mhurhangee/ep-ind-claims huggingface dataset:
A method for determining one or more characteristics of a complex wind flow field within or adjacent to a wind turbine or array of wind turbines, the method comprising the steps of: positioning a first remote sensing device to have a portion of the complex wind flow field within or adjacent to the wind turbine or array of wind turbines disposed within a first scanning sector of the first remote sensing device; positioning a second remote sensing device to have the portion of the complex wind flow field within or adjacent to the wind turbine or array of wind turbines disposed within a second scanning sector of the second remote sensing device; characterized by collecting a coordinated data from the first remote sensing device and the second remote sensing device using a set of sectors and elevation angles focused on the portion of the wind field disposed within both the first scanning sector and the second scanning sector; constructing a three-dimensional gridded data set of wind speed, wind direction and height for the portion of the complex wind flow field disposed within both the first scanning sector and the second scanning sector using the coordinated data and the one or more processors; and determining the one or more characteristics of the portion of the complex wind flow field within or adjacent to the wind turbine or array of wind turbines by analyzing the three-dimensional gridded data set using the one or more processors, wherein the one or more characteristics comprise a plurality of center points and at least one vertical profile of wind speeds for one or more turbine wake(s). positioning a first remote sensing device to have a portion of the complex wind flow field within or adjacent to the wind turbine or array of wind turbines disposed within a first scanning sector of the first remote sensing device; positioning a second remote sensing device to have the portion of the complex wind flow field within or adjacent to the wind turbine or array of wind turbines disposed within a second scanning sector of the second remote sensing device; collecting a coordinated data from the first remote sensing device and the second remote sensing device using a set of sectors and elevation angles focused on the portion of the wind field disposed within both the first scanning sector and the second scanning sector; constructing a three-dimensional gridded data set of wind speed, wind direction and height for the portion of the complex wind flow field disposed within both the first scanning sector and the second scanning sector using the coordinated data and the one or more processors; and determining the one or more characteristics of the portion of the complex wind flow field within or adjacent to the wind turbine or array of wind turbines by analyzing the three-dimensional gridded data set using the one or more processors, wherein the one or more characteristics comprise a plurality of center points and at least one vertical profile of wind speeds for one or more turbine wake(s).
A protease variant comprising the alteration Q198E, wherein positions correspond to the positions of SEQ ID NO: 3, wherein the protease variant has a sequence identity to SEQ ID NO: 3 of at least 90%, and the variant has protease activity, and wherein the variant comprises a set of alterations selected from the group consisting of: S27K,Q70A,I121V,E127Q,S173P,G174K,S175P,F180Y,G182A,L184F,Q197K,Q198E, T297P; S27K,*108aA,N109S,V162T,S173P,G174K,S175A,F180Y,G182A,L184F,Q197K, Q198E,T297P; S27K,I121V,S173P,G174R,S175A,F180Y,G182A,L184Y,Q197K,Q198E,S270V,T297P; S27K,N59L,T67V,I121V,S173P,G174K,S175P,F180Y,G182A,L184Y,Q197K,Q198E, T297P; S27K,N109R,S111E,V162T,S173P,G174K,S175A,F180Y,G182A,L184F,Q197K,Q198E, T297P; S27K,N87K,S171D,S173P,G174R,S175P,G182A,L184F,Q198E,N199R,T297P; S27K,Q70A,S171D,S173P,G174R,S175P,F180Y,G182A,L184F,Q198E,N199K,S274V, T297P; S27K,*108aA,N109S,S171D,S173P,G174R,S175A,F180Y,G182A,L184F,Q198E, N199K,T297P; S27K,S171E,S173P,G174K,S175P,F180Y,G182A,L184F,Q198E,N199K,T297P; S27K,S173P,G174K,S175P,F180Y,G182A,L184F,Q198E,V286R,T297P; S27K,N109R,S111E,S171E,S173P,G174K,S175P,F180Y,G182A,L184F,Q198E,N199K, T297P; S27K,Q70N,I121V,S173P,G174K,S175P,G182A,L184F,Q198E,T297P; S27K,N109K,S111E,S171E,S173P,G174K,S175P,F180Y,G182A,L184F,Q198E,N199K, T297P; S27K,V162T,S171D,S173P,G174R,S175A,F180Y,G182A,L184F,Q197K,Q198E,T297P; and S27K,S171D,S173P,G174R,S175A,F180Y,G182A,L184F,Q198E,N199K,T297P. S27K,Q70A,I121V,E127Q,S173P,G174K,S175P,F180Y,G182A,L184F,Q197K,Q198E, T297P; S27K,*108aA,N109S,V162T,S173P,G174K,S175A,F180Y,G182A,L184F,Q197K, Q198E,T297P; S27K,I121V,S173P,G174R,S175A,F180Y,G182A,L184Y,Q197K,Q198E,S270V,T297P; S27K,N59L,T67V,I121V,S173P,G174K,S175P,F180Y,G182A,L184Y,Q197K,Q198E, T297P; S27K,N109R,S111E,V162T,S173P,G174K,S175A,F180Y,G182A,L184F,Q197K,Q198E, T297P; S27K,N87K,S171D,S173P,G174R,S175P,G182A,L184F,Q198E,N199R,T297P; S27K,Q70A,S171D,S173P,G174R,S175P,F180Y,G182A,L184F,Q198E,N199K,S274V, T297P; S27K,*108aA,N109S,S171D,S173P,G174R,S175A,F180Y,G182A,L184F,Q198E, N199K,T297P; S27K,S171E,S173P,G174K,S175P,F180Y,G182A,L184F,Q198E,N199K,T297P; S27K,S173P,G174K,S175P,F180Y,G182A,L184F,Q198E,V286R,T297P; S27K,N109R,S111E,S171E,S173P,G174K,S175P,F180Y,G182A,L184F,Q198E,N199K, T297P; S27K,Q70N,I121V,S173P,G174K,S175P,G182A,L184F,Q198E,T297P; S27K,N109K,S111E,S171E,S173P,G174K,S175P,F180Y,G182A,L184F,Q198E,N199K, T297P; S27K,V162T,S171D,S173P,G174R,S175A,F180Y,G182A,L184F,Q197K,Q198E,T297P; and S27K,S171D,S173P,G174R,S175A,F180Y,G182A,L184F,Q198E,N199K,T297P.
