mhurhangee/ep-ind-claims huggingface dataset:
A power control method, wherein the method comprises: receiving, by a first node, first information sent by a second node, wherein the first information is used to determine a first transmit power, the first transmit power is a power used when the first node sends downlink information to the second node through a first link, the first information comprises a power control parameter P 0 and a path loss compensation coefficient α corresponding to the first link, the first link is a link between the first node and the second node, and the first node is an upper-level device of the second node, wherein the first node is a donor base station or a relay device, wherein the second node is a next-hop relay device of the first node; and determining, by the first node, the first transmit power based on the first information. receiving, by a first node, first information sent by a second node, wherein the first information is used to determine a first transmit power, the first transmit power is a power used when the first node sends downlink information to the second node through a first link, the first information comprises a power control parameter P 0 and a path loss compensation coefficient α corresponding to the first link, the first link is a link between the first node and the second node, and the first node is an upper-level device of the second node, wherein the first node is a donor base station or a relay device, wherein the second node is a next-hop relay device of the first node; and determining, by the first node, the first transmit power based on the first information.
A dialysis device comprising an extracorporeal blood system, a dialyzing fluid system, a dialyzer and a control unit, characterized in that the dialysis device has a heating mechanism for heating the blood in the extracorporeal blood system before entry into the dialyzer or in the dialyzer as well as a cooling mechanism for cooling the blood in the extracorporeal blood system after exiting the dialyzer; and in that the control unit is configured such that the blood is heated before entry into the dialyzer or in the dialyzer to a dialysis temperature which is above the body temperature of the patient and is cooled back to the body temperature of the patient after exiting the dialyzer.
A white glass container, which is derived from a phase separation phenomenon of a glass composition having the following glass blending composition on the basis of the total amount: SiO 2: 45% by weight to 58% by weight; P 2 O 5: 2% by weight to 8% by weight; Al 2 O 3: 5% by weight to 9% by weight; B 2 O 3: 5% by weight to 13% by weight; Na 2 O: 5% by weight to 12% by weight; K 2 O: 1% by weight to 6% by weight; ZnO: 3% by weight to 10% by weight; CaO: 3% by weight to 10% by weight; CeO 2: 0.1% by weight to 2% by weight, wherein the white glass container includes a neck portion and a body portion, the neck portion is provided with a screw portion, is relatively thin, and is constituted by a single layer without including a white opaque layer having relatively high whiteness, and the body portion has a multi-layer structure including a white transparent layer having relatively low whiteness that has a thickness set to a value within the range of 0.1mm to 10mm and a white opaque layer having relatively high whiteness that has a thickness set to a value within the range of 3mm to 25mm, wherein the white transparent layer is a glass region in an amorphous state in which a degree of phase separation is low and the white opaque layer is a glass region in an amorphous state in which a degree of phase separation is high. SiO 2: 45% by weight to 58% by weight; P 2 O 5: 2% by weight to 8% by weight; Al 2 O 3: 5% by weight to 9% by weight; B 2 O 3: 5% by weight to 13% by weight; Na 2 O: 5% by weight to 12% by weight; K 2 O: 1% by weight to 6% by weight; ZnO: 3% by weight to 10% by weight; CaO: 3% by weight to 10% by weight; CeO 2: 0.1% by weight to 2% by weight, wherein the white glass container includes a neck portion and a body portion, the neck portion is provided with a screw portion, is relatively thin, and is constituted by a single layer without including a white opaque layer having relatively high whiteness, and the body portion has a multi-layer structure including a white transparent layer having relatively low whiteness that has a thickness set to a value within the range of 0.1mm to 10mm and a white opaque layer having relatively high whiteness that has a thickness set to a value within the range of 3mm to 25mm, wherein the white transparent layer is a glass region in an amorphous state in which a degree of phase separation is low and the white opaque layer is a glass region in an amorphous state in which a degree of phase separation is high.
