mhurhangee/ep-ind-claims huggingface dataset:
A diving mask comprising a rigid frame, at least one lens (102, 103) and a face mask made of soft and elastically yielding material fixed to said frame, said face mask being adapted to close the eyes and nose of the diver while leaving his/her mouth outside of said face mask, said face mask having a front hollow projection for housing the nose of the diver and a rear perimeter profile applicable in an airtight way to the face of the diver so as to delimit an internal space between said mask and the face of the diver, wherein the internal surface of said face mask has at least one rib of constant thickness that surrounds said front hollow projection for housing the nose, said at least one rib having a base end and an apical end and being configured so as to divide said internal space in an airtight way into a first zone behind said at least one lens (102, 103) and a second zone including said front hollow projection for housing the nose, said at least one rib preventing any emission from the nose of the diver to come into contact with the rear face of said at least one lens (102, 103), said at least one rib having a height, meaning the distance between said base end and said apical end, which increases gradually in the direction from the lower edge to the upper edge of said face mask.
An isolated monoclonal antibody or antigen binding portion thereof that binds to ErbB3 and comprises heavy and light chain variable regions, wherein: the heavy chain variable region CDR1 comprises SEQ ID NO: 7; the heavy chain variable region CDR2 comprises SEQ ID NO: 8; the heavy chain variable region CDR3 comprises SEQ ID NO: 9; the light chain variable region CDR1 comprises SEQ ID NO: 10; the light chain variable region CDR2 comprises SEQ ID NO: 11; and the light chain variable region CDR3 comprises SEQ ID NO: 12. the heavy chain variable region CDR1 comprises SEQ ID NO: 7; the heavy chain variable region CDR2 comprises SEQ ID NO: 8; the heavy chain variable region CDR3 comprises SEQ ID NO: 9; the light chain variable region CDR1 comprises SEQ ID NO: 10; the light chain variable region CDR2 comprises SEQ ID NO: 11; and the light chain variable region CDR3 comprises SEQ ID NO: 12.
A computer-implemented method, comprising: receiving data describing a scene, wherein the scene comprises one or more light sources and one or more objects having different surface optical properties; receiving a request to render an image of the scene using a multiple importance sampling method of direct illumination that combines sampling of a high dynamic range - HDR - environment map and sampling of a cosine product of a bidirectional reflectance distribution function - BRDF - of an object surface, wherein each sampling technique uses a different probability distribution to sample a respective fraction of a total number of samples, wherein sampling from the HDR environment map is implemented using a tabulated probability density function, and sampling the cosine product of the BRDF is an analytical formula derived from a probability density function depending on the outgoing direction and surface position of a ray; modifying only the probability density function of the HDR environment map to reduce a variance of the multiple importance sampling method while holding the respective fractions and the other probability distribution fixed; rendering the scene using the multiple importance sampling using the modified particular probability distribution and the other probability distribution; and outputting the rendered scene in response to the request. receiving data describing a scene, wherein the scene comprises one or more light sources and one or more objects having different surface optical properties; receiving a request to render an image of the scene using a multiple importance sampling method of direct illumination that combines sampling of a high dynamic range - HDR - environment map and sampling of a cosine product of a bidirectional reflectance distribution function - BRDF - of an object surface, wherein each sampling technique uses a different probability distribution to sample a respective fraction of a total number of samples, wherein sampling from the HDR environment map is implemented using a tabulated probability density function, and sampling the cosine product of the BRDF is an analytical formula derived from a probability density function depending on the outgoing direction and surface position of a ray; modifying only the probability density function of the HDR environment map to reduce a variance of the multiple importance sampling method while holding the respective fractions and the other probability distribution fixed; rendering the scene using the multiple importance sampling using the modified particular probability distribution and the other probability distribution; and outputting the rendered scene in response to the request.
A pharmaceutical dosage form comprising oxycodone hydrochloride and less than 25 ppm 14-hydroxycodeinone as determined by the HPLC method of Example 6, and a pharmaceutically acceptable excipient.
