mhurhangee/patent-ind-claim-en huggingface dataset:
A continuous shaping machine for bean curds which is equipped with a pair of endless filter cloth belts that are an upper filter cloth belt and a lower filter cloth belt to circulate outside and a pair of endless conveyors that are an upper conveyor and a lower conveyor to circulate inside, and which is configured to compression-shape curdled soymilk (T) by conveying the curdled soymilk while sandwiching the curdled soymilk between the upper filter cloth belt and conveyor and the lower filter cloth belt and conveyor, wherein the continuous shaping machine comprises: heating units which perform heating sterilization in prescribed ranges of a return process that corresponds to regions, from a termination portion of a conveyance passage where the curdled soymilk is sandwiched to a start position of the conveyance passage, of circulation routes of the filter cloth belts, characterised in that it further comprises an alkali cleaning unit which cleans a corresponding one of the filter cloth belts by an alkaline liquid, an acid cleaning unit which cleans the corresponding filter cloth belt by an acidic liquid, and in that the alkali cleaning unit, the acid cleaning unit and the heating unit are arranged in this order upstream to downstream in a circulation direction of the corresponding filter cloth belt in the return process which involves the corresponding filter cloth belt. wherein the continuous shaping machine comprises: heating units which perform heating sterilization in prescribed ranges of a return process that corresponds to regions, from a termination portion of a conveyance passage where the curdled soymilk is sandwiched to a start position of the conveyance passage, of circulation routes of the filter cloth belts, characterised in that it further comprises an alkali cleaning unit which cleans a corresponding one of the filter cloth belts by an alkaline liquid, an acid cleaning unit which cleans the corresponding filter cloth belt by an acidic liquid, and in that the alkali cleaning unit, the acid cleaning unit and the heating unit are arranged in this order upstream to downstream in a circulation direction of the corresponding filter cloth belt in the return process which involves the corresponding filter cloth belt.
A radio manager unit for a radio access network, wherein the radio manager unit is configured to connect to a transport control unit configured to control a transport network between a baseband processing unit and a plurality of remote radio units ; wherein the radio manager unit is further configured to connect to a radio control unit configured to control the baseband processing unit , wherein the radio manager unit is further configured to be connected to one or more tenant system of a tenant, and the radio manager unit is configured to arrange for resources of the transport network and resources of the baseband processing unit to be configured for use by a said tenant.
A lettuce plant (Lactuca sativa L.) comprising a genetic determinant, which when homozygously present confers resistance to tomato spotted wilt virus (TSWV) and/or impatiens necrotic spot virus (INSV), and which is as found in or obtainable from plants grown from seeds of which a representative sample was deposited under NCIMB accession number 42023, said genetic determinant in the seeds of NCIMB deposit 42023 being located on linkage group 2 and linked to marker TSWV-00001 (SEQ ID NO: 1).
An assembly for forming a lateral wellbore, comprising: a mill having a bore and a plurality of blades ; a whipstock having an inclined surface for guiding movement of the mill , the mill releasably connected to the whipstock ; and a tubing disposed in the bore of the mill and the whipstock , characterised in that : two blades are disposed in a respective slot formed in the whipstock for each blade. a mill having a bore and a plurality of blades ; a whipstock having an inclined surface for guiding movement of the mill , the mill releasably connected to the whipstock ; and a tubing disposed in the bore of the mill and the whipstock , characterised in that : two blades are disposed in a respective slot formed in the whipstock for each blade.
Method for monitoring the operation of at least one drive component , wherein data relating to the at least one drive component and an operation of the at least one drive component is transferred to a central IT infrastructure , wherein the transferred data within the central IT infrastructure is assigned to a model of the at least one drive component , wherein a model of at least one virtual component is assigned to the model of the at least one drive component , wherein the model of the virtual component simulates a technical behaviour of a component which is electrically or mechanically connected to the drive component , wherein an operating state of the drive component is determined with the aid of a correlation of the models , wherein at least some of the data relating to the operation of the at least one drive component is determined by at least one sensor . wherein data relating to the at least one drive component and an operation of the at least one drive component is transferred to a central IT infrastructure , wherein the transferred data within the central IT infrastructure is assigned to a model of the at least one drive component , wherein a model of at least one virtual component is assigned to the model of the at least one drive component , wherein the model of the virtual component simulates a technical behaviour of a component which is electrically or mechanically connected to the drive component , wherein an operating state of the drive component is determined with the aid of a correlation of the models , wherein at least some of the data relating to the operation of the at least one drive component is determined by at least one sensor .
