mhurhangee/patent-ind-claim-en huggingface dataset:
A display device comprising: a module housing accommodating a display panel and having an opening for moving the display panel out from and into the module housing therethrough; a moving plate accommodated in the module housing , the moving plate having the display panel seated thereon and provided with one or more moving brackets ; a driving belt coupled to the one or more moving bracket for moving the moving plate along with the display panel out from and into the module housing via the opening of the module housing ; a driving member for moving the moving plate by winding or releasing the driving belt ; and a fixed plate coupled to an inside of the module housing and having the driving member fixed thereon; characterized in that : at least one of the one or more moving brackets comprises a through hole , and the display device comprises a flexible circuit film arranged penetrating the through hole . a module housing accommodating a display panel and having an opening for moving the display panel out from and into the module housing therethrough; a moving plate accommodated in the module housing , the moving plate having the display panel seated thereon and provided with one or more moving brackets ; a driving belt coupled to the one or more moving bracket for moving the moving plate along with the display panel out from and into the module housing via the opening of the module housing ; a driving member for moving the moving plate by winding or releasing the driving belt ; and a fixed plate coupled to an inside of the module housing and having the driving member fixed thereon;
Method for monitoring soil moisture, comprising the steps of: - automatically feeding a digital database in real time with data representative of the soil moisture, which data are measured using a plurality of moisture sensors arranged in the soil and distributed along an estimated growth path of roots of a plant; - calculating, using a central processing unit and at each sensor, a rate of change in the soil moisture from the measured moisture data; and - calculating, using the central processing unit, a sum of the number of sensors which follow one another along the estimated growth path of the roots of the plant, starting from the sensor arranged closest to the roots, and for which the rate of change in the soil moisture is greater than a threshold rate corresponding to a certain rate of decrease in the soil moisture above which the decrease in the soil moisture is attributed to the presence of roots, and of creating in return, using the central processing unit, a digital datum representative of a certain distribution volume of the roots of said plant corresponding to said calculated sum. - automatically feeding a digital database in real time with data representative of the soil moisture, which data are measured using a plurality of moisture sensors arranged in the soil and distributed along an estimated growth path of roots of a plant; - calculating, using a central processing unit and at each sensor, a rate of change in the soil moisture from the measured moisture data; and - calculating, using the central processing unit, a sum of the number of sensors which follow one another along the estimated growth path of the roots of the plant, starting from the sensor arranged closest to the roots, and for which the rate of change in the soil moisture is greater than a threshold rate corresponding to a certain rate of decrease in the soil moisture above which the decrease in the soil moisture is attributed to the presence of roots, and of creating in return, using the central processing unit, a digital datum representative of a certain distribution volume of the roots of said plant corresponding to said calculated sum.
A method for manufacturing a profile body having a profiling (P), by way of cold reshaping a workpiece comprising a longitudinal axis (Z) and, in a machining region , an outer surface , wherein the profiling (P) is to be produced in the outer surface (1 1a), wherein the workpiece executes a rotation movement (R1) about the longitudinal axis (Z) and is machined by a first tool in a multitude of reshaping engagements which are carried out successively, wherein in each of the reshaping engagements, an active region of the first tool comes into contact with the machining region , wherein the first tool is held by a first tool holder (5; 5a1...), and wherein the first tool holder (5; 5a1,...) - is mounted in an orbiting body , so as to be rotatable about a rotation axis (W) of the first tool holder (5; 5a1,...); and - is driven by the orbiting body to carry out an orbiting movement (R8); wherein - the rotation movement (R1) of the workpiece is synchronised with the orbiting movement (R8) of the first tool holder (5; 5a1,...); characterized in that - the first tool holder (5; 5a1,...) is driven to carry out a rotating movement (R5) about the rotation axis (W), wherein the term azimuthal(ly) which is used hereinafter is defined by the rotation axis (W); and - the rotating movement (R5) of the first tool holder (5; 5a1,...) is synchronised with the orbiting movement (R8) of the first tool holder (5; 5a1,...). - is mounted in an orbiting body , so as to be rotatable about a rotation axis (W) of the first tool holder (5; 5a1,...); and - is driven by the orbiting body to carry out an orbiting movement (R8); - the rotation movement (R1) of the workpiece is synchronised with the orbiting movement (R8) of the first tool holder (5; 5a1,...); - the first tool holder (5; 5a1,...) is driven to carry out a rotating movement (R5) about the rotation axis (W), wherein the term azimuthal(ly) which is used hereinafter is defined by the rotation axis (W); and - the rotating movement (R5) of the first tool holder (5; 5a1,...) is synchronised with the orbiting movement (R8) of the first tool holder (5; 5a1,...).