Device (30; 330) for short-circuiting an electrical installation (10; 300) comprising at least two electrical conductors, the device comprising: - at least two connection terminals, each being capable of being connected to a respective electrical conductor, - an electromechanical unit capable of establishing a short-circuit between the connection terminals, - at least one resistance element (46; 346) capable of connecting one of the connection terminals to the corresponding electrical conductor, the or each resistance element (46; 346) comprising a first connection end connected to the corresponding connection terminal and a second connection end capable of being connected to the corresponding electrical conductor, characterised in that the resistance element (46; 346) has an impedance, and the variation of the impedance value is less than 1 mΩ for a temperature of the resistance element of between 0°C and 200°C. - at least two connection terminals, each being capable of being connected to a respective electrical conductor, - an electromechanical unit capable of establishing a short-circuit between the connection terminals, - at least one resistance element (46; 346) capable of connecting one of the connection terminals to the corresponding electrical conductor, the or each resistance element (46; 346) comprising a first connection end connected to the corresponding connection terminal and a second connection end capable of being connected to the corresponding electrical conductor, characterised in that the resistance element (46; 346) has an impedance, and the variation of the impedance value is less than 1 mΩ for a temperature of the resistance element of between 0°C and 200°C.
A device supporting an upstanding electrical equipment, the device comprising: - a base plate, wherein the upstanding electrical equipment is mounted on the base plate and affixed onto the base plate by means of connecting and fixing means; - a set of support adapters; - a set of viscous dampers connecting the base plate to the support adapters; characterized in that the device further comprises a set of wire rope dampers bearing the base plate and connecting the base plate to the support adapters, the set of support adapters connecting the viscous dampers and the wire rope dampers to a foundation plate, wherein at least one viscous damper and at least one wire rope damper are connected to the same support adapter. - a base plate, wherein the upstanding electrical equipment is mounted on the base plate and affixed onto the base plate by means of connecting and fixing means; - a set of support adapters; - a set of viscous dampers connecting the base plate to the support adapters;
Method for treating exhaust gas in an exhaust gas treatment device of a system, wherein the exhaust is withdrawn from a processing device of the system for mechanically and/or thermally processing an inorganic material, and wherein the material to be fed to the processing device is preheated by heat exchange with the exhaust, wherein the temperature of the exhaust gas entering the exhaust gas treatment device is adjusted by adapting the exchange of heat between the exhaust and the material in combination with adapted generation of heat in the processing device, characterized in that any influence of variable heat exchange in the preheating of the material on the temperatures in the processing device is compensated for by an adjustment in the generation of heat in the processing device.
A system (40, 50) for measuring and analyzing ocular temperature, comprising: an ocular temperature measurement apparatus (20, 70) for placement on an ocular surface, including: a temperature sensing device (22, 72) generating an electrical signal according to an ocular surface temperature; and a signal transmitting device (24, 74) converting the electrical signal into a wireless signal; and a receiving analyzer (51, 52), including: a signal receiving unit (41, 42) receiving the wireless signal; and characterized in that, an analyzing unit analyzing and determining whether the ocular surface temperature is normal according to the wireless signal; wherein the analyzing unit determines that the eye has no myopia or pseudo-myopia when a difference between two values of the ocular surface temperature respectively at daytime and nighttime is below a lower threshold value. an ocular temperature measurement apparatus (20, 70) for placement on an ocular surface, including: a temperature sensing device (22, 72) generating an electrical signal according to an ocular surface temperature; and a signal transmitting device (24, 74) converting the electrical signal into a wireless signal; and a temperature sensing device (22, 72) generating an electrical signal according to an ocular surface temperature; and a signal transmitting device (24, 74) converting the electrical signal into a wireless signal; and a receiving analyzer (51, 52), including: a signal receiving unit (41, 42) receiving the wireless signal; and characterized in that, an analyzing unit analyzing and determining whether the ocular surface temperature is normal according to the wireless signal; wherein the analyzing unit determines that the eye has no myopia or pseudo-myopia when a difference between two values of the ocular surface temperature respectively at daytime and nighttime is below a lower threshold value. a signal receiving unit (41, 42) receiving the wireless signal; and characterized in that, an analyzing unit analyzing and determining whether the ocular surface temperature is normal according to the wireless signal; wherein the analyzing unit determines that the eye has no myopia or pseudo-myopia when a difference between two values of the ocular surface temperature respectively at daytime and nighttime is below a lower threshold value.
