mhurhangee/ep-ind-claims huggingface dataset:
Refrigerated sales cabinet, comprising: a cabinet body providing a refrigerated sales space for storing goods to be presented therein, the cabinet body comprising a roof portion, with a night blind being attached to the front of the roof portion, and a bottom front portion extending upwardly from a substantially horizontal base plate; an access area extending between the front of the roof portion and the upper end of the bottom front portion; and a return air grille arranged behind and adjacent to the bottom front portion; the night blind being movable between a daytime operating position, in which the lower end of the night blind is arranged in front of the roof portion allowing access to the goods through the access area, and a nighttime operating position, in which the lower end of the night blind is arranged at a lower position in front of the return air grille, such that the access area is closed; characterized by further comprising at least one night blind guiding element (28; 40) positioned on the return air grille the at least one night blind guiding element (28; 40) comprising a night blind receiving section (32; 46) which in connection with the rear face of the upper end of the bottom front portion of the cabinet body forms a night blind receiving gap (38; 50), whereas the night blind receiving gap (38; 50) is configured to receive the lower end of the night blind therein and to keep the lower end of the night blind in a position in the front region of the return air grille in the nighttime operating position. a cabinet body providing a refrigerated sales space for storing goods to be presented therein, the cabinet body comprising a roof portion, with a night blind being attached to the front of the roof portion, and a bottom front portion extending upwardly from a substantially horizontal base plate; an access area extending between the front of the roof portion and the upper end of the bottom front portion; and a return air grille arranged behind and adjacent to the bottom front portion; the night blind being movable between a daytime operating position, in which the lower end of the night blind is arranged in front of the roof portion allowing access to the goods through the access area, and a nighttime operating position, in which the lower end of the night blind is arranged at a lower position in front of the return air grille, such that the access area is closed; characterized by further comprising at least one night blind guiding element (28; 40) positioned on the return air grille the at least one night blind guiding element (28; 40) comprising a night blind receiving section (32; 46) which in connection with the rear face of the upper end of the bottom front portion of the cabinet body forms a night blind receiving gap (38; 50), whereas the night blind receiving gap (38; 50) is configured to receive the lower end of the night blind therein and to keep the lower end of the night blind in a position in the front region of the return air grille in the nighttime operating position.
A panel comprising a base layer having a first face and a second face, integrally sandwiched between a first exterior layer applied over the first face, and a second exterior layer applied over the second face, wherein each of the first face and the second face is configured with outwardly projecting bulging portions (30,36), the bulging portions being exposed through respective openings (32,38) at the first exterior layer and the second exterior layer, extending in register with said bulging portions, the panel being configured with apertures extending in register through the base layer and the sandwiching first exterior layer and second exterior layer, characterised in that the bulging portions (30,36) of the first exterior layer and the second exterior layer are interconnected through ribs facilitating flow of molten material during an injection molding process.
A culture container for culturing lymphocytes, wherein the culture container is formed of a gas permeable film, antibodies are immobilized on only one of the container inner surfaces facing each other, thereby to provide an immobilized surface and a non-immobilized surface, and anti-CD3 antibodies are immobilized in the immobilized surface, wherein the immobilized surface and the non-immobilized surface are maintained in a state where they are not in contact with each other, characterized in that the anti-CD3 antibodies are immobilized in the immobilized surface at a concentration of 10 to 300 ng/cm 2 and in that a gas is sealed in an amount of 0.01 to 4 ml per cm 2 of the bottom surface area in the container.