A process for producing cumene comprising: (a) supplying benzene and a C 3 alkylating agent comprising isopropanol to an alkylation zone comprising a molecular sieve alkylation catalyst under alkylation conditions such that the isopropanol reacts with the benzene to produce a reaction product comprising cumene; (b) ceasing the supply of benzene and C 3 alkylating agent to the alkylation zone; (c) supplying a gaseous stripping agent comprising at least one of N 2 , H 2 , alkane, He, Ar, CO, and CO 2 to the molecular sieve alkylation catalyst under conditions to remove nitrogenous impurities deposited on the catalyst during (a); and (d) reinitiating the supply of benzene and C 3 alkylating agent to the alkylation zone; wherein said conditions in (c) comprise a temperature in the range from 100 to 600°C and a pressure in the range from 120 kPa-a to 2170 kPa-a, and wherein the alkylation catalyst comprises at least one molecular sieve of the MCM-22 family. (a) supplying benzene and a C 3 alkylating agent comprising isopropanol to an alkylation zone comprising a molecular sieve alkylation catalyst under alkylation conditions such that the isopropanol reacts with the benzene to produce a reaction product comprising cumene; (b) ceasing the supply of benzene and C 3 alkylating agent to the alkylation zone; (c) supplying a gaseous stripping agent comprising at least one of N 2 , H 2 , alkane, He, Ar, CO, and CO 2 to the molecular sieve alkylation catalyst under conditions to remove nitrogenous impurities deposited on the catalyst during (a); and (d) reinitiating the supply of benzene and C 3 alkylating agent to the alkylation zone;
An image processing device comprising: an object detection unit configured to detect an object in a first image; and a cutout region deciding unit configured to decide, a cutout region as a position at which the object is detected in the first image, and then to move the cutout region in a direction corresponding to a type of the object, wherein the type of the detection target object includes: a human and an automobile; and the relative direction varies in accordance with the type of the detection target object such that if the type of the detection target object is a human, the cutout region is moved in a first relative direction and if the type of the detection target object is a vehicle, the cutout region is moved in a second relative direction. an object detection unit configured to detect an object in a first image; and a cutout region deciding unit configured to decide, a cutout region as a position at which the object is detected in the first image, and then to move the cutout region in a direction corresponding to a type of the object, wherein the type of the detection target object includes: a human and an automobile; and the relative direction varies in accordance with the type of the detection target object such that if the type of the detection target object is a human, the cutout region is moved in a first relative direction and if the type of the detection target object is a vehicle, the cutout region is moved in a second relative direction.
An inkjet ink composition that is curable with an active energy ray or heat, containing: a compound having a structure represented by Formula or salt thereof (A); and a hyperbranched acrylate oligomer or polymer (B), in Formula , X represents a substituent having at an end thereof at least one selected from an acryloyl group, a methacryloyl group, an allyl group, a vinyl group and derivatives thereof, Q represents an oxygen atom or NR 4 , and R 4 represents a hydrogen atom, a substituted or unsubstituted alkyl group, or a substituted or unsubstituted aryl group, and R 1 represents an unsubstituted alkylene group having 1 to 6 carbon atoms.