A method comprising: providing an optically variable device that includes a first substrate and release layer, depositing an adhesive layer on the first substrate; applying a magnetic field to the adhesive layer, and providing magnetic flakes absent a liquid carrier or binder onto the adhesive layer in the presence of the magnetic field so that the magnetic flakes oriented by the magnetic field adhere to the adhesive layer; applying a coating layer over the magnetic flakes; adhering the coating layer to a second substrate; curing the coating layer; and removing the release layer after adhering the coating layer to the second substrate. providing an optically variable device that includes a first substrate and release layer, depositing an adhesive layer on the first substrate; applying a magnetic field to the adhesive layer, and providing magnetic flakes absent a liquid carrier or binder onto the adhesive layer in the presence of the magnetic field so that the magnetic flakes oriented by the magnetic field adhere to the adhesive layer; applying a coating layer over the magnetic flakes; adhering the coating layer to a second substrate; curing the coating layer; and removing the release layer after adhering the coating layer to the second substrate.
A process for the preparation of a propylene homopolymer comprising polymerising propylene in the presence of a catalyst comprising: (i) a metallocene complex of a group metal said metallocene comprising at least two cyclopentadienyl type ligands; (ii) a boron cocatalyst; and (iii) an aluminoxane cocatalyst; said catalyst being in solid form, preferably in solid particulate form, and being free from an external carrier; wherein the melting point of the formed propylene homopolymer, determined by DSC analysis according to the method disclosed in the experimental section of this specification, is at least 154°C. (i) a metallocene complex of a group metal said metallocene comprising at least two cyclopentadienyl type ligands; (ii) a boron cocatalyst; and (iii) an aluminoxane cocatalyst;
An exhaust gas after-treatment apparatus having improved durability, comprising: an exhaust gas oxidation catalyst part which is configured to oxidize exhaust gas; an exhaust gas filtering part which is connected to the exhaust gas oxidation catalyst part, and filters the exhaust gas; a selective catalyst reducing part which is connected to the exhaust gas filtering part; and an ammonia oxidation catalyst part which is connected to the selective catalyst reducing part, wherein a first gas detection sensor configured to detect a generated amount of nitrogen compound in an exhaust gas flowing from the exhaust gas filtering part, and a selective catalyst reducing bypass valve configured to selectively block the exhaust gas from flowing into the selective catalyst reducing part are installed at a front side of the selective catalyst reducing part, and the exhaust gas after-treatment apparatus includes a control part which is electrically connected so as to control whether to operate the selective catalyst reducing bypass valve and the selective catalyst reducing part on the basis of a gas amount detection signal, characterized in that a second gas detection sensor configured to detect nitrogen compound gas, and an ammonia oxidation catalyst bypass valve configured to selectively block the exhaust gas from flowing into the ammonia oxidation catalyst part are further electrically connected and installed to the control part at the rear side of the selective catalyst reducing part and at a front side of the ammonia oxidation catalyst part. an exhaust gas oxidation catalyst part which is configured to oxidize exhaust gas; an exhaust gas filtering part which is connected to the exhaust gas oxidation catalyst part, and filters the exhaust gas; a selective catalyst reducing part which is connected to the exhaust gas filtering part; and an ammonia oxidation catalyst part which is connected to the selective catalyst reducing part, wherein a first gas detection sensor configured to detect a generated amount of nitrogen compound in an exhaust gas flowing from the exhaust gas filtering part, and a selective catalyst reducing bypass valve configured to selectively block the exhaust gas from flowing into the selective catalyst reducing part are installed at a front side of the selective catalyst reducing part, and the exhaust gas after-treatment apparatus includes a control part which is electrically connected so as to control whether to operate the selective catalyst reducing bypass valve and the selective catalyst reducing part on the basis of a gas amount detection signal, characterized in that a second gas detection sensor configured to detect nitrogen compound gas, and an ammonia oxidation catalyst bypass valve configured to selectively block the exhaust gas from flowing into the ammonia oxidation catalyst part are further electrically connected and installed to the control part at the rear side of the selective catalyst reducing part and at a front side of the ammonia oxidation catalyst part.
