mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator comprising: a body having a storing chamber; a machine room installed at a lower rear portion of the body and partitioned from the storing chamber, the machine room having an inner space; an air feeding path formed in a lower portion of the body to introduce external air into the machine room; an air exhausting path formed in the lower portion of the body to exhaust the air out of the machine room; a condenser installed in the air feeding path; a compressor installed at an outlet of the air feeding path in the machine room; a blowing fan installed in the machine room; a blowing guide duct installed in the machine room, and an evaporating dish installed in a lower portion of the blowing guide duct in order to collect and evaporate defrost water, the evaporating dish having an opened upper portion to communicate with a path of the blowing guide duct, characterized in that the blowing fan is disposed in a fan casing formed in the blowing guide duct to intake the air from the air feeding path and to blow the air to the air exhausting path, wherein an inlet of the fan casing formed in the blowing guide duct is connected to the air feeding path and an outlet of the blowing guide duct is connected to the air exhausting path so that the blowing guide duct defines the air path in the inner space of the machine room guiding air blown by the blowing fan to the air exhausting path. a body having a storing chamber; a machine room installed at a lower rear portion of the body and partitioned from the storing chamber, the machine room having an inner space; an air feeding path formed in a lower portion of the body to introduce external air into the machine room; an air exhausting path formed in the lower portion of the body to exhaust the air out of the machine room; a condenser installed in the air feeding path; a compressor installed at an outlet of the air feeding path in the machine room; a blowing fan installed in the machine room; a blowing guide duct installed in the machine room, and an evaporating dish installed in a lower portion of the blowing guide duct in order to collect and evaporate defrost water, the evaporating dish having an opened upper portion to communicate with a path of the blowing guide duct, characterized in that the blowing fan is disposed in a fan casing formed in the blowing guide duct to intake the air from the air feeding path and to blow the air to the air exhausting path, wherein an inlet of the fan casing formed in the blowing guide duct is connected to the air feeding path and an outlet of the blowing guide duct is connected to the air exhausting path so that the blowing guide duct defines the air path in the inner space of the machine room guiding air blown by the blowing fan to the air exhausting path.
Unit for analyzing the vitreousness of partially opaque grains, comprising a frame carrying a horizontal support plate, made of translucent or transparent material, receiving the grains to be analyzed, illuminating means to illuminate the plate located under said plate defining an optical axis X'-X, an observation window F defining an observation axis Z'-Z orthogonal thereto, and, optionally, a recording camera for the analysis sequence, wherein the light beam of the illuminating means passes through a polarization film positioned above them, while the observation window comprises a viewport, made of non-polarizable transparent material and, below this viewport, a polarization screen, in cross-wise direction with respect to the direction of the polarization film, characterized in that the observation axis Z'-Z and the viewport of the observation window are angled with respect to the optical axis X'-X of the light beam, in such a way that the eye of the observer or the recording camera is not aligned with the optical axis of the light source, while the illuminating means consist of a projector associated with means ensuring the collimation of its light beam.
Method for producing a transmission cable, in particular for actuating sunroofs or loading compartment covers of vehicles, to which an end sleeve is attached to a section of the transmission cable, in particular at its second end, in order to avoid splicing of the cable, comprising the following process steps: a) producing a transmission cable provided with a helical coil and producing an end sleeve provided with a bore, wherein a shape is formed within the bore corresponding to the second end oft he transmission cable; b) automatically joining of the end sleeve onto the section, in particular onto the second end of the transmission cable or automated joining of the transmission cable into the bore of the end sleeve and characterized by the following process step: c) fixing the end sleeve onto the section, particular onto the second end of the transmission cable by inductive heating of the transmission cable. a) producing a transmission cable provided with a helical coil and producing an end sleeve provided with a bore, wherein a shape is formed within the bore corresponding to the second end oft he transmission cable; b) automatically joining of the end sleeve onto the section, in particular onto the second end of the transmission cable or automated joining of the transmission cable into the bore of the end sleeve
A human body model comprising a compound resin comprising a hydrogenated block copolymer that is a hydrogenated product of a block copolymer (X') having a polymer block mainly composed of a structural unit derived from an aromatic vinyl compound and a polymer block mainly composed of a structural unit derived from a conjugated diene compound, at least one terminal of which is formed of the polymer block, and an oil having a kinematic viscosity at 40°C of 25 mm 2 /s or less, and as measured by the method in accordance with JIS K 8803: 2011, the content of the oil relative to 100 parts by mass of the hydrogenated block copolymer being from 450 to 1,500 parts by mass.