Timepiece component (1; 100) comprising a composite piece (2; 102) comprising an upper face (2.1), a lower face (2.2) and an edge (2.3), and being made from a first material and coated with a second material to increase the mechanical strength thereof, at least one part (15; 115) of its edge (2.3) being free of this coating , said timepiece component (1; 100) being characterised in that it comprises a protective member (11; 111) which, as seen from above or from below, extends outside of the edge (2.3) of the piece at said part (15; 115), at least partially covering said part (15; 115).
A process of preparing (((3a R ,6a S )-5-(4,6-dimethylpyrimidin-2-yl)hexahydropyrrolo[3,4-c]pyrrol-2(1 H )-yl)(2-fluoro-6-(2 H -1,2,3-triazol-2-yl)phenyl)methanone said process comprising step described below: a) Oxazolidination of (4,6-dimethylpyrimidin-2-yl)glycine, wherein said oxazolidination is characterized by the use of formaldehyde or paraformaldehyde to obtain 3-(4,6-dimethylpyrimidin-2-yl)oxazolidin-5-one a) Oxazolidination of (4,6-dimethylpyrimidin-2-yl)glycine, wherein said oxazolidination is characterized by the use of formaldehyde or paraformaldehyde to obtain 3-(4,6-dimethylpyrimidin-2-yl)oxazolidin-5-one
A method for platinisation of the counter-electrode of a dye-sensitised solar cell that comprises the steps of: a) providing a counter electrode prepared from an electro-conducting substrate; b) coating the counter electrode of step a) with one or more layers of a transparent conducting oxide; c) cleaning the counter-electrode of step b) with an organic solvent selected from acetone, ethanol or diethyl ether or a cleaning solution selected from aqueous solutions of hydrochloric acid, ammonium hydroxide, sodium hydroxide, potassium hydroxide or ammonia / hydrogen peroxide; d) activating the counter electrode of step c) with a solution containing a metal salt and reducing said metal salt on the counter electrode surface; e) treating the electrode of step d) with aqueous platinum solution of either Pt (II) or Pt (IV), said solution having a pH of at least 3; f) adding a reducing agent to the treated electrode of step e) and wherein the reduction of the aqueous platinum solution is carried out at a temperature of from room temperature to at most 100 °C; g) retrieving a platinum coated counter electrode, characterised in that all the steps are carried out at a temperature of less than 100 °C. a) providing a counter electrode prepared from an electro-conducting substrate; b) coating the counter electrode of step a) with one or more layers of a transparent conducting oxide; c) cleaning the counter-electrode of step b) with an organic solvent selected from acetone, ethanol or diethyl ether or a cleaning solution selected from aqueous solutions of hydrochloric acid, ammonium hydroxide, sodium hydroxide, potassium hydroxide or ammonia / hydrogen peroxide; d) activating the counter electrode of step c) with a solution containing a metal salt and reducing said metal salt on the counter electrode surface; e) treating the electrode of step d) with aqueous platinum solution of either Pt (II) or Pt (IV), said solution having a pH of at least 3; f) adding a reducing agent to the treated electrode of step e) and wherein the reduction of the aqueous platinum solution is carried out at a temperature of from room temperature to at most 100 °C; g) retrieving a platinum coated counter electrode, characterised in that all the steps are carried out at a temperature of less than 100 °C.
A method of producing a steel foam component , the method comprising: providing a mold , the mold defining a cavity ; positioning a 3D-printed insert within the cavity of the mold , the insert configured to form a generally uniform pattern of pores within at least a portion of the steel foam component and occupying at least 20 percent of the cavity , wherein the insert includes a plurality of interconnected cores , each of the interconnected cores including a central portion and protrusions extending from the central portion ; pouring molten steel into the cavity ; cooling the molten steel into the steel foam component ; removing the steel foam component and the insert from the mold ; and removing the insert from the steel foam component . providing a mold , the mold defining a cavity ; positioning a 3D-printed insert within the cavity of the mold , the insert configured to form a generally uniform pattern of pores within at least a portion of the steel foam component and occupying at least 20 percent of the cavity , wherein the insert includes a plurality of interconnected cores , each of the interconnected cores including a central portion and protrusions extending from the central portion ; pouring molten steel into the cavity ; cooling the molten steel into the steel foam component ; removing the steel foam component and the insert from the mold ; and removing the insert from the steel foam component .