Mixer for concentric gas flows for a multiflow turbomachine, including a nominally cylindrical upstream portion and a downstream portion having outer and inner lobes distributed circumferentially over the perimeter of said mixer, characterised in that it includes a least one modified lobe disposed according to an aperiodic angular pattern and having at least in one area a wall thickness different from the other lobes, so as to modify the vibratory response of said mixer.
A method for non-therapeutic tissue treatment for improving the appearance of scar tissue, the method comprising: providing a picosecond laser configured to emit light of a wavelength; providing an optical system comprising a plurality of foci for concentrating a laser emission, from the picosecond laser, to targets in the epidermis; generating a picosecond laser emission having a fluence from the picosecond laser, wherein the laser emission has a wavelength absorbed by the epidermis; and concentrating the laser emission through the plurality of foci to a plurality of targets in the epidermis, wherein each target absorbs light from the concentrated laser emission at the targets and initiates an electron avalanche ionization at the targets to provide a pressure wave emission to tissue adjacent the targets. providing a picosecond laser configured to emit light of a wavelength; providing an optical system comprising a plurality of foci for concentrating a laser emission, from the picosecond laser, to targets in the epidermis; generating a picosecond laser emission having a fluence from the picosecond laser, wherein the laser emission has a wavelength absorbed by the epidermis; and concentrating the laser emission through the plurality of foci to a plurality of targets in the epidermis, wherein each target absorbs light from the concentrated laser emission at the targets and initiates an electron avalanche ionization at the targets to provide a pressure wave emission to tissue adjacent the targets.
A prefabricated deck unit for a building system, the deck unit including: a reinforcing framework (12.1, 116) encased in a composite material, the reinforcing framework comprising: a first metal mesh unit, a plurality of interspaced spheroidal void formers attached to or in intimate contact with the first mesh unit, and a second mesh unit resting upon, or attached to, the spheroidal void formers, characterized in that the framework defines at least one terminal channel (16.3) on at least one end (16.1, 16.2) of the deck unit, the terminal channel being shaped and dimensioned to snugly receive an elongate connecting rod for connecting the deck unit to a further structural element of the building system, and wherein a body of each void former comprises a cinched waist (74.6) defining a radially extending interstitial gap (74.2). a first metal mesh unit, a plurality of interspaced spheroidal void formers attached to or in intimate contact with the first mesh unit, and a second mesh unit resting upon, or attached to, the spheroidal void formers, characterized in that the framework defines at least one terminal channel (16.3) on at least one end (16.1, 16.2) of the deck unit, the terminal channel being shaped and dimensioned to snugly receive an elongate connecting rod for connecting the deck unit to a further structural element of the building system, and wherein a body of each void former comprises a cinched waist (74.6) defining a radially extending interstitial gap (74.2).
Container comprising a bottom, a surrounding wall extending upwards from the bottom which forms a container opening lying above the bottom and which continuously and/or progressively becomes broader in the direction towards the container opening; wherein at least one movable stacking device is arranged at the container so that the stacking device can be brought into a first position in which it frees the container opening so that an identically constructed container can be nested in the container, and the stacking device can be brought into a second position in which it is located at least partially above or within the container opening so that an identically constructed container can be stacked on the stacking device of the container, wherein the at least one stacking device is formed by two stacking brackets arranged on opposite sides and which can be pivoted between the first and the second position, and the stacking brackets rest in the second position on opposite side walls of the surrounding wall, and wherein the container furthermore comprises a load transmission structure separately provided in the surrounding wall, wherein the load transmission structure transmits a load acting on the stacking device with complete or at least partial load relief of the surrounding wall to an identically constructed or compatible container stacked underneath it, and wherein the load transmission structure is formed by support structures which are formed locally on or in the opposite side walls, characterized in that the support structures extend in the container height direction between a rest position of the stacking bracket in the second position and the bottom, wherein the support structures are molded into the respective side wall and are formed by stripe-shaped and thin-walled supports.