An automobile interior/exterior material, comprising a fiber layer that comprises a first polyester resin fiber having a melting point of 180 °C to 250 °C or a softening point of 100 °C to 150 °C; and a second polyester resin fiber having a melting point higher than 250 °C, wherein the melting point and the softening point are measured as specified in the description, wherein a mixing ratio between the first and second polyester resin fibers constituting the fiber layer is 1:9 to 9:1 by weight, and fibers forming the fiber layer are partially fused thereamong, wherein the first polyester resin fiber comprises repeat units represented by Formulas 1 and 2 below: wherein m and n denote mole fractions of repeat units contained in a low-melting-point polyester resin, and m+n=1 and n is 0.05 to 0.5. wherein a mixing ratio between the first and second polyester resin fibers constituting the fiber layer is 1:9 to 9:1 by weight, and fibers forming the fiber layer are partially fused thereamong, wherein the first polyester resin fiber comprises repeat units represented by Formulas 1 and 2 below: wherein m and n denote mole fractions of repeat units contained in a low-melting-point polyester resin, and m+n=1 and n is 0.05 to 0.5.
A drug delivery device configured to be removably inserted in a patient's mouth and for continuous or semi-continuous intraoral administration of a pharmaceutical composition comprising a drug, said device comprising: (i) a fastener to removably secure said drug delivery device to a surface of said patient's mouth; (ii) a mechanical pump selected from a spring, an elastomer, compressed gas, and a propellant-driven pump; (iii) an oral liquid impermeable drug reservoir comprising a pharmaceutical composition, the volume of said drug reservoir being from 0.1 mL to 5 mL; and (iv) a flow restrictor for controlling the flow of said pharmaceutical composition from said drug reservoir. (i) a fastener to removably secure said drug delivery device to a surface of said patient's mouth; (ii) a mechanical pump selected from a spring, an elastomer, compressed gas, and a propellant-driven pump; (iii) an oral liquid impermeable drug reservoir comprising a pharmaceutical composition, the volume of said drug reservoir being from 0.1 mL to 5 mL; and (iv) a flow restrictor for controlling the flow of said pharmaceutical composition from said drug reservoir.
Method of rolling, particularly cold-rolling, a rolling material with the help of a roll stand, wherein the roll stand comprises an upper and a lower work roll (140-I, 140-II), which bound a rolling gap for rolling of the rolling material, comprising the following steps: mixing of water and a lubricant to form a first and a second emulsion; spraying the first emulsion onto the upper work roll (140-I) and/or onto the upper side of the rolling material at the inlet side of the roll stand; spraying the second emulsion onto the lower work roll (140-II) and/or the lower side of the rolling material at the inlet side of the roll stand; and determining a possible difference in magnitude between the friction at the top between the upper work roll (140-I) and the upper side of the rolling material and the friction at the bottom between the lower work roll (140-II) and the lower side of the rolling material; characterised by setting the droplet size for the first or second emulsion; and reducing the droplet size of the first emulsion and/or increasing the droplet size of the second emulsion as long as the friction at the top is greater than the friction at the bottom, and conversely. mixing of water and a lubricant to form a first and a second emulsion; spraying the first emulsion onto the upper work roll (140-I) and/or onto the upper side of the rolling material at the inlet side of the roll stand; spraying the second emulsion onto the lower work roll (140-II) and/or the lower side of the rolling material at the inlet side of the roll stand; and determining a possible difference in magnitude between the friction at the top between the upper work roll (140-I) and the upper side of the rolling material and the friction at the bottom between the lower work roll (140-II) and the lower side of the rolling material; characterised by setting the droplet size for the first or second emulsion; and reducing the droplet size of the first emulsion and/or increasing the droplet size of the second emulsion as long as the friction at the top is greater than the friction at the bottom, and conversely.
