mhurhangee/ep-ind-claims huggingface dataset:
Process for optimizing the management of photons in scintillator crystals comprising the following steps: - depositing a material having a refractive index "n" approximately equal to the refractive index of a scintillator crystal, on one face of said scintillator crystal; - structuring said material via a structuring means; in such a way that the shape of the structures created by the structuring is conical or substantially conical, the method being characterized in that the bases of the structures have a sub-diffractive size at most equal to lambda / 2n, of preferably lambda / 4n where lambda is the wavelength of the photons and n is the refractive index of the material so as to allow an adaptation of the refractive index between the scintillator crystal and the material on said face, and in that the height of the cones is at least equal to lambda to allow a slow transition. - depositing a material having a refractive index "n" approximately equal to the refractive index of a scintillator crystal, on one face of said scintillator crystal; - structuring said material via a structuring means;
A mask (100, 600) for the delivery of breathable gases to a subject, the mask (100, 600) being configured for neonatal resuscitation use and comprising a cushion (102, 601) and one or more restriction components (106, 606), the one or more restriction components (106, 606) extending at least partly around, or forming part of, the outer perimeter of the cushion (102, 601), the cushion (102, 601) having a sealing surface (104, 602) configured to form a seal around at least one airway of a patient in use, the cushion (102, 601) comprising a first layer, a second layer, and a third layer, the first and third layers (604, 608) comprising a gel material having a first Shore hardness, and the second layer, situated between the first and third layers (604, 608), comprising a material having a second Shore hardness, greater than the first Shore hardness, and the second layer acts as a restriction component (106, 606), and wherein the mask is symmetrical and can be applied in any orientation to the face of the subject. the one or more restriction components (106, 606) extending at least partly around, or forming part of, the outer perimeter of the cushion (102, 601), the cushion (102, 601) having a sealing surface (104, 602) configured to form a seal around at least one airway of a patient in use, the cushion (102, 601) comprising a first layer, a second layer, and a third layer, the first and third layers (604, 608) comprising a gel material having a first Shore hardness, and the second layer, situated between the first and third layers (604, 608), comprising a material having a second Shore hardness, greater than the first Shore hardness, and the second layer acts as a restriction component (106, 606), and wherein the mask is symmetrical and can be applied in any orientation to the face of the subject.
A method of colorimetry compensation in a projection system, the projection system comprising a projector (1.3), a camera (1.6) and a pixel colorimetry compensation module (1.2), wherein by the pixel colorimetry compensation module (1.2) performs the steps of: - initializing current coefficients of a model of the transfer function of a projection surface; and iteratively: - determining a target image (2.3) by applying global parameters transformation on a source image (2.1), the global parameters being determined based on the current coefficients, the global parameters being representative of the albedo of the projection surface (1.4) and of the external light; - determining a compensated image (2.5) by applying to the target image (2.3) a known inverse transfer function of the projector and an inverse transfer function of the projection surface computed with the model based on the current coefficients; - obtaining, from the camera (1.6), a captured image (2.9) of the projection, by the projector (1.3), of the compensated image (2.5) on the projection surface (1.4); - updating the current coefficients with new values obtained by minimizing a distance between the captured image (2.9) and a model of this image based on the known transfer function of the camera, the model of the transfer function of the projection surface, and the known transfer function of the projector applied to the compensated image (2.5). - initializing current coefficients of a model of the transfer function of a projection surface; and iteratively: - determining a target image (2.3) by applying global parameters transformation on a source image (2.1), the global parameters being determined based on the current coefficients, the global parameters being representative of the albedo of the projection surface (1.4) and of the external light; - determining a compensated image (2.5) by applying to the target image (2.3) a known inverse transfer function of the projector and an inverse transfer function of the projection surface computed with the model based on the current coefficients; - obtaining, from the camera (1.6), a captured image (2.9) of the projection, by the projector (1.3), of the compensated image (2.5) on the projection surface (1.4); - updating the current coefficients with new values obtained by minimizing a distance between the captured image (2.9) and a model of this image based on the known transfer function of the camera, the model of the transfer function of the projection surface, and the known transfer function of the projector applied to the compensated image (2.5).