A printed multilayer polymeric film, comprising: - a flexible polymeric film layer, wherein the flexible polymeric film layer is the outermost layer of the printed multilayer polymeric film; - one or more non-photochromic layers each comprising a solvent-based ink composition having one or more non-photochromic inks that are at least partially transparent to ultraviolet radiation; and - one or more photochromic layers each comprising a water-based ink composition having one or more photochromic inks that undergo a color change upon exposure to ultraviolet radiation, wherein at least a portion of the one or more non-photochromic layers are located between the flexible polymeric film layer and at least a portion of the one or more photochromic layers. - a flexible polymeric film layer, wherein the flexible polymeric film layer is the outermost layer of the printed multilayer polymeric film; - one or more non-photochromic layers each comprising a solvent-based ink composition having one or more non-photochromic inks that are at least partially transparent to ultraviolet radiation; and - one or more photochromic layers each comprising a water-based ink composition having one or more photochromic inks that undergo a color change upon exposure to ultraviolet radiation,
A process for co-production of ammonia, urea and methanol from natural gas, comprising the steps of: (a) producing a synthesis gas by simultaneous feeding natural gas to an autothermal reformer and to a steam methane reformer, the two reformers running in parallel; (b) feeding air to an air separation unit, where the air is split into oxygen, which is fed to the ATR, and nitrogen; (c) subjecting the synthesis gas from the SMR to a water gas shift; (d) removing the carbon dioxide from the synthesis gas from step (c) and leading it to urea synthesis in a urea synthesis unit; (e) combining the hydrogen-rich gas from step (d) with the nitrogen from step (b), removing catalyst poisons and part of inerts from the gases and leading the gas mixture to ammonia synthesis in an ammonia synthesis unit; (f) removing part of the carbon dioxide from the syngas from the ATR in step (a) and leading it to a urea synthesis unit, and (g) leading the syngas from step (f) to the methanol synthesis unit, wherein synthesis gas from step (a) may be led either from the ATR outlet to the SMR outlet upstream from the shift stage or the other way. (a) producing a synthesis gas by simultaneous feeding natural gas to an autothermal reformer and to a steam methane reformer, the two reformers running in parallel; (b) feeding air to an air separation unit, where the air is split into oxygen, which is fed to the ATR, and nitrogen; (c) subjecting the synthesis gas from the SMR to a water gas shift; (d) removing the carbon dioxide from the synthesis gas from step (c) and leading it to urea synthesis in a urea synthesis unit; (e) combining the hydrogen-rich gas from step (d) with the nitrogen from step (b), removing catalyst poisons and part of inerts from the gases and leading the gas mixture to ammonia synthesis in an ammonia synthesis unit; (f) removing part of the carbon dioxide from the syngas from the ATR in step (a) and leading it to a urea synthesis unit, and (g) leading the syngas from step (f) to the methanol synthesis unit,
Heald for a heald frame, with a heald body, which extends in a longitudinal direction and which has a thread eyelet that serves to receive a warp thread, which passes through the thread eyelet in a warp thread direction from a warp thread inlet side of the thread eyelet to a warp thread outlet side, wherein the thread eyelet is delimited by two thread supporting surfaces spaced from one another in the longitudinal direction on the heald body, with two guide webs (33, 34) delimiting the thread eyelet in a transverse direction transversely to the longitudinal direction and transversely to the warp thread direction, wherein a front edge of one guide web associated with the warp thread inlet side and a rear edge of the respective other guide web associated with the warp thread outlet side run at a distance (y) from one another in warp thread direction in a central section so that a drawing-in opening is formed in transverse direction for drawing in the warp thread, characterised in that adjoining each thread supporting surface the guide webs (33, 34) have a respective end section, which extends in warp thread direction along the entire respectively associated thread support surface.
A method for characterising and/or prognosing prostate cancer in a subject comprising: determining the expression level of at least PDK4 in a sample from the subject wherein the determined expression level is used to provide a characterisation of and/or a prognosis for the prostate cancer; wherein the determined expression level is compared to a reference value or to the expression level in one or more control samples; and wherein a decreased expression level of PDK4 indicates an increased likelihood of recurrence and/or metastasis and/or a poor prognosis.
Branched geminal zwitterionic liquids, sulfobetaine- and hydroxysultaine-base with the following structural formula: Where: R 1 = It is a radical represented by alkyl or alkenyl chains, linear or branched; or a group cycle alkyl or aryl; R 2 = It is a radical represented by alkyl or alkenyl chains, linear or branched; or a group cycle alkyl or aryl; R 3 = -CH 2 -, -CH 2 -CH -; y = values of 0 and 1; When is y equal to 1: R 4 = It is a radical represented by -OH; n values of 1 to 500. R 1 = It is a radical represented by alkyl or alkenyl chains, linear or branched; or a group cycle alkyl or aryl; R 2 = It is a radical represented by alkyl or alkenyl chains, linear or branched; or a group cycle alkyl or aryl; R 3 = -CH 2 -, -CH 2 -CH -; y = values of 0 and 1; R 4 = It is a radical represented by -OH; n values of 1 to 500.