A method to diagnose immunologic food sensitivity in a cat, the method comprising the steps of: (i) determining whether a testing portion of a fecal sample obtained from a cat includes at least one of IgA associated with a set of food sensitivities or IgA antibody associated with a set of food sensitivities, wherein the testing portion comprises a portion of the fecal sample; and determining that one or more food sensitivities of a set of immunologic food sensitivities is present in the cat if a determination is made that at least one of IgA associated with a set of food sensitivities or IgA antibody associated with a set of food sensitivities is present in the testing portion of the fecal sample of the cat. (i) determining whether a testing portion of a fecal sample obtained from a cat includes at least one of IgA associated with a set of food sensitivities or IgA antibody associated with a set of food sensitivities, wherein the testing portion comprises a portion of the fecal sample; and
A head mounted display , comprising: a first optical system ; a second optical system ; a first display , assembled to an object side of the first optical system ; a second display , assembled to an object side of the second optical system ; a first driver ; and a first adjusting system , connected to the first driver , the first optical system , the first display and the second display , wherein the first driver is adapted to drive the first adjusting system to adjust a distance between the first display and the second display in a first mode, and the first driver is adapted to drive the first adjusting system to adjust a distance between the first display and the first optical system in a second mode; wherein the first adjusting system comprises a first sub-system and a second sub-system , wherein when rotating forward, the first driver drives the first sub-system to adjust the distance between the first display and the second display in the first mode, and when rotating backward, the first driver drives the second sub-system to adjust the distance between the first display and the first optical system , wherein the first driver is a motor, each of the first sub-system and the second sub-system is a gear system, the first driver is adapted to drive the first display and the second display through the first sub-system to reciprocate in the first mode, and the first driver is adapted to drive the first display through the second sub-system to reciprocate in the second mode. a first optical system ; a second optical system ; a first display , assembled to an object side of the first optical system ; a second display , assembled to an object side of the second optical system ; a first driver ; and a first adjusting system , connected to the first driver , the first optical system , the first display and the second display , wherein the first driver is adapted to drive the first adjusting system to adjust a distance between the first display and the second display in a first mode, and the first driver is adapted to drive the first adjusting system to adjust a distance between the first display and the first optical system in a second mode; wherein the first adjusting system comprises a first sub-system and a second sub-system , wherein when rotating forward, the first driver drives the first sub-system to adjust the distance between the first display and the second display in the first mode, and when rotating backward, the first driver drives the second sub-system to adjust the distance between the first display and the first optical system , wherein the first driver is a motor, each of the first sub-system and the second sub-system is a gear system, the first driver is adapted to drive the first display and the second display through the first sub-system to reciprocate in the first mode, and the first driver is adapted to drive the first display through the second sub-system to reciprocate in the second mode.
A method for the bistable actuation of an actuator comprising the steps of: - applying a positive pressure in a actuator fluid supply , which is fluidically connected to an actuator chamber by means of an actuator fluid supply connection , wherein a working positive pressure is generated in the actuator chamber , as a result of which an actuator element fluidically connected to the actuator chamber is moved from a rest position into an actuation position; - sealing the actuator fluid supply connection in a pressure-tight manner such that the working positive pressure in the actuator chamber is maintained and the actuator element remains in the actuation position, characterized in that the pressure-tight sealing takes place by means of a liquefiable sealing medium , which is arranged in the actuator fluid supply connection in the liquid state and solidifies in the actuator fluid supply connection , wherein the actuator chamber is fluidically separated from the actuator fluid supply by means of the solidified sealing medium . - applying a positive pressure in a actuator fluid supply , which is fluidically connected to an actuator chamber by means of an actuator fluid supply connection , wherein a working positive pressure is generated in the actuator chamber , as a result of which an actuator element fluidically connected to the actuator chamber is moved from a rest position into an actuation position; - sealing the actuator fluid supply connection in a pressure-tight manner such that the working positive pressure in the actuator chamber is maintained and the actuator element remains in the actuation position, characterized in that the pressure-tight sealing takes place by means of a liquefiable sealing medium , which is arranged in the actuator fluid supply connection in the liquid state and solidifies in the actuator fluid supply connection , wherein the actuator chamber is fluidically separated from the actuator fluid supply by means of the solidified sealing medium .