A method for fabricating a display device, which has a plurality of pixel areas and thin film transistors, said method comprising: a mark forming process of forming plurality of standard marks in a flexible substrate fed in a first direction, each of the standard marks is located at a predetermined position with respect to the first direction; a partition wall forming process of forming partition walls corresponding to an electrode of each pixel area, an electrode portion of each transistor, and bus lines (SBL, GBL) between the pixel areas, in the flexible substrate, the partition walls are located at a predetermined positional relation with the standard marks; and an electrode forming process of forming an electrode by applying a conductive material at a predetermined position between the partition walls by an applicator comprising a droplet application unit, while aligning relative positions of the flexible substrate and the applicator based on the location of the standard marks characterized in that the standard marks and the partition walls are formed simultaneously. a mark forming process of forming plurality of standard marks in a flexible substrate fed in a first direction, each of the standard marks is located at a predetermined position with respect to the first direction; a partition wall forming process of forming partition walls corresponding to an electrode of each pixel area, an electrode portion of each transistor, and bus lines (SBL, GBL) between the pixel areas, in the flexible substrate, the partition walls are located at a predetermined positional relation with the standard marks; and an electrode forming process of forming an electrode by applying a conductive material at a predetermined position between the partition walls by an applicator comprising a droplet application unit, while aligning relative positions of the flexible substrate and the applicator based on the location of the standard marks characterized in that the standard marks and the partition walls are formed simultaneously.
Scanning microscope, having a detector apparatus, which is configured to receive light and to generate electrical signals, with a housing and a detector arranged in the housing, wherein a passive cooling component is arranged in the housing, wherein the passive cooling component electrically insulates the detector with respect to the housing or wherein the passive cooling component is at least part of an insulation that electrically insulates the detector with respect to the housing, wherein a. a further, active cooling component is provided in the housing and b. a light path for the light to be detected is defined and passes through the passive cooling component and the further, active cooling component, a. a further, active cooling component is provided in the housing and b. a light path for the light to be detected is defined and passes through the passive cooling component and the further, active cooling component,
A recombinant microorganism having enhanced 2,3-butanediol producing ability, wherein a pathway for converting pyruvate to acetyl-CoA, a pathway for converting pyruvate to formic acid, and a pathway for converting pyruvate to lactate is inhibited in a microorganism having acetyl-CoA and lactate biosynthetic pathways, and the microorganism is Klebsiella.
A temperature-controllable microfluidic device, comprising: a microfluidic channel generally extending in a first direction for passing a specimen fluid; a microheater disposed along the microfluidic channel, the microheater being made of a resistive wire having a pair of serpentine-shaped portions generally extending in the first direction along respective sides of the microfluidic channel, a portion of the resistive wire connecting the pair of serpentine-shaped portions at adjacent ends of the serpentine-shaped portions; and a temperature sensor disposed along the microfluidic channel, the temperature sensor being made of a resistive wire having a pair of serpentine-shaped portions generally extending in the first direction along the respective sides of the microfluidic channel. a microfluidic channel generally extending in a first direction for passing a specimen fluid; a microheater disposed along the microfluidic channel, the microheater being made of a resistive wire having a pair of serpentine-shaped portions generally extending in the first direction along respective sides of the microfluidic channel, a portion of the resistive wire connecting the pair of serpentine-shaped portions at adjacent ends of the serpentine-shaped portions; and a temperature sensor disposed along the microfluidic channel, the temperature sensor being made of a resistive wire having a pair of serpentine-shaped portions generally extending in the first direction along the respective sides of the microfluidic channel.
A method for wireless communication, comprising: receiving a first downlink transmission in a first short transmission time interval, sTTI (210-a, 305-a, 405-a, 505-a); receiving a second downlink transmission in a second sTTI (210-b, 305-b, 405-b, 505-b); identifying one of a plurality of demodulation reference signal, DMRS, configurations for demodulating the second downlink transmission, wherein the plurality of DMRS configurations comprises at least one combined DMRS configuration sharing DMRS from the first downlink transmission and DMRS from the second downlink transmission, shared across the first sTTI (210-a, 305-a, 405-a, 505-a) and the second sTTI (210-b, 305-b, 405-b, 505-b), for demodulating the second downlink transmission, wherein the identifying the one of the plurality of DMRS configurations comprises identifying the at least one combined DMRS configuration based at least in part on a number of layers used for the receiving the downlink transmissions being above a layer threshold; and demodulating the second downlink transmission based at least in part on the one of the plurality of DMRS configurations. receiving a first downlink transmission in a first short transmission time interval, sTTI (210-a, 305-a, 405-a, 505-a); receiving a second downlink transmission in a second sTTI (210-b, 305-b, 405-b, 505-b); identifying one of a plurality of demodulation reference signal, DMRS, configurations for demodulating the second downlink transmission, wherein the plurality of DMRS configurations comprises at least one combined DMRS configuration sharing DMRS from the first downlink transmission and DMRS from the second downlink transmission, shared across the first sTTI (210-a, 305-a, 405-a, 505-a) and the second sTTI (210-b, 305-b, 405-b, 505-b), for demodulating the second downlink transmission, wherein the identifying the one of the plurality of DMRS configurations comprises identifying the at least one combined DMRS configuration based at least in part on a number of layers used for the receiving the downlink transmissions being above a layer threshold; and demodulating the second downlink transmission based at least in part on the one of the plurality of DMRS configurations.