A process for preparing a noble metal-based alloy catalyst on a support material, comprising the steps: a) preparing a solution of a first metal in a polyol solvent, wherein M1 is selected from iron, cobalt, nickel and copper, b) adding a polysaccharide chosen from the group consisting of alginate, Arabic gum, gelatine, xanthane gum, gum traganth or cellulose to the polyol solvent as a protective colloid, c) adding a support material to the solvent to obtain a suspension, wherein the support material comprises carbon black, graphitized carbon black, graphite, activated carbon, carbon nanoparticles, carbon nanotubes, d) heating the suspension to a temperature in the range of 80 to 160°C, e) adding a solution of a second metal in a polyol solvent, wherein the second metal comprises at least one noble metal selected from the group of platinum, gold, silver, palladium, rhodium, osmium and iridium and mixtures or combinations thereof, after having reached the temperature in the range of 80 to 160°C, f) adjusting the pH of the suspension to a range of between 4.0 to 7,0, g) heating the suspension to the boiling point of the polyol solvent (T bp) of step (c) after the completion of the addition of the solution of the second metal and maintaining the temperature for 30 to 120 minutes, h) cooling the suspension to room temperature and isolating the catalyst material. a) preparing a solution of a first metal in a polyol solvent, wherein M1 is selected from iron, cobalt, nickel and copper, b) adding a polysaccharide chosen from the group consisting of alginate, Arabic gum, gelatine, xanthane gum, gum traganth or cellulose to the polyol solvent as a protective colloid, c) adding a support material to the solvent to obtain a suspension, wherein the support material comprises carbon black, graphitized carbon black, graphite, activated carbon, carbon nanoparticles, carbon nanotubes, d) heating the suspension to a temperature in the range of 80 to 160°C, e) adding a solution of a second metal in a polyol solvent, wherein the second metal comprises at least one noble metal selected from the group of platinum, gold, silver, palladium, rhodium, osmium and iridium and mixtures or combinations thereof, after having reached the temperature in the range of 80 to 160°C, f) adjusting the pH of the suspension to a range of between 4.0 to 7,0, g) heating the suspension to the boiling point of the polyol solvent (T bp) of step (c) after the completion of the addition of the solution of the second metal and maintaining the temperature for 30 to 120 minutes, h) cooling the suspension to room temperature and isolating the catalyst material.
Nitric oxide for use in diagnosis, in vivo, of myocardial infarction in a patient, wherein the nitric oxide is delivered to the patient's lungs for a first time period of 5 to 10 seconds as inhaled NO, wherein the patient is diagnosed as suffering from myocardial infarction when a symptom of the heart condition subsides after the nitric oxide delivery, wherein the symptom subsides within 2 to 100 seconds after inhaling NO, wherein diagnosis includes ceasing delivery of nitric oxide to the patient and determining whether the symptom returns, and wherein the diagnosis of myocardial infarction is confirmed when the nitric oxide delivery to the patient is ceased for a second period of time and the symptom is ascertained to re-present in the patient after the second time period. wherein the nitric oxide is delivered to the patient's lungs for a first time period of 5 to 10 seconds as inhaled NO, wherein the patient is diagnosed as suffering from myocardial infarction when a symptom of the heart condition subsides after the nitric oxide delivery, wherein the symptom subsides within 2 to 100 seconds after inhaling NO, wherein diagnosis includes ceasing delivery of nitric oxide to the patient and determining whether the symptom returns, and wherein the diagnosis of myocardial infarction is confirmed when the nitric oxide delivery to the patient is ceased for a second period of time and the symptom is ascertained to re-present in the patient after the second time period.