A compound of formula, wherein X 1 is N and X 2 is CH; R 1 is -N(R 4) 2, cyclopropyl, or R 5 -piperidin-4-yl; R 2 is independently D or halogen; R 3 is naphthyl, quinolinyl, isoquinolinyl, or indolyl, wherein said naphthyl, quinolinyl, isoquinolinyl or indolyl is optionally independently substituted with at least one D, halogen, (C 1 -C 3)-alkoxy, or (C 1 -C 3)-alkoxy substituted with at least one D; R 4 is independently H, (C 1 -C 3)-alkyl, (C 1 -C 3)-alkyl substituted with at least one D, (C 3 -C 5)-cycloalkyl, or each R 4 together with the nitrogen to which they are attached form a 3-7 membered heterocyclic ring, wherein one of the carbon atoms is optionally replaced with NR 6, O or S; R 5 is H or (C 1 -C 3)-alkyl, or (C 1 -C 3)-alkyl substituted with at least one D; R 6 is H, (C 1 -C 3)-alkyl, or (C 1 -C 3)-alkyl substituted with at least one D; and n is an integer from 0-4; or a pharmaceutically acceptable salt thereof, wherein when R 3 is indol-4-yl and n is 0, R 1 is not N-methyl-piperazinyl. X 1 is N and X 2 is CH; R 1 is -N(R 4) 2, cyclopropyl, or R 5 -piperidin-4-yl; R 2 is independently D or halogen; R 3 is naphthyl, quinolinyl, isoquinolinyl, or indolyl, wherein said naphthyl, quinolinyl, isoquinolinyl or indolyl is optionally independently substituted with at least one D, halogen, (C 1 -C 3)-alkoxy, or (C 1 -C 3)-alkoxy substituted with at least one D; R 4 is independently H, (C 1 -C 3)-alkyl, (C 1 -C 3)-alkyl substituted with at least one D, (C 3 -C 5)-cycloalkyl, or each R 4 together with the nitrogen to which they are attached form a 3-7 membered heterocyclic ring, wherein one of the carbon atoms is optionally replaced with NR 6, O or S; R 5 is H or (C 1 -C 3)-alkyl, or (C 1 -C 3)-alkyl substituted with at least one D; R 6 is H, (C 1 -C 3)-alkyl, or (C 1 -C 3)-alkyl substituted with at least one D; and n is an integer from 0-4; or a pharmaceutically acceptable salt thereof, wherein when R 3 is indol-4-yl and n is 0, R 1 is not N-methyl-piperazinyl.
A method for controlling flow of a bearing fluid to a turbopump assembly, comprising the following steps: 1.1 controlling a bearing fluid supply system to provide the bearing fluid to a hydrostatic bearing of the turbopump assembly, wherein the bearing fluid comprises a working fluid in a supercritical thermodynamic state; characterised in that it further comprises the steps of: 1.2 receiving (354, 366) data corresponding to a pressure and temperature of the bearing fluid measured at or near a bearing fluid drain (324, 326) fluidly coupled to the hydrostatic bearing; 1.3 determining a thermodynamic state of the bearing fluid at or near the bearing fluid drain (324, 328) based at least in part on the received data; and 1.4 controlling a backpressure regulation valve to throttle the backpressure regulation valve between an opened position and a closed position to regulate a backpressure in a bearing fluid discharge line to maintain the bearing fluid in a supercritical thermodynamic state in the hydrostatic bearing and/or at or near the bearing fluid drain (324, 328), the backpressure regulation valve fluidly coupled to the bearing fluid discharge line, and the bearing fluid discharge line fluidly coupled to the bearing fluid drain (324, 328) and configured to transport the bearing fluid from the hydrostatic bearing via the bearing fluid drain (324, 328). 1.1 controlling a bearing fluid supply system to provide the bearing fluid to a hydrostatic bearing of the turbopump assembly, wherein the bearing fluid comprises a working fluid in a supercritical thermodynamic state; characterised in that it further comprises the steps of: 1.2 receiving (354, 366) data corresponding to a pressure and temperature of the bearing fluid measured at or near a bearing fluid drain (324, 326) fluidly coupled to the hydrostatic bearing; 1.3 determining a thermodynamic state of the bearing fluid at or near the bearing fluid drain (324, 328) based at least in part on the received data; and 1.4 controlling a backpressure regulation valve to throttle the backpressure regulation valve between an opened position and a closed position to regulate a backpressure in a bearing fluid discharge line to maintain the bearing fluid in a supercritical thermodynamic state in the hydrostatic bearing and/or at or near the bearing fluid drain (324, 328), the backpressure regulation valve fluidly coupled to the bearing fluid discharge line, and the bearing fluid discharge line fluidly coupled to the bearing fluid drain (324, 328) and configured to transport the bearing fluid from the hydrostatic bearing via the bearing fluid drain (324, 328).