Device for detecting electromagnetic radiation, comprising: - a substrate; - at least one thermal detector, placed on the substrate; and - an encapsulating structure encapsulating the thermal detector, including a thin encapsulating layer extending around and above the detector so as to define with the substrate a cavity in which the thermal detector is located, said thin encapsulating layer being produced from a material that is transparent to said electromagnetic radiation, the thin encapsulating layer comprising a peripheral wall that encircles the thermal detector, and that has a cross section, in a plane parallel to the plane of the substrate, of square or rectangular shape, the corners (6a-3) of which are rounded; characterized in that the peripheral wall includes a rounded section (6a-3) and two rectilinear sections (6a-1, 6a-2) extending along axes (X1, X2) that are substantially orthogonal to each other, said rectilinear sections being connected to each other by the rounded section, the rounded section having a radius of curvature larger than or equal to two times the thickness of one of the rectilinear sections (6a-1, 6a-2). - a substrate; - at least one thermal detector, placed on the substrate; and - an encapsulating structure encapsulating the thermal detector, including a thin encapsulating layer extending around and above the detector so as to define with the substrate a cavity in which the thermal detector is located, said thin encapsulating layer being produced from a material that is transparent to said electromagnetic radiation, the thin encapsulating layer comprising a peripheral wall that encircles the thermal detector, and that has a cross section, in a plane parallel to the plane of the substrate, of square or rectangular shape, the corners (6a-3) of which are rounded;
A method of generating data for use in constructing a two-dimensional image rendered from a time sequence of volumetric data sets (1; 8) each representing a subject in three spatial dimensions at one of a succession of times within the time sequence, the method including: classifying samples (V1-V3; V1-V8) of the volumetric data into one of a plurality of sample classes according to contrast agent uptake at a respective sample within the time sequence; determining pixel values from samples in different respective sample classes according to a rendering of volumetric data within a respective sample class; selecting from amongst said pixel values one pixel value for use in constructing said two-dimensional image. classifying samples (V1-V3; V1-V8) of the volumetric data into one of a plurality of sample classes according to contrast agent uptake at a respective sample within the time sequence; determining pixel values from samples in different respective sample classes according to a rendering of volumetric data within a respective sample class; selecting from amongst said pixel values one pixel value for use in constructing said two-dimensional image.
A sock including a foot section and a toe section both formed of knitted fabric, the toe section being provided in the form of a bag formed by mutual joining of circumferential edges of the knitted fabric (s1-s22); the toe section including a stitch-number decreasing area (B, C) where an area knitted by reciprocal knitting is progressively decreased and a stich-number increasing area where an area knitted by reciprocal knitting is progressively increased; characterized in that in the toe section, the stitch-number decreasing area (B, C) is provided at a position adjacent the foot section; the stitch-number decreasing area (B, C) includes a sole fabric extending across a sole side and between the sole side and an instep side and a sole leading end fabric adjacent to the sole fabric and provided only on the sole side of the stitch-number decreasing area (B, C); an edge of a wraparound portion (b) of the sole fabric wrapping around to the instep side extends beyond a lateral dividing line which divides between the instep side and the sole side of the knitted fabric, wherein the lateral dividing line represents a centerline contacting a portion of the sock for covering a big toe, hence the centerline being in contact with a body-center side lateral face; an edge of the sole leading end fabric extends from the edge of the wraparound portion (b) and is located on the opposite side of the edge of the wraparound portion (b) relative to the lateral dividing line; and a lateral face of a vicinity of a base of the toe section includes a knitted portion of the knitted fabric of the wraparound portion (b).
Production device for multilayered (3, 4, 5, 6, 7) modules, in particular solar modules, or for a multilayered base component of a module comprising a translucent plate-like layer (3, 6) and an array of photoactive elements with interspaces between the photoactive elements, wherein the production device forms the layered structure and comprises an applicator for a liquid or pasty bonding compound (5, 7) and a controllable arching device for bending a plate-like layer (3, 6), in particular a glass plate (3, 6), wherein the arching device comprises a support, in particular a table, for the array of photoactive elements and for a plate-like layer (3, 6), having a holding-down device or a fixing device (20, 46) at the edge and having a height-adjustable pressing element, which act on a plate-like layer (3, 6), wherein the support comprises a controllable suction device with suction openings in the supporting area for the photoactive elements, wherein the photoactive elements can be embedded in the bonding compound (5, 7) in a bubble-free manner such that at least part of their outer surface is covered by the bonding compound (5, 7) and the arching of the plate-like layer (3, 6) on the array of photoactive elements with the bonding compound (5, 7) applied thereto can be relaxed.