mhurhangee/ep-ind-claims huggingface dataset:
A hermetic two-stage compressor comprising: a housing that has an oil reservoir at the bottom of housing on an inside thereof; a low-stage side compression chamber that compresses gas on the inside of the housing; a high-stage side compression chamber that is disposed above the low-stage side compression chamber and further compresses gas discharged from the low-stage side compression chamber on the inside of the housing; and an oil pot, that is provided outside the housing and that is provided with: - a pot upper lid section, - a pot lower lid section, - an upper connection pipe, connected to an upper end portion of the pot upper lid section and through which the oil pot communicates with the inside of the housing in an intermediate pressure space between the low-stage side compression chamber and the high-stage side compression chamber, and - a lower connection pipe, connected to a lower end portion of the pot lower lid section and through which the oil pot communicates with the inside of a housing at a position below the liquid surface of the oil reservoir, the oil pot being configured to store oil and supply oil to the inside of the housing by the lower connection pipe. a housing that has an oil reservoir at the bottom of housing on an inside thereof; a low-stage side compression chamber that compresses gas on the inside of the housing; a high-stage side compression chamber that is disposed above the low-stage side compression chamber and further compresses gas discharged from the low-stage side compression chamber on the inside of the housing; and an oil pot, that is provided outside the housing and that is provided with: - a pot upper lid section, - a pot lower lid section, - an upper connection pipe, connected to an upper end portion of the pot upper lid section and through which the oil pot communicates with the inside of the housing in an intermediate pressure space between the low-stage side compression chamber and the high-stage side compression chamber, and - a lower connection pipe, connected to a lower end portion of the pot lower lid section and through which the oil pot communicates with the inside of a housing at a position below the liquid surface of the oil reservoir, - a pot upper lid section, - a pot lower lid section, - an upper connection pipe, connected to an upper end portion of the pot upper lid section and through which the oil pot communicates with the inside of the housing in an intermediate pressure space between the low-stage side compression chamber and the high-stage side compression chamber, and - a lower connection pipe, connected to a lower end portion of the pot lower lid section and through which the oil pot communicates with the inside of a housing at a position below the liquid surface of the oil reservoir,
Multi-stage process for processing agricultural manure to produce biomass fertilizer, characterized by the following process steps: a) Separation of the agricultural manure mixture by mechanical separation such as sieves (grids) or centrifugation of coarse foreign bodies such as straw from the essentially liquid phase or homogenization of the manure mixture by crushing straw and hay fibers b) Addition of C-containing substances such as mono - di-, oligo-. Polysaccharides, pyruvic acids and glucono delta lactone and the like to the liquid phase or the homogenized liquid manure mixture, c) Biogenic semi-aerobic fermentation without adding air or O2 for acidification by adding bacteria up to a pH of about 6.0-5.8 d) aerobic dissimilation and/or fermentation and further acidification down to a pH of about 4.8 with the addition of mould fungus and/or yeasts and/or bacteria with air or oxygen supply wherein the inorganic ions present in the essentially liquid phase of the liquid manure or in the homogenized liquid manure mixture, more particularly ammonium ions, potassium ions and phosphate ions, are metabolized by the mould fungus and/or yeasts and/or bacteria in a microbiological reaction and converted into the resulting organic nitrogen compounds, such as amino acids, Oligopeptides, peptides, proteins, chitins, urea and phytin or other organic compounds are organically bound or stored. a) Separation of the agricultural manure mixture by mechanical separation such as sieves (grids) or centrifugation of coarse foreign bodies such as straw from the essentially liquid phase or homogenization of the manure mixture by crushing straw and hay fibers b) Addition of C-containing substances such as mono - di-, oligo-. Polysaccharides, pyruvic acids and glucono delta lactone and the like to the liquid phase or the homogenized liquid manure mixture, c) Biogenic semi-aerobic fermentation without adding air or O2 for acidification by adding bacteria up to a pH of about 6.0-5.8 d) aerobic dissimilation and/or fermentation and further acidification down to a pH of about 4.8 with the addition of mould fungus and/or yeasts and/or bacteria with air or oxygen supply