Rolling unit comprising at least two rolling stands (11a, 11b, 11c, 11d, 11e, 11f) disposed adjacent to each other and each provided with a pair of rolling rolls (12a, 12b) defining a rolling axis, mounted on respective first and second motorized shafts (15a, 15b), wherein the rotation axes of motorized shafts (15 a, 15b) are disposed on a first plane of common laying, and wherein said axes of rotation of said motorized shafts (15a, 15b) are disposed substantially parallel to each other, and orthogonal with respect to said rolling axis, said pair of rolls of one rolling stand being disposed orthogonal with respect to those of the adjacent rolling stand and being placed in great proximity to each other, said motorized shafts (15a, 15b) being supported in an eccentric position in respective support elements (16a, 16b), said support elements (16a, 16b) being selectively rotatable around their axis and each being provided with rotation means suitable to cooperate mechanically with an adjustment member suitable to make said support elements (16a, 16b) selectively rotate and determine an adjustment of the gap between said rolls (12a, 12b), said adjustment member comprising at least a gear (25; 125) and means to make said gear (25; 125) rotate, and said rotation means comprising at least a toothed member (21a, 21b; 121a, 121b) able to engage with the gear (25; 125) of the adjustment member in order to selectively make said support elements (16a, 16b) rotate and therefore vary the gap between the rolls (12a, 12b), wherein said adjustment member is disposed, with respect to the rolling stands (11a, 11b, 11c, 11d, 11e, 11f), so that the center of its gear (25; 125) lies along, or very close to, the line joining the centers of the toothed members (21a, 21b; 121a, 121b) of the support elements (16a, 16b) so that a substantial part of the adjustment member is contained in the bulk defined by the rolling stand (11a, 11b, 11c, 11d, 11e, 11f), wherein each of said support elements (16a, 16b) has an inter-stand bulk comprised between a second plane and a third plane which are both parallel to said first plane, wherein said gear is a first toothed wheel or sector (25; 125), wherein said adjustment member further comprises a second toothed wheel or sector (27, 127) keyed on a same shaft (26, 126) on which said first toothed wheel or sector (25, 125) is keyed and a worm screw (29, 129) meshed with said second toothed wheel (27, 127), and wherein said first toothed wheel or sector (25, 125) acts in the space comprised between sad second plane and said third plane, and is disposed so as to always intersect said first plane.
An apparatus for analyzing a granulate for producing a pharmaceutical product, the apparatus comprising: a data receiving unit configured to receive X-ray diffraction data indicative of a scattering of X-rays irradiated onto the granulate; a processor unit configured to process the X-ray diffraction data to derive information indicative of at least one of a compressibility and a dissolution characteristic of the granulate; and a control unit configured to control a process of producing a pharmaceutical product based on the derived information; wherein the data receiving unit is configured to receive X-ray diffraction data resulting from Small Angle X-Ray Scattering; and the processor unit is configured to process the X-ray diffraction data to derive at least one of a second momentum integral of a measurement spectrum, in order to determine the compressibility of the granulate, and a Porod constant, in order to determine the dissolution characteristic of the granulate. a data receiving unit configured to receive X-ray diffraction data indicative of a scattering of X-rays irradiated onto the granulate; a processor unit configured to process the X-ray diffraction data to derive information indicative of at least one of a compressibility and a dissolution characteristic of the granulate; and a control unit configured to control a process of producing a pharmaceutical product based on the derived information; wherein the data receiving unit is configured to receive X-ray diffraction data resulting from Small Angle X-Ray Scattering; and the processor unit is configured to process the X-ray diffraction data to derive at least one of a second momentum integral of a measurement spectrum, in order to determine the compressibility of the granulate, and a Porod constant, in order to determine the dissolution characteristic of the granulate.