A method for lithographic patterning of a substrate, the method comprising - obtaining a substrate to be patterned - subsequently applying at least twice the following cycle: - applying a lithographical patterning process of a thermally shrinkable metal-oxide layer for forming a metal-oxide pattern, and - thermally shrinking the metal-oxide pattern, whereby the different metal oxide patterns formed during the at least two cycles are outlined relatively with respect to each other so that the shrunk metal-oxide patterns form together an overall pattern to be transferred to the substrate, - after said applying at least twice the cycle, transferring the overall pattern to the substrate. - obtaining a substrate to be patterned - subsequently applying at least twice the following cycle: - applying a lithographical patterning process of a thermally shrinkable metal-oxide layer for forming a metal-oxide pattern, and - thermally shrinking the metal-oxide pattern, whereby the different metal oxide patterns formed during the at least two cycles are outlined relatively with respect to each other so that the shrunk metal-oxide patterns form together an overall pattern to be transferred to the substrate, - applying a lithographical patterning process of a thermally shrinkable metal-oxide layer for forming a metal-oxide pattern, and - thermally shrinking the metal-oxide pattern, - after said applying at least twice the cycle, transferring the overall pattern to the substrate.
A distributed heating network comprising a plurality of individual heat pumps, each heat pump individually coupled to a common heat source of the network, the common heat source of the network comprising a liquid loop within the network, the liquid of the loop being maintained at close to ambient temperature through active heat management of the common heat source, each heat pump being arranged to independently provide or extract heat from the common heat source, the network further comprising heat sinks (130, 140, 150) which can be used to divert excess heat from the common heat source, and wherein the common heat source is further coupled to at least one energy source (160, 170, 180, 190, 200), the at least one energy source being thermally decoupled from the plurality of individual heat pumps and characterised in that the network further comprises a controller configured to measure the temperature of the common heat source and arranged to deliver energy to the common heat source to raise the temperature within that loop or to extract heat from the loop using the heat sinks to maintain the temperature of the loop of the common heat source within a predetermined range which is independent of energy provided by the at least one energy source.
Hinge system (310, 410), comprising at least one first hinge leaf, which has a single bore and is suitable for fastening in an elongated breakthrough or in breakthroughs (315, 316, 317; 415, 416, 417), which are arranged in series, in a thin wall, such as a door leaf (320, 420) or door frame (322, 422) of a metal cabinet or housing, wherein the first hinge leaf lies on one side of the thin wall on the edges of the breakthrough or the series of breakthroughs (315, 316, 317; 415, 416, 417), and with a plate (458, 460) that lies on the other side of the thin wall on the edges of the breakthrough or the breakthroughs (315, 316, 317; 415, 416, 417) and with a screw connection which presses the two surfaces resting on the edge surfaces against one another, wherein in the region of the breakthrough or the breakthroughs, first projections emerge from the first hinge leaf or the plate (458, 460), said projections extending into or through the breakthrough or the breakthroughs, wherein recesses (340, 342; 440, 442) are formed in the plate (458, 460) or the first hinge leaf for receiving the first projections, wherein the first projections are guided by the surfaces of the inner edges of the breakthrough or the breakthroughs, and wherein the hinge comprises a second hinge leaf, which is pivotably connected to the first hinge leaf by means of a hinge pin (354; 454), characterised in that a threaded bore for the free end of the screw of the screw connection is guided through a second projection provided with a bore, wherein the second projection is provided on the first hinge leaf or the plate, in that the bore for the head end of the screw is guided through the cone of the receptacle for a countersunk head, in that the threaded bore for the free end of the screw is guided in the second projection formed as tubular section (350, 351; 450, 451), which is reinforced by optionally sloping partition walls (353, 453), and in that the second projection for the screw contains a screw thread.
A folding leaf door installation, comprising - at least one folding leaf door (2, 3) with at least two leaves (24, 25) and at least one hinge body (20, 21) disposed there between, - wherein each leaf includes a frame (10, 11), - wherein the frame (10, 11) includes a groove, into which an attachment web of the hinge body (20, 21) is insertable, - wherein the groove and the attachment web include an undercut such that a positive connection is provided between frame (10, 11) and hinge body (20, 21), - wherein the hinge body (20, 21) includes a strip web, - wherein the strip web is connectable to the frame (10, 11), - wherein the strip web includes at least one threaded bore, into which an attachment bolt is screwable and can be pressed against the frame (10, 11), - wherein the folding leaf door (2, 3) comprises at least one first leaf with a first frame and at least one second leaf with a second frame, wherein a first hinge body is disposed at the first frame and a second hinge body is disposed at a second frame, wherein the first hinge body is supportable at least at two second hinge bodies and the second hinge body is supportable at least at two first hinge bodies, and - the first hinge body includes a first bushing-shaped area and the second hinge body a second bushing-shaped area, wherein the first bushing-shaped area and the second bushing shaped area are supported at each other, in particular vertically one on top of the other, via a supported door bolt. - at least one folding leaf door (2, 3) with at least two leaves (24, 25) and at least one hinge body (20, 21) disposed there between, - wherein each leaf includes a frame (10, 11), - wherein the frame (10, 11) includes a groove, into which an attachment web of the hinge body (20, 21) is insertable, - wherein the groove and the attachment web include an undercut such that a positive connection is provided between frame (10, 11) and hinge body (20, 21), - wherein the hinge body (20, 21) includes a strip web, - wherein the strip web is connectable to the frame (10, 11), - wherein the strip web includes at least one threaded bore, into which an attachment bolt is screwable and can be pressed against the frame (10, 11), - wherein the folding leaf door (2, 3) comprises at least one first leaf with a first frame and at least one second leaf with a second frame, wherein a first hinge body is disposed at the first frame and a second hinge body is disposed at a second frame, wherein the first hinge body is supportable at least at two second hinge bodies and the second hinge body is supportable at least at two first hinge bodies, and - the first hinge body includes a first bushing-shaped area and the second hinge body a second bushing-shaped area, wherein the first bushing-shaped area and the second bushing shaped area are supported at each other, in particular vertically one on top of the other, via a supported door bolt.