A method of providing a coating on a substrate, the method comprising: transferring the substrate to a coating system configured to provide a solid layer in a specified region on a first side of the substrate; printing a liquid coating on the specified region of the substrate while the substrate is located in a printing zone of the coating system while the substrate is supported in the printing zone by a gas cushion provided to a second side of the substrate opposite the specified region; conveying the substrate from the printing zone to a treatment zone of the coating system while supporting the substrate using the gas cushion provided to the second side of the substrate; and treating the liquid coating in the treatment zone of the coating system to provide the solid layer on the specified region, the treating occurring while supporting the substrate in the treatment zone using the gas cushion provided to the second side of the substrate. transferring the substrate to a coating system configured to provide a solid layer in a specified region on a first side of the substrate; printing a liquid coating on the specified region of the substrate while the substrate is located in a printing zone of the coating system while the substrate is supported in the printing zone by a gas cushion provided to a second side of the substrate opposite the specified region; conveying the substrate from the printing zone to a treatment zone of the coating system while supporting the substrate using the gas cushion provided to the second side of the substrate; and treating the liquid coating in the treatment zone of the coating system to provide the solid layer on the specified region, the treating occurring while supporting the substrate in the treatment zone using the gas cushion provided to the second side of the substrate.
A packaging bag comprising a body for storing a plurality of articles to be packaged, wherein the body has a top surface part, a bottom surface part facing the top surface part in a vertical direction, and a plurality of lateral surface parts (13, 13a, 13b) disposed between the top surface part and the bottom surface part, a slash part for opening is provided on at least one of the plurality of lateral surface parts(13, 13a, 13b), and the slash part includes a first slit extending in the vertical direction from a point of the lateral surface adjacent to the top surface part to another point of the lateral surface adjacent to the bottom surface part, and a second slit extending continuously with one end of the first slit on a side of the top surface part, in a travers direction perpendicular to the vertical direction, a third slit which is continuous with the other end of the first slit on a side of the bottom surface part, faces the second slit in the vertical direction, and extends in the traverse direction, characterized in that the length of the third slit is shorter than the length of the second slit and in that an adhesive portion is provided on the lateral surface part (13, 13a, 13b) on an opposite side from the second slit with respect to the first slit. a body for storing a plurality of articles to be packaged, wherein the body has a top surface part, a bottom surface part facing the top surface part in a vertical direction, and a plurality of lateral surface parts (13, 13a, 13b) disposed between the top surface part and the bottom surface part, a slash part for opening is provided on at least one of the plurality of lateral surface parts(13, 13a, 13b), and the slash part includes a first slit extending in the vertical direction from a point of the lateral surface adjacent to the top surface part to another point of the lateral surface adjacent to the bottom surface part, and a second slit extending continuously with one end of the first slit on a side of the top surface part, in a travers direction perpendicular to the vertical direction, a third slit which is continuous with the other end of the first slit on a side of the bottom surface part, faces the second slit in the vertical direction, and extends in the traverse direction, characterized in that the length of the third slit is shorter than the length of the second slit and in that an adhesive portion is provided on the lateral surface part (13, 13a, 13b) on an opposite side from the second slit with respect to the first slit.
An isolated a) nucleic acid molecule comprising at least one promoter that is active in fungal cells of the genus Trichoderma and has a nucleic acid sequence encoding an N-acetylglucosamine 2-epimerase (EC 5.1.3.8) and an N-acetylneuraminic acid synthase (EC 2.5.1.56) operably linked thereto, or b) a set of two nucleic acid molecules, wherein one molecule encodes the N-acetylglucosamine 2-epimerase (EC 5.1.3.8) and one molecule encodes the N-acetylneuraminic acid synthase (EC 2.5.1.56), each of said molecules comprising at least one promoter that is active in fungal cells of the genus Trichoderma operably linked to the sequence encoding N-acetylglucosamine 2-epimerase or N-acetylneuraminic acid synthase, wherein according to a) or b) said at least one promoter that is active in fungal cells is a constitutive promoter.