Bioreactor comprising: - a vessel body, the internal walls of which define between them an internal volume for receiving the biomass, - a cooling and/or heating conduit (3, 3', 3"), the external wall of which is intended to be in direct contact with the biomass, disposed in said internal volume, and extending at least over part of the length in the form of a helicoid, - fixing means supporting said cooling and/or heating conduit (3, 3', 3") and fixing it to the vessel body, in a plurality of reception positions along the helicoid, characterised in that said fixing means comprise: - couplings, tubular or semi-tubular, enveloping said conduit (3, 3', 3") from the outside, locally, at said various reception positions along the helicoid, - one or more supports, secured to the internal wall of the vessel body, projecting towards the centre of the vessel body, said support or supports having a plurality of bores with a form complementary to the external dimensions of the couplings, provided at said various reception positions along the helicoid, said bores receiving said couplings, and wherein said cooling and/or heating conduit (3, 3', 3") is secured at each of said reception positions by means of: - a first weld connecting the corresponding coupling and the corresponding support, said first weld extending along the edges of the corresponding bore, on both sides of said corresponding support, and - a second weld connecting the corresponding coupling and the cooling and/or heating conduit (3, 3', 3"), said second weld extending along the edges of said coupling, and wherein said first weld and said second weld are welds by the addition of metal. - a vessel body, the internal walls of which define between them an internal volume for receiving the biomass, - a cooling and/or heating conduit (3, 3', 3"), the external wall of which is intended to be in direct contact with the biomass, disposed in said internal volume, and extending at least over part of the length in the form of a helicoid, - fixing means supporting said cooling and/or heating conduit (3, 3', 3") and fixing it to the vessel body, in a plurality of reception positions along the helicoid, characterised in that said fixing means comprise: - couplings, tubular or semi-tubular, enveloping said conduit (3, 3', 3") from the outside, locally, at said various reception positions along the helicoid, - one or more supports, secured to the internal wall of the vessel body, projecting towards the centre of the vessel body, said support or supports having a plurality of bores with a form complementary to the external dimensions of the couplings, provided at said various reception positions along the helicoid, said bores receiving said couplings, - a first weld connecting the corresponding coupling and the corresponding support, said first weld extending along the edges of the corresponding bore, on both sides of said corresponding support, and - a second weld connecting the corresponding coupling and the cooling and/or heating conduit (3, 3', 3"), said second weld extending along the edges of said coupling,
Process for the production of a detergent granule comprising greater than 45% by weight of an anionic surfactant and suitable for use as a granular detergent composition or a component thereof, which comprises the steps of (i) neutralising an anionic surfactant precursor with a source of alkali, (ii) adding Na 2 SO 4 and Na 2 CO 3 to form a slurry and (iii) spray-drying the obtained slurry to form a granule, whereby the molar ratio of Na 2 SO 4 to Na 2 CO 3 is in range of 1: 3.3 to less than 1: 1.3, and whereby the double salt Na 2 SO 4.Na 2 CO 3 is formed and whereby the slurry comprises a polycarboxylate polymer.