Rubber mixture, characterized by the following composition: - at least one diene rubber and - at least one precipitated silica with a CTAB surface area greater than or equal to 150 m 2 /g and a BET surface area greater than or equal to 150 m 2 /g and a DBP number between 180 and 350 g/100 g and a half-height width of the reflection normalized to the position of the reflection of less than or equal to 0.95 and a homogeneity ratio d 25% to d 75% of 1.00 to 1.80 and a relative width γ, pressed at 1 t for 5 s, of less than or equal to 2.8 (g nm)/ml and a fineness value F.V., pressed at 1 t for 5 s, between 100 and 140 Å and - further additives. - at least one diene rubber and - at least one precipitated silica with a CTAB surface area greater than or equal to 150 m 2 /g and a BET surface area greater than or equal to 150 m 2 /g and a DBP number between 180 and 350 g/100 g and a half-height width of the reflection normalized to the position of the reflection of less than or equal to 0.95 and a homogeneity ratio d 25% to d 75% of 1.00 to 1.80 and a relative width γ, pressed at 1 t for 5 s, of less than or equal to 2.8 (g nm)/ml and a fineness value F.V., pressed at 1 t for 5 s, between 100 and 140 Å and - further additives.
Process for the production of ethanol from a sugar composition, comprising the following steps: a) fermentation of the sugar composition in the presence of a mixed sugar cell being a yeast belonging to the genus Saccharomyces, and b) recovery of ethanol, wherein the yeast comprises the genes araA, araB and araD and the sugar composition comprises glucose, galactose and arabinose, wherein the sugars glucose, galactose and arabinose are converted into ethanol, and wherein the fermentation is conducted under anaerobic conditions. a) fermentation of the sugar composition in the presence of a mixed sugar cell being a yeast belonging to the genus Saccharomyces, and b) recovery of ethanol,
An adaptable LED-based lighting unit, comprising: a plurality of LEDs (541A-G, 641) producing a light output having at least one adaptable light output characteristic; and a controller electrically coupled to the plurality of LEDs characterized in that the controller is configured to: receive lighting implementation data indicative of a particular lighting implementation; request, in response to receiving said lighting implementation data, predefined lighting configuration data correlated with said lighting implementation data; receive said predefined lighting configuration data; and adapt the at least one adaptable light output characteristic of the LEDs (541A-G, 641) to achieve a predefined lighting configuration; being correlated with said received lighting configuration data; wherein said lighting implementation data is received in response to integration of said LEDs within said particular lighting implementation; and wherein said lighting configuration data is selected from a plurality of predefined lighting configuration data. a plurality of LEDs (541A-G, 641) producing a light output having at least one adaptable light output characteristic; and a controller electrically coupled to the plurality of LEDs characterized in that the controller is configured to: receive lighting implementation data indicative of a particular lighting implementation; request, in response to receiving said lighting implementation data, predefined lighting configuration data correlated with said lighting implementation data; receive said predefined lighting configuration data; and adapt the at least one adaptable light output characteristic of the LEDs (541A-G, 641) to achieve a predefined lighting configuration; being correlated with said received lighting configuration data; wherein said lighting implementation data is received in response to integration of said LEDs within said particular lighting implementation; and wherein said lighting configuration data is selected from a plurality of predefined lighting configuration data. receive lighting implementation data indicative of a particular lighting implementation; request, in response to receiving said lighting implementation data, predefined lighting configuration data correlated with said lighting implementation data; receive said predefined lighting configuration data; and adapt the at least one adaptable light output characteristic of the LEDs (541A-G, 641) to achieve a predefined lighting configuration; being correlated with said received lighting configuration data; wherein said lighting implementation data is received in response to integration of said LEDs within said particular lighting implementation; and wherein said lighting configuration data is selected from a plurality of predefined lighting configuration data.