shaped base plate is present between the legs of the U-shaped battery holder interior, which stabilisation portion does not form a boundary of the U-shaped batter holder interior. - has a U-shaped base plate which comprises two opposing, mutually spaced legs and a connecting portion which interconnects the two opposing, mutually spaced legs at one end, - a U-shaped cover which comprises two opposing, mutually spaced legs and a connecting portion which interconnects the two opposing, mutually spaced legs at one and, and - wall portions which interconnect the U-shaped base plate and the U-shaped cover such that a U-shaped battery holder interior with legs and a connecting portion results,
Process of manufacturing a textile-based particle/polymer composite using a particulate substrate S comprising shredded textile products and at least one polymeric binder P, comprising the following steps: (i) the particulate substrate S is introduced into a gas stream, then (ii) the particulate substrate S is contacted with a dispersion or solution of the polymeric binder P in the gas stream, then (iii) the particulate substrate S contacted with the polymeric binder P is dried in the gas stream and deposited, then (iv) the obtained deposited binder-contacted substrate is converted into a layer or transferred into a mold of a desired shape, and then (v) the binder-contacted substrate is densified at a suitable temperature to form the textile-based particle/polymer composite, wherein (a) the substrate S comprises shredded textile products; and (b) the polymeric binder P is thermoplastic and has a glass transition temperature [Tg P ] ≥ - 20 °C measured according to DIN EN ISO 11357-2 (2013-09), or (c) the polymeric binder P is duroplastic. (i) the particulate substrate S is introduced into a gas stream, then (ii) the particulate substrate S is contacted with a dispersion or solution of the polymeric binder P in the gas stream, then (iii) the particulate substrate S contacted with the polymeric binder P is dried in the gas stream and deposited, then (iv) the obtained deposited binder-contacted substrate is converted into a layer or transferred into a mold of a desired shape, and then (v) the binder-contacted substrate is densified at a suitable temperature to form the textile-based particle/polymer composite, (a) the substrate S comprises shredded textile products; and (b) the polymeric binder P is thermoplastic and has a glass transition temperature [Tg P ] ≥ - 20 °C measured according to DIN EN ISO 11357-2 (2013-09), or (c) the polymeric binder P is duroplastic.