Method of producing high-purity silica comprising the following process steps: a) preparing an initial charge from an acidifying agent or an acidifying agent and water having a pH of less than 2, b) providing a silicate solution having a viscosity of 0.1 to 10 000 poise, c) adding the silicate solution from step b) to the initial charge from step a) in such a way that the pH of the resulting precipitation suspension remains at a value of less than 2 at all times, d) removing and washing the silicon dioxide obtained, where the wash medium has a pH of less than 2, e) washing the silicon dioxide to neutrality with demineralized water, f) drying the silicon dioxide obtained, with the proviso that at least one phosphonate ion exchanger, for the purpose of ion exchange, is contacted with the liquid phase of the precipitation suspension in the course of process step c) or with the wash medium in the course of process step d) or with both. a) preparing an initial charge from an acidifying agent or an acidifying agent and water having a pH of less than 2, b) providing a silicate solution having a viscosity of 0.1 to 10 000 poise, c) adding the silicate solution from step b) to the initial charge from step a) in such a way that the pH of the resulting precipitation suspension remains at a value of less than 2 at all times, d) removing and washing the silicon dioxide obtained, where the wash medium has a pH of less than 2, e) washing the silicon dioxide to neutrality with demineralized water, f) drying the silicon dioxide obtained,
Guide vane arrangement for a turbomachine, comprising a guide vane blade and a platform, the guide vane blade being arranged on a side (21.1) of the platform facing the gas channel, an opposite side (21.2) of the platform facing away from the gas channel being contoured at least in one region (30.1, 30.2) by elevations and depressions which follow one another in the circumferential direction relative to a longitudinal axis of the turbomachine, and the elevations and depressions on the side (21.2) facing away from the gas channel being determined by a platform thickness which is taken radially in each case, is variable in the circumferential direction and repeatedly increases and decreases with a continuous profile in the circumferential direction, characterized in that the contoured region is in a radially open pocket (44.1,44.2,54.1,54.2) of the platform, which pocket is peripherally surrounded by a side bar in each case. a platform, the guide vane blade being arranged on a side (21.1) of the platform facing the gas channel, an opposite side (21.2) of the platform facing away from the gas channel being contoured at least in one region (30.1, 30.2) by elevations and depressions which follow one another in the circumferential direction relative to a longitudinal axis of the turbomachine, and the elevations and depressions on the side (21.2) facing away from the gas channel being determined by a platform thickness which is taken radially in each case, is variable in the circumferential direction and repeatedly increases and decreases with a continuous profile in the circumferential direction, characterized in that the contoured region is in a radially open pocket (44.1,44.2,54.1,54.2) of the platform, which pocket is peripherally surrounded by a side bar in each case.
A method for obtaining an injectable hydrogel based on crosslinked hyaluronic acid, or one of its salts, and lidocaine, comprising the following successive steps: i) making a gel based on crosslinked hyaluronic acid or one of its salts, ii) adding lidocaine hydrochloride as a powder in said gel and then mixing, iii) adjusting the pH to a value of between 6.5 and 7.6 by adding an alkaline agent in said gel plus lidocaine hydrochloride mixture, and homogenizing the whole mixture to obtain a hydrogel that does not contain any suspended solid lidocaine particles, and iv) sterilizing the hydrogel with heat. i) making a gel based on crosslinked hyaluronic acid or one of its salts, ii) adding lidocaine hydrochloride as a powder in said gel and then mixing, iii) adjusting the pH to a value of between 6.5 and 7.6 by adding an alkaline agent in said gel plus lidocaine hydrochloride mixture, and homogenizing the whole mixture to obtain a hydrogel that does not contain any suspended solid lidocaine particles, and iv) sterilizing the hydrogel with heat.
A wheel assembly of a motor vehicle, in particular a passenger car, comprising a brake disk received in a rotation-resistant manner by a wheel axle and a brake caliper cooperating with said brake disk, which brake caliper is designed as fixed caliper and arranged on a wheel carrier in a stationary manner with respect to the brake disk, wherein the brake disk is carried by the wheel axle in such a manner that it can be relatively displaced with respect to the brake caliper in the longitudinal direction of the wheel axle, wherein a connecting part is provided for the purpose of the rotation-resistant connection between the brake disk and the wheel axle, wherein the connecting part comprises a connecting section to the wheel axle and a connection area to the brake disk, characterized in that the connecting section and the connection area are shaped in an unround manner by polygon turning.