A method for determining the stability of a liquid pharmaceutical composition comprising: a) providing a liquid pharmaceutical composition in a container, b) shaking said container on a shaker, and c) determining the stability of said liquid pharmaceutical composition after shaking, characterized in that the shaker in step b) performs an oloid movement, the container in step a) is fixed into a cage on the shaker, and whereby the cage executes the oloid movement. a) providing a liquid pharmaceutical composition in a container, b) shaking said container on a shaker, and c) determining the stability of said liquid pharmaceutical composition after shaking,
A refrigeration apparatus comprising: a heat exchange section allowing a refrigerant and air to exchange heat; a fan transporting the air passing through the heat exchange section; and a support supporting the heat exchange section from below, wherein the heat exchange section includes a first air heat exchanger having three vertical side surfaces (51, 52, 53) through which the air passes, the three side surfaces (51, 52, 53) being arranged in a substantially U shape when viewed in plan, and a second air heat exchanger which is formed in a substantially flat plate shape, arranged obliquely to be away from an open surface of the first air heat exchanger toward a top end thereof, and has a single sloping surface through which the air passes, wherein machine chambers (S1, S2, S3, S4) are formed in the support, the second air heat exchanger is inclined so as to overhang outward from a side surface of the support and wherein a leg protruding in a direction in which the second air heat exchanger overhangs is provided at a bottom of the support. the heat exchange section includes a first air heat exchanger having three vertical side surfaces (51, 52, 53) through which the air passes, the three side surfaces (51, 52, 53) being arranged in a substantially U shape when viewed in plan, and a second air heat exchanger which is formed in a substantially flat plate shape, arranged obliquely to be away from an open surface of the first air heat exchanger toward a top end thereof, and has a single sloping surface through which the air passes, wherein machine chambers (S1, S2, S3, S4) are formed in the support, the second air heat exchanger is inclined so as to overhang outward from a side surface of the support and wherein a leg protruding in a direction in which the second air heat exchanger overhangs is provided at a bottom of the support.
A work vehicle, comprising: a vehicular body (2, 5); a work implement attached to the vehicular body (2, 5) and including a bucket; a traveling apparatus attached to the vehicular body (2, 5) and causing the vehicular body (2, 5) to travel; a work implement sensor (28a, 28b, 29, 48, 52b, 54b) that senses a state of the work implement; and a traveling sensor (27, 49, 51b, 58b) that senses a traveling state of the traveling apparatus, characterized by further comprising: a controller that determines a loaded state of the bucket, makes a determination that the traveling apparatus has performed an operation for shifting from a rearward movement state to a forward movement state in the loaded state, and calculates a load weight of the bucket from a detection value of the work implement sensor (28a, 28b, 29, 48, 52b, 54b) immediately after making said determination. a vehicular body (2, 5); a work implement attached to the vehicular body (2, 5) and including a bucket; a traveling apparatus attached to the vehicular body (2, 5) and causing the vehicular body (2, 5) to travel; a work implement sensor (28a, 28b, 29, 48, 52b, 54b) that senses a state of the work implement; and a traveling sensor (27, 49, 51b, 58b) that senses a traveling state of the traveling apparatus, characterized by further comprising: a controller that determines a loaded state of the bucket, makes a determination that the traveling apparatus has performed an operation for shifting from a rearward movement state to a forward movement state in the loaded state, and calculates a load weight of the bucket from a detection value of the work implement sensor (28a, 28b, 29, 48, 52b, 54b) immediately after making said determination.