An apparatus for analyzing particles in a solution comprising: a flow cell having a flow path for flowing a sample solution containing the particles; a unit configured to illuminate the sample solution flowing through the flow path of the flow cell; a photodetector that detects, based on the wavelength, a scattered light and/or fluorescence generated from the each particle in the sample solution ; and a unit configured to individually analyze the particles based on their signal intensities detected by the photodetector , wherein the flow cell has the flow path formed in a substrate, a reflection plane is formed on the outer side surface of the flow path , the reflection plane directs the light which is generated in the flow path of the flow cell and advancing in the substrate in-plane direction, which is perpendicular to the flow path, to a specified region of the surface of the flow cell, and the photodetector detects the light exiting from the specified region to the outside. a flow cell having a flow path for flowing a sample solution containing the particles; a unit configured to illuminate the sample solution flowing through the flow path of the flow cell; a photodetector that detects, based on the wavelength, a scattered light and/or fluorescence generated from the each particle in the sample solution ; and a unit configured to individually analyze the particles based on their signal intensities detected by the photodetector , wherein the flow cell has the flow path formed in a substrate, a reflection plane is formed on the outer side surface of the flow path , the reflection plane directs the light which is generated in the flow path of the flow cell and advancing in the substrate in-plane direction, which is perpendicular to the flow path, to a specified region of the surface of the flow cell, and the photodetector detects the light exiting from the specified region to the outside.
A method of ink jet printing, wherein liquid ink is supplied to a plurality of nozzles via a common ink supply passage , and actuators associated with the nozzles are controlled to cause ink droplets to be expelled from the nozzles in accordance with image information to be printed, characterized by the steps of: - detecting a situation where a number (N) of the nozzles which are connected to the common ink supply passage and are presently active but stop printing within a given time interval (T) is larger than a given maximum number (N_max); - if that situation is detected, activating at least one actuator associated with one of the nozzles that stop printing with sub-threshold agitation pulses which cause an agitation of a meniscus in the nozzle without a droplet being expelled. - detecting a situation where a number (N) of the nozzles which are connected to the common ink supply passage and are presently active but stop printing within a given time interval (T) is larger than a given maximum number (N_max); - if that situation is detected, activating at least one actuator associated with one of the nozzles that stop printing with sub-threshold agitation pulses which cause an agitation of a meniscus in the nozzle without a droplet being expelled.
Use of an ionic liquid whose melting point is below 100°C, and having a non-nucleophilic anion, under anhydrous conditions, for carrying out a method for separating hafnium tetrachloride and zirconium tetrachloride, starting from a mixture of complexes: Zr tetrachloride/aromatic compound and Hf tetrachloride/aromatic compound, by liquid-liquid extraction, with Zr/Hf enrichment of at least 100/1 (expressed by mass).
An in vitro method for analyzing nucleic acids, the method comprising: a) providing at least one isolated cell that comprises genetic material and b) performing a salt-based sequential fractionation on genetic material to separate genomic regions on the basis of their accessibility and obtain chromatin fractions and c) extracting the nucleic acids from the above chromatin fractions and d) optionally sonicating the extracted nucleic acids such that chromatin is fragmented to have comparable profile of different fractions and e) sequencing the extracted nucleic acids of step c) or the sonicated nucleic acid of step d), wherein the nucleic acid is DNA and step b) comprises obtaining the following fractions: a fraction enriched of soluble nuclear and cytoplasmic proteins ("S1"), a fraction enriched in chromatin binding protein ("S2"), a fraction enriched in histones and histone bound proteins ("S3"), a fraction enriched in nucleo-skeleton and membrane associated proteins ("S4") and after DNA extraction, the fraction S2 is sub fractionated in two sub fractions and one sub fraction comprising smaller nucleic acid fragments of about 100-200bp ("S2small" or "S2s") is directly isolated while the other sub fraction ("S2larger" or "S21") is subjected to the sonication of step d). a) providing at least one isolated cell that comprises genetic material and b) performing a salt-based sequential fractionation on genetic material to separate genomic regions on the basis of their accessibility and obtain chromatin fractions and c) extracting the nucleic acids from the above chromatin fractions and d) optionally sonicating the extracted nucleic acids such that chromatin is fragmented to have comparable profile of different fractions and e) sequencing the extracted nucleic acids of step c) or the sonicated nucleic acid of step d), wherein the nucleic acid is DNA