A cubic boron nitride sintered body comprising cubic boron nitride and a binder phase, wherein a content of the cubic boron nitride is 82 volume % or more and 98 volume % or less, in a cross section of the cubic boron nitride sintered body, an isolated binder phase having an area of 0.05 μm 2 or more and 0.5 μm 2 or less has a protrusion of two or more steps with respect to the cubic boron nitride, and assuming that in a first-step protrusion from a tip of the protrusion, A1 represents a side length which is perpendicular in a tip direction, and B1 represents a side length which is parallel in the tip direction; and in a second-step protrusion from the tip, A2 represents a side length which is perpendicular in the tip direction, and B2 represents a side length which is parallel in the tip direction, an area ratio of an isolated binder phase having a protrusion in which A1/B1 is one time or more and ten times or less of A2/B2, to the whole of the isolated binder phase having the area of 0.05 μm 2 or more and 0.5 μm 2 or less, is 25% or more.
Method for acquiring a main x-ray image during a main image acquisition that uses an x-ray emitter and an x-ray detector for imaging an object, especially a patient during a medical image acquisition, - wherein a first preparatory image is acquired by the x-ray detector using at least one first preparatory acquisition parameter to control the x-ray emitter, - wherein a second preparatory image is acquired by the x-ray detector using at least one second preparatory acquisition parameter to control the x-ray emitter, when a repeat condition is fulfilled, and - wherein the main x-ray image is acquired using a main acquisition parameter (15, 40) that controls the x-ray emitter during the main image acquisition to determine a dose of x-rays to be emitted from the x-ray emitter during the main image acquisition, - wherein first image data of the first preparatory image is evaluated by a processor to determine if the repeat condition is fulfilled and to determine the second preparatory acquisition parameter, and - wherein the main acquisition parameter (15, 40) is determined by the processor depending on second image data of the second preparatory image when the repeat condition is fulfilled. - wherein a first preparatory image is acquired by the x-ray detector using at least one first preparatory acquisition parameter to control the x-ray emitter, - wherein a second preparatory image is acquired by the x-ray detector using at least one second preparatory acquisition parameter to control the x-ray emitter, when a repeat condition is fulfilled, and - wherein the main x-ray image is acquired using a main acquisition parameter (15, 40) that controls the x-ray emitter during the main image acquisition to determine a dose of x-rays to be emitted from the x-ray emitter during the main image acquisition, - wherein first image data of the first preparatory image is evaluated by a processor to determine if the repeat condition is fulfilled and to determine the second preparatory acquisition parameter, and - wherein the main acquisition parameter (15, 40) is determined by the processor depending on second image data of the second preparatory image when the repeat condition is fulfilled.
A method of forming an RFID device, comprising: forming an antenna structure by depositing a first electrically conductive material on a substrate; defining an elongated slot in the first electrically conductive material, such that the first electrically conductive material has a first part and a second part, the two parts (116, 118) being capacitively coupled together such that an operating parameter of the antenna structure varies in relation to an environmental condition; characterized by depositing an environmentally responsive material across and/or within the elongated slot; and coupling a wireless communications device to the antenna structure, wherein the presence of the environmentally responsive material across and/or within the elongated slot alters the level of interaction between the first part and the second part across the slot and therefore alters the gain, far field performance and near field performance of the RFID device, and wherein changes in the antenna complex impedance will interact with the complex impedance of the RFID device to alter the near and far field performance and characteristics. forming an antenna structure by depositing a first electrically conductive material on a substrate; defining an elongated slot in the first electrically conductive material, such that the first electrically conductive material has a first part and a second part, the two parts (116, 118) being capacitively coupled together such that an operating parameter of the antenna structure varies in relation to an environmental condition; depositing a first electrically conductive material on a substrate; defining an elongated slot in the first electrically conductive material, such that the first electrically conductive material has a first part and a second part, the two parts (116, 118) being capacitively coupled together such that an operating parameter of the antenna structure varies in relation to an environmental condition; characterized by depositing an environmentally responsive material across and/or within the elongated slot; and coupling a wireless communications device to the antenna structure, wherein the presence of the environmentally responsive material across and/or within the elongated slot alters the level of interaction between the first part and the second part across the slot and therefore alters the gain, far field performance and near field performance of the RFID device, and wherein changes in the antenna complex impedance will interact with the complex impedance of the RFID device to alter the near and far field performance and characteristics.