Dialysis solution comprising one or more creatine compound(s) selected from the groups consisting of: (i) (phospho)creatine compounds, selected from (phospho)creatine, (phospho)creatine monohydrate, (phospho)cyclocreatine, homocyclocreatine, (ii) (phospho)creatine derivatives, selected from (phospho)creatine salts, more preferably creatine -pyruvate, -lactate, -ascorbate, -acetate, -citrate, - hydroxycitrate, -aleurate, -phytate, -mandelate, -malate, -glycolate, - cinnamate, -salicylate, -hyaluronate, -ß-hydroxybutyrate, -gluconate, - choline, -carnitine, -propionylcarnitine, -coenzyme Q10, -adenosine, - fructose, -fructose-1,6-biphosphate, esters of creatine-adenosine, acid anhydrides of creatine-glutamine and creatine pyruvate, (iii) creatine precursors, selected from guanidinoacetic acid, 3-guanidinopropionic acid, guanidino benzoic acid and the combination of glycine, arginine and methionine as well as their physiologically acceptable salts, characterized in that the one or more creatine compound(s) are present in a concentration equivalent to 0.1 to 5 mM/l creatine. (i) (phospho)creatine compounds, selected from (phospho)creatine, (phospho)creatine monohydrate, (phospho)cyclocreatine, homocyclocreatine, (ii) (phospho)creatine derivatives, selected from (phospho)creatine salts, more preferably creatine -pyruvate, -lactate, -ascorbate, -acetate, -citrate, - hydroxycitrate, -aleurate, -phytate, -mandelate, -malate, -glycolate, - cinnamate, -salicylate, -hyaluronate, -ß-hydroxybutyrate, -gluconate, - choline, -carnitine, -propionylcarnitine, -coenzyme Q10, -adenosine, - fructose, -fructose-1,6-biphosphate, esters of creatine-adenosine, acid anhydrides of creatine-glutamine and creatine pyruvate, (iii) creatine precursors, selected from guanidinoacetic acid, 3-guanidinopropionic acid, guanidino benzoic acid and the combination of glycine, arginine and methionine as well as their physiologically acceptable salts,
Method for starting up a permanent-magnet synchronous machine including a rotor, a stator (St) and a soft starter with thyristors, comprising the following steps: a) setting the values rotor angle φ Earth and angular speed ω Mean to 0, b) aligning the rotor in an initial position, c) determining an optimum firing angle of the motor, d) rotating the rotor from the known initial position with a maximum torque by firing thyristors,, wherein the maximum permissible current is set to the maximum permissible current, e) measuring the voltage induced by the rotation of the rotor, and calculating the values rotor angle φ Earth and angular speed ω Mean, f) repeating steps b) to f) when the delta of either the rotor angle Δφ Earth or the angular speed Δω Mean lies above a defined threshold value, wherein the rotor angle φ Earth and angular speed ω Mean calculated in step e) are used in order to determine the optimum firing angle of the motor for the firing procedure, g) determining the optimum firing angle of the motor using the quantities φ Earth and ω Mean. a) setting the values rotor angle φ Earth and angular speed ω Mean to 0, b) aligning the rotor in an initial position, c) determining an optimum firing angle of the motor, d) rotating the rotor from the known initial position with a maximum torque by firing thyristors,, wherein the maximum permissible current is set to the maximum permissible current, e) measuring the voltage induced by the rotation of the rotor, and calculating the values rotor angle φ Earth and angular speed ω Mean, f) repeating steps b) to f) when the delta of either the rotor angle Δφ Earth or the angular speed Δω Mean lies above a defined threshold value, wherein the rotor angle φ Earth and angular speed ω Mean calculated in step e) are used in order to determine the optimum firing angle of the motor for the firing procedure, g) determining the optimum firing angle of the motor using the quantities φ Earth and ω Mean.