Composition for producing a fermented milk product comprising: (i) at least one Streptococcus thermophilus (St) strain, wherein the St strain is galactose-fermenting, wherein the strain carries a mutation in the DNA sequence of the glcK gene encoding a glucokinase protein, wherein the mutation inactivates the glucokinase protein or has a negative effect on expression of the gene, wherein the galactose-fermenting capacity is determined as disclosed in the description and wherein the mutation reduces the activity of the glucokinase protein with at least 50% and wherein the glucokinase activity is determined as indicated in the description. and (ii) at least one Lactobacillus delbrueckii subsp. bulgaricus (Lb) strain, wherein the Lb strain is lactose-deficient and capable of metabolizing glucose, wherein lactose-deficiency is determined via the capacity of the Lb strain to form white colonies on a medium containing lactose and 5-bromo-4-chloro-3-indolyl-beta-D-galacto-pyranoside (X-Gal). (i) at least one Streptococcus thermophilus (St) strain, wherein the St strain is galactose-fermenting, wherein the strain carries a mutation in the DNA sequence of the glcK gene encoding a glucokinase protein, wherein the mutation inactivates the glucokinase protein or has a negative effect on expression of the gene, wherein the galactose-fermenting capacity is determined as disclosed in the description and wherein the mutation reduces the activity of the glucokinase protein with at least 50% and wherein the glucokinase activity is determined as indicated in the description. and (ii) at least one Lactobacillus delbrueckii subsp. bulgaricus (Lb) strain, wherein the Lb strain is lactose-deficient and capable of metabolizing glucose, wherein lactose-deficiency is determined via the capacity of the Lb strain to form white colonies on a medium containing lactose and 5-bromo-4-chloro-3-indolyl-beta-D-galacto-pyranoside (X-Gal).
Bearing module (2, 30, 36, 38, 40, 50, 60, 70) for use underwater, having a first and a second bearing component (4, 5) which are borne such that they can move relative to one another, the bearing components (4, 5) are in the form of an outer ring, which extends in a circumferential direction, and a corresponding innere ring, and wherein a separate protection means is provided, and is composed of an oligodynamically acting material, characterized in that a raceway is provided on one of the two bearing rings (8, 10), and corrosion protection is provided at the side of the raceway, the corrosion protection comprises anodic corrosion protection which is provided in the immediate vicinity of the raceway, and comprises a passive corrosion coating which is provided at a greater distance from the raceway than the anodic corrosion protection.
An injection device comprising: a medicament reservoir; a stopper (105, 200a, 200b, 200c) comprising (i) a rigid core made of at least one of cyclic olefin copolymer or a cyclo-olefin polymer, (ii) a set of elastomeric rings (126a, 126b) that provide firm mounting of the rigid core within the medicament reservoir, and (iii) an ultrasound probe disposed in a housing, the ultrasound probe configured to transmit an emitted ultrasound signal through the rigid core along a longitudinal direction of the rigid core into the medicament reservoir and to receive an ultrasound signal generated by reflections of the emitted ultrasound signal, the reflections comprising at least a reflection from a distal end of the medicament reservoir; a control component configured to be electronically coupled with the ultrasound probe and to process the ultrasound signal to generate injection device data; and an antenna configured to be electronically coupled with the control component and to transmit the injection device data to an external computing device.
Variable turbine or compressor geometry for an exhaust gas turbocharger, - having a blade bearing ring, in/on which guide blades are rotatably mounted, - having an adjustment ring for simultaneous adjustment of the guide blades, the adjustment ring being in operative connection with adjusting levers of the guide blades, - the adjustment ring being mounted on the blade bearing ring via rollers, - wherein a roller engagement is provided for each roller on the adjustment ring, the respective roller being guided in and rolling on the respective roller engagement, - wherein each roller has two guide/run collars (9,9'), between which a groove runs and on which the roller rolls on the blade bearing ring, - wherein a rail is arranged on the blade bearing ring, the rail engaging in the groove between the two guide/run collars (9,9'), - wherein each roller is retained on the blade bearing ring exclusively via its guide/run collars (9,9'), - wherein each roller is retained on the adjustment ring exclusively via its guide/run collars (9,9') or via the groove. - having a blade bearing ring, in/on which guide blades are rotatably mounted, - having an adjustment ring for simultaneous adjustment of the guide blades, the adjustment ring being in operative connection with adjusting levers of the guide blades, - the adjustment ring being mounted on the blade bearing ring via rollers, - wherein a roller engagement is provided for each roller on the adjustment ring, the respective roller being guided in and rolling on the respective roller engagement, - wherein each roller has two guide/run collars (9,9'), between which a groove runs and on which the roller rolls on the blade bearing ring, - wherein a rail is arranged on the blade bearing ring, the rail engaging in the groove between the two guide/run collars (9,9'), - wherein each roller is retained on the blade bearing ring exclusively via its guide/run collars (9,9'), - wherein each roller is retained on the adjustment ring exclusively via its guide/run collars (9,9') or via the groove.