A polypeptide having hemicellulase activity which comprises the amino acid sequence set out in SEQ ID NO: 37 or an amino acid sequence encoded by the nucleotide sequence of SEQ ID NO: 36, SEQ ID NO: 39 or a variant polypeptide or variant polynucleotide thereof, wherein the variant polypeptide has at least 85% sequence identity with the sequence set out in SEQ ID NO: 37, or the variant polynucleotide encodes a polypeptide that has at least 85% sequence identity with the sequence set out in SEQ ID NO: 37, wherein the polypeptide or variant polypeptide has alpha-arabinofuranosidase activity.
Method for channel set up in an optical WDM-network (1 - 5) transmitting a wavelength-division-multiplex-, WDM-, -signal via optical channels, comprising the steps of - configuring a signal path between a start node, via at least one intermediate node (3,...), and a last node for an optical channel signal transmitted in an optical channel of the WDM-signal, - on-off modulating at the start node said optical channel signal with a modulation test signal generating a channel test signal (OTi), - transmitting said channel test signal via said optical channel of the WDM-signal, - tapping at a downstream monitoring port (19, 40) an electrical measurement signal (EM1, EM2) derived from the WDM-signal, - deriving a power level (PC1, PC2) of said channel test signal by applying a correlation method between the electrical measurement signal (EM1, EM2) and a correlation signal corresponding to said modulation test signal during a sufficiently long time, - calculating a control command from the difference between the measured power level (PC1, PC2) and a target power value (PT1, PT2) allocated to said optical channel signal at a certain power monitoring point (19, 40), - setting an output power level of said optical channel signal in the start node according to the control command to obtain the allocated target power value (PT1, PT2), and - setting the output power level (PC3, PC4,...) of the channel signal in further downstream nodes (3, 5) to obtain further allocated target power values (PT4, PT5) at further downstream power monitoring points (41, 58). - configuring a signal path between a start node, via at least one intermediate node (3,...), and a last node for an optical channel signal transmitted in an optical channel of the WDM-signal, - on-off modulating at the start node said optical channel signal with a modulation test signal generating a channel test signal (OTi), - transmitting said channel test signal via said optical channel of the WDM-signal, - tapping at a downstream monitoring port (19, 40) an electrical measurement signal (EM1, EM2) derived from the WDM-signal, - deriving a power level (PC1, PC2) of said channel test signal by applying a correlation method between the electrical measurement signal (EM1, EM2) and a correlation signal corresponding to said modulation test signal during a sufficiently long time, - calculating a control command from the difference between the measured power level (PC1, PC2) and a target power value (PT1, PT2) allocated to said optical channel signal at a certain power monitoring point (19, 40), - setting an output power level of said optical channel signal in the start node according to the control command to obtain the allocated target power value (PT1, PT2), and - setting the output power level (PC3, PC4,...) of the channel signal in further downstream nodes (3, 5) to obtain further allocated target power values (PT4, PT5) at further downstream power monitoring points (41, 58).
A process for the production of synthesis gas from hard coal, wherein (a) hard coal is subjected to dry pyrolysis, resulting in the production of a gas mixture containing hydrogen, methane, nitrogen and carbon monoxide as major constituents and carbon sulphides as minor constituents, (b) the gas mixture is subjected to hydrogenation at a temperature in the range of 200 to 280 °C over a sulphidic cobalt molybdenum catalyst provided on an aluminum oxide carrier material, and (c) the hydrogen sulphide obtained from hydrogenation is separated from the gas mixture, wherein sulphidic cobalt molybdenum catalysts are used which contain molybdenum sulphide as the actual catalyst and cobalt as the promoter, wherein said catalysts are composed of more than 50 %-mole of molybdenum sulphide and said catalysts contain the cobalt in sulphidic form, the quantity in %-mole of said cobalt in sulphidic form resulting as the difference to 100, wherein molybdenum sulphide has been obtained by sulphidation of the respective oxide, wherein the MoO 3 has been converted completely to MoS 2, wherein after sulphidation the cobalt is present in three forms: first as Co 9 S 8 crystals deposited on the carrier, as Co 2+ ions on the edges of the MoS 2 plates ('CoMo phase') and as Co 2+ ions on the tetrahedral positions in the aluminum oxide lattice. (a) hard coal is subjected to dry pyrolysis, resulting in the production of a gas mixture containing hydrogen, methane, nitrogen and carbon monoxide as major constituents and carbon sulphides as minor constituents, (b) the gas mixture is subjected to hydrogenation at a temperature in the range of 200 to 280 °C over a sulphidic cobalt molybdenum catalyst provided on an aluminum oxide carrier material, and (c) the hydrogen sulphide obtained from hydrogenation is separated from the gas mixture,