A track-securing device for a track barrier for safeguarding or delimiting a section of a rail, in particular of a railway line, having a bar holder for at least one barrier bar of the track barrier, in particular for two barrier bars, having a fastening assembly arranged for fastening the track-securing device in a releasable manner onto a part of the rail, such as a foot of the rail, wherein the part is fixed with at least one clamp mechanism to an underlying railway sleeper, and having a retaining limb arranged to connect the bar holder to the fastening assembly, characterized in that a slide is provided, said slide being mounted on the retaining limb between the fastening assembly and the bar holder, wherein the slide is displaceable longitudinally on the retaining limb and wherein the slide has a support element, wherein the support element protrudes from the retaining limb and is arranged for supporting the retaining limb on the railway sleeper.
A Digital Multimedia Broadcasting, DMB, system adapted to provide a service by dividing an entire broadcasting service area into a plurality of areas, the DMB system comprising: an assisted global positioning system, AGPS, server that is arranged to generate acquisition assistance, AA, data distinguished according to an area based on a pre-set position for respective areas, the AA data for the respective areas including an area ID; a DMB transmitting station adapted to broadcast the AA data of the entire service area; at least one gap filler (221, 223, 225) adapted to relay DMB signals in an area, each of the at least one gap filler transmitting a gap filler ID from which the area ID can be determined; and at least one terminal that is configured to receive the broadcasted AA data, to receive a gap filler ID, to extract the AA data corresponding to the area ID from the received AA data and acquire an initial GPS signal by using the extracted AA data; whereby the area ID has been determined by the terminal from the gap filler ID received by the terminal. an assisted global positioning system, AGPS, server that is arranged to generate acquisition assistance, AA, data distinguished according to an area based on a pre-set position for respective areas, the AA data for the respective areas including an area ID; a DMB transmitting station adapted to broadcast the AA data of the entire service area; at least one gap filler (221, 223, 225) adapted to relay DMB signals in an area, each of the at least one gap filler transmitting a gap filler ID from which the area ID can be determined; and at least one terminal that is configured to receive the broadcasted AA data, to receive a gap filler ID, to extract the AA data corresponding to the area ID from the received AA data and acquire an initial GPS signal by using the extracted AA data; whereby the area ID has been determined by the terminal from the gap filler ID received by the terminal.
A welding-type system comprising: a housing enclosing an air flow space; an input circuit disposed to receive input power and to provide intermediate power; a power circuit, having a power control input and at least one switch responsive to the control input, and wherein the power circuit is disposed to receive intermediate power and provide welding type output power; a controller, having a set point input and a control output, wherein the control output is connected to the power control input; characterized by a partially potted circuit board comprising: a circuit board; a plurality of components mounted to the circuit board, wherein the plurality of components includes a first subset of components and a second subset of components; a potting barrier affixed to the circuit board, wherein the first subset of components are mounted on the circuit board within the potting barrier; and potting compound within the potting barrier and on the circuit board, and wherein the partially potted circuit board is at least partially mounted inside the enclosed air flow space within the housing. a housing enclosing an air flow space; an input circuit disposed to receive input power and to provide intermediate power; a power circuit, having a power control input and at least one switch responsive to the control input, and wherein the power circuit is disposed to receive intermediate power and provide welding type output power; a controller, having a set point input and a control output, wherein the control output is connected to the power control input; characterized by a partially potted circuit board comprising: a circuit board; a plurality of components mounted to the circuit board, wherein the plurality of components includes a first subset of components and a second subset of components; a potting barrier affixed to the circuit board, wherein the first subset of components are mounted on the circuit board within the potting barrier; and potting compound within the potting barrier and on the circuit board, and wherein the partially potted circuit board is at least partially mounted inside the enclosed air flow space within the housing. a circuit board; a plurality of components mounted to the circuit board, wherein the plurality of components includes a first subset of components and a second subset of components; a potting barrier affixed to the circuit board, wherein the first subset of components are mounted on the circuit board within the potting barrier; and potting compound within the potting barrier and on the circuit board, and wherein the partially potted circuit board is at least partially mounted inside the enclosed air flow space within the housing.
A device for water purification, wherein the device is a treatment plant in accordance with the method of sequencing batch reactor, wherein the treatment plant has at least two chambers, wherein xylitol fibers are accommodated in at least one chamber and means are formed which prevent the xylitol fibers from being removed from the chamber as a result of the flow-through of liquid, like water, in the chambers and the xylitol fibers are surrounded by a structure which retains the xylitol fibers within the structure and the predominant portion of the xylitol fiber used, i.e., more than 50% has a fineness which is within the range of 100 to 1000 tex, measured in accordance with ISO 1144 or DIN 60905.