A pneumatic spraying assembly for a coating product comprising a pneumatic coating product sprayer and a supply line for this pneumatic sprayer from a pressurized coating product source to which the supply line is connected by its upstream end, the pneumatic sprayer comprising a sprayer body and a control valve for the flow of the coating product toward a spraying area of this product, this valve in turn comprising a needle selectively closing off an outlet orifice of an inner volume of the body of the sprayer and the spraying assembly defining a flow path for the coating product, from the upstream end of the supply line to the outlet orifice of the inner volume, the flow path including a member connecting the supply line on the body of the sprayer, whereas a flow restrictor for the coating product is mounted on the flow path of the coating product, in the connecting member, to create a pressure loss upstream from the outlet orifice, characterized in that the restrictor is made from a material more flexible than the material of the coupling member, in particular a synthetic material.
An extruded starch composition comprising: at least one starch, chemically modified starch, or mixtures thereof; wherein the extruded starch composition has a peak cold viscosity of greater than about 700 mPa.s, and the starch composition comprises a water soluble polymer; and wherein peak cold viscosity is measured by mixing 2.5g of starch composition on a dry weight basis with 25g of distilled water, using mixing parameters as follows: mix at 960rpm for 30 seconds and 160 rpm for 36.5 minutes; and using temperature parameters as follows: 15 minutes at 30C, heating from 30C to 95C for 5 minutes, 3 minutes hold at 95C, cooling from 95C to 30C for 3 minutes, 11 minutes hold at 30C; with the peak cold viscosity being the maximum viscosity prior to initiating heating. at least one starch, chemically modified starch, or mixtures thereof; wherein the extruded starch composition has a peak cold viscosity of greater than about 700 mPa.s, and the starch composition comprises a water soluble polymer; and wherein peak cold viscosity is measured by mixing 2.5g of starch composition on a dry weight basis with 25g of distilled water, using mixing parameters as follows: mix at 960rpm for 30 seconds and 160 rpm for 36.5 minutes; and using temperature parameters as follows: 15 minutes at 30C, heating from 30C to 95C for 5 minutes, 3 minutes hold at 95C, cooling from 95C to 30C for 3 minutes, 11 minutes hold at 30C; with the peak cold viscosity being the maximum viscosity prior to initiating heating.
A hydroponic apparatus for growing plants, comprising a reservoir for a liquid and a growth vessel for a plant, wherein the hydroponic apparatus further comprises a tank disposed in the reservoir and in fluidic communication with the reservoir and with the growth vessel, wherein the tank is configured and arranged to be coupled to an air supply, and wherein the tank comprises an outlet valve (V p), for allowing air (A ir) in the tank to vent to atmosphere, characterised in that the tank comprises an inlet valve (V i), for allowing liquid in the reservoir to enter the tank.