Tension member for structures, in particular a stay cable for a cable-stayed bridge, comprising a tubular sheath, inside which run one or more tension elements, for example steel rods, steel wires or steel strands, the tension elements filling only part of the cross section of the tubular sheath so that a remaining unoccupied cross section is left, a filler body (12, 12') being arranged in the remaining unoccupied cross section of the tubular sheath for securing the tension elements against transverse movement inside the tubular sheath, the filler body (12, 12') extending over a limited longitudinal portion L of the tension member and having a deformable jacket (13, 13') that encloses a hollow space that is delimited on all sides and can be filled with a filler medium, characterised in that the filler body (12, 12') has at least one opening (16, 16', 18, 18') by means of which the hollow space, surrounded by the jacket (13, 13'), can be filled and/or drained.
Toggle fixing (1, 1') for fixing an article to a thin-walled building component (24, 24'), - having a crosspiece (2, 2') which extends along a crosspiece longitudinal axis (L 1) and has an opening (5, 5') for receiving a screw, the opening (5, 5') extending along an opening longitudinal axis (L 2) transversely with respect to the crosspiece longitudinal axis (L 1), and - having a strip (3, 3'), which is connected to the crosspiece (2, 2') and serves for holding and positioning the crosspiece (2, 2') during mounting, the crosspiece (2, 2') forming a supporting side (19, 19') on the side facing towards the strip (3, 3'), - wherein the crosspiece (2, 2') consists of at least two components, characterised in that a first component of the crosspiece (2, 2') forms a supporting body (7, 7') and a second component forms a contact body (8, 8') in the region of the supporting side (19, 19') for planar contact with a thin-walled building component (24, 24'), wherein the supporting body (7, 7') has on the supporting side (19, 19') at the two ends of the crosspiece (2, 2') an obliquely outward-facing bearing surface (28, 28') such that the distance of the side of the supporting body (7, 7') that faces towards the supporting side (19, 19') from the supporting side (19, 19') increases in the direction of the ends. - having a crosspiece (2, 2') which extends along a crosspiece longitudinal axis (L 1) and has an opening (5, 5') for receiving a screw, the opening (5, 5') extending along an opening longitudinal axis (L 2) transversely with respect to the crosspiece longitudinal axis (L 1), and - having a strip (3, 3'), which is connected to the crosspiece (2, 2') and serves for holding and positioning the crosspiece (2, 2') during mounting, the crosspiece (2, 2') forming a supporting side (19, 19') on the side facing towards the strip (3, 3'), - wherein the crosspiece (2, 2') consists of at least two components,
A process for preparing acrolein or acrylic acid or a mixture thereof by heterogeneously catalyzed partial gas phase oxidation of propene, in which a starting reaction gas mixture 2 which comprises the propylene and molecular oxygen reactants and the inert molecular nitrogen and propane diluent gases and comprises the molecular oxygen and the propylene in a molar O 2:C 3 H 6 ratio of ≥ 1 is conducted at elevated temperature through a fixed catalyst bed whose active composition is at least one multimetal oxide comprising the elements Mo, Fe and Bi, wherein starting reaction gas mixture 2, based on its total volume, has the following contents: from 6 to 9% by volume of propylene, from 8 to 18% by volume of molecular oxygen, from 6 to 30% by volume of propane and from 32 to 72% by volume of molecular nitrogen, with the proviso that the molar ratio V 1 of propane present in starting reaction gas mixture 2 to propylene present in starting reaction gas mixture 2 is from 1 to 4, the molar ratio V 2 of molecular nitrogen present in starting reaction gas mixture 2 to molecular oxygen present in starting reaction gas mixture 2 is from 2 to 6 and the molar ratio V 3 of molecular oxygen present in starting reaction gas mixture 2 to propylene present in starting reaction gas mixture 2 is from 1.3 to 2.4. from 6 to 9% by volume of propylene, from 8 to 18% by volume of molecular oxygen, from 6 to 30% by volume of propane and from 32 to 72% by volume of molecular nitrogen,