A method to improve the in vitro dry-matter digestibility of Dried Distillers Grains with Solubles (DDGS) in a process for producing ethanol, wherein the process comprises i) Converting starch containing material to fermentable sugars, ii) Fermentation of the fermentable sugars with a microorganism to fermented mash, wherein the fermentation is carried out in the presence of a first enzyme composition comprising at least one hemicellulase, wherein the hemicellulase is a xylanase, iii) subjecting the fermented mash after the fermentation to a second enzyme composition comprising a beta- 1,3 glucanase and a xylanase, separating the ethanol by distillation. i) Converting starch containing material to fermentable sugars, ii) Fermentation of the fermentable sugars with a microorganism to fermented mash, wherein the fermentation is carried out in the presence of a first enzyme composition comprising at least one hemicellulase, wherein the hemicellulase is a xylanase, iii) subjecting the fermented mash after the fermentation to a second enzyme composition comprising a beta- 1,3 glucanase and a xylanase,
A light emitting device comprising: a first conductivity type semiconductor layer, an active layer, and a second conductivity type semiconductor layer on a substrate; a first dielectric layer covering the edges of the second conductivity type semiconductor layer and the active layer; a second dielectric layer that divides the second conductivity type semiconductor layer, the active layer and the first conductivity type semiconductor layer into a plurality of regions, and a first electrode layer covering the edge of the first conductivity type semiconductor layer, wherein the first electrode layer extends to the substrate, and a second electrode which vertically overlaps with the second dielectric layer, wherein the second electrode is in contact with all of the divided the second conductivity type semiconductor layer, characterised by the first electrode layer being in contact with the edge of the substrate; and a buffer layer between the substrate and the first conductivity type semiconductor, wherein the second dielectric layer divides the buffer layer into a plurality of regions. a first conductivity type semiconductor layer, an active layer, and a second conductivity type semiconductor layer on a substrate; a first dielectric layer covering the edges of the second conductivity type semiconductor layer and the active layer; a second dielectric layer that divides the second conductivity type semiconductor layer, the active layer and the first conductivity type semiconductor layer into a plurality of regions, and a first electrode layer covering the edge of the first conductivity type semiconductor layer, wherein the first electrode layer extends to the substrate, and a second electrode which vertically overlaps with the second dielectric layer, wherein the second electrode is in contact with all of the divided the second conductivity type semiconductor layer, characterised by the first electrode layer being in contact with the edge of the substrate; and a buffer layer between the substrate and the first conductivity type semiconductor, wherein the second dielectric layer divides the buffer layer into a plurality of regions.
A neural network machine learning method for causing a computer to function so as to learn to output a path for a mobile robot to reach a destination based on provided map information and information about a detected mobile body, the neural network machine learning method, comprising: a first arrangement step of arranging a stationary first obstacle and a moving second obstacle in a virtual space; a second arrangement step of arranging a current position and a destination of a mobile robot in the virtual space; a movement step of making the second obstacle move in accordance with a predetermined condition; and a reception step of receiving, from a user, a designation of a moving path for the mobile robot to go to the destination from the current position while avoiding the stationary first obstacle and the moving second obstacle, wherein learning is performed using teaching data generated in each of the above steps and accumulated by repeatedly executing the above steps. a first arrangement step of arranging a stationary first obstacle and a moving second obstacle in a virtual space; a second arrangement step of arranging a current position and a destination of a mobile robot in the virtual space; a movement step of making the second obstacle move in accordance with a predetermined condition; and a reception step of receiving, from a user, a designation of a moving path for the mobile robot to go to the destination from the current position while avoiding the stationary first obstacle and the moving second obstacle, wherein learning is performed using teaching data generated in each of the above steps and accumulated by repeatedly executing the above steps.
Drying device for drying bales of agricultural products to be dried with an air supply system for supplying air to a multitude of bales of products to be dried (10, 11) which comprises a rigid distribution device, fixedly fixed on a bottom. on which at least one bottom discharge end is connected for supplying air to a lower bale of products to be dried placed on the bottom discharge end and at least one middle discharge end for placing on the lower bale of products to be dried and under an upper bale of products to be dried, characterized in that the middle discharge end respectively associated to a bottom discharge end is connected to the distribution device by means of a hose for supplying the middle discharge end of the distribution device with air for drying the bales of products to be dried by the hose.