A secure platform system in communication with an electronic device and a financial institution subsystem , the secure platform system comprising: - a processor component; - a memory component; and - a communications component, the secure platform system configured to: - receive user account information from the electronic device ; - authenticate a user account of a commercial entity using the received user account information, the commercial entity being distinct and independent from the financial institution subsystem; - detect a commerce credential associated with the authenticated user of the commercial entity, the commerce credential having been issued by the financial institution subsystem; - run a commercial entity fraud check on the detected commerce credential; - commission the financial institution subsystem to run a financial entity fraud check on the detected commerce credential based on the results of the commercial entity fraud check; and - after commissioning the financial institution subsystem to run the financial entity fraud check on the detected commerce credential, facilitate provisioning on the electronic device , of a credential corresponding to the detected commerce credential based on the results of the financial entity fraud check. - a processor component; - a memory component; and - a communications component, - receive user account information from the electronic device ; - authenticate a user account of a commercial entity using the received user account information, the commercial entity being distinct and independent from the financial institution subsystem; - detect a commerce credential associated with the authenticated user of the commercial entity, the commerce credential having been issued by the financial institution subsystem; - run a commercial entity fraud check on the detected commerce credential; - commission the financial institution subsystem to run a financial entity fraud check on the detected commerce credential based on the results of the commercial entity fraud check; and - after commissioning the financial institution subsystem to run the financial entity fraud check on the detected commerce credential, facilitate provisioning on the electronic device , of a credential corresponding to the detected commerce credential based on the results of the financial entity fraud check.
Process comprising the process steps of: a) addition of diisobutene, b) addition of a compound comprising Pd, wherein the Pd is capable of forming a complex, c) addition of the ligand L1 : d) addition of acetic acid, e) feeding in CO, f) heating the reaction mixture such that the diisobutene is converted to the compound P1: a) addition of diisobutene, b) addition of a compound comprising Pd, wherein the Pd is capable of forming a complex, c) addition of the ligand L1 : d) addition of acetic acid, e) feeding in CO, f) heating the reaction mixture such that the diisobutene is converted to the compound P1:
A furnace having vertical orientation for dental components , comprising a combustion chamber which is open at the bottom and has an opening (2.1) that can be closed by means of a furnace door , which in the open position is lowered in the vertical direction, having a support region for the heated component , which support region is arranged at a distance from the opening in the combustion chamber , is part of the furnace and is arranged outside a heat radiation field of the open combustion chamber , characterised in that a cooling device acting on the support region is arranged on or in the furnace.
An antimicrobial composition for extending the shelf-life of water, food/feed or food/feed ingredients, the antimicrobial composition comprising: 5 - 25 wt. % nonanoic acid, 5-20 wt.% organic acid ester, wherein the organic ester is selected from methyl pentanoate or ethyl pentanoate, 5 -50 wt% of a single or mixture of C 1 -C 24 aldehydes, wherein said single or mixture of C 1 -C 24 aldehydes comprises trans-2-hexenal, and wherein trans-2-hexenal is present in an amount of 5-20 wt% of the antimicrobial composition; one or more C 1 -C 24 organic acids selected from the group consisting of acetic acid and propionic acid and a mixture thereof, and water. 5 - 25 wt. % nonanoic acid, 5-20 wt.% organic acid ester, wherein the organic ester is selected from methyl pentanoate or ethyl pentanoate, 5 -50 wt% of a single or mixture of C 1 -C 24 aldehydes, wherein said single or mixture of C 1 -C 24 aldehydes comprises trans-2-hexenal, and wherein trans-2-hexenal is present in an amount of 5-20 wt% of the antimicrobial composition; one or more C 1 -C 24 organic acids selected from the group consisting of acetic acid and propionic acid and a mixture thereof, and water.
Operating device for a luminaire, in particular for an LED luminaire, the operating device having: a coil having a coil core , a heat-conducting structure which is in surface contact with the coil core in order to conduct the heat emitted by the coil core during operation of the coil away from the coil core , and a circuit board , the coil and the heat-conducting structure being provided on a first side of the circuit board such that the heat-conducting structure conducts the heat emitted by the coil core away from the coil core and the first side to a second side of the circuit board which faces away from the first side, and the heat-conducting structure having legs for dissipating heat in the direction of the second side of the circuit board , characterized in that the legs pass through the circuit board, the coil being a transformer coil, and the coil core being designed as a transformer core, the transformer core having: a first portion for electromagnetic interaction with a primary winding, a second portion for electromagnetic interaction with a secondary winding, and a third portion for connecting the first portion to the second portion in order to conduct the magnetic flux between the first and the second portion, the heat-conducting structure being in surface contact with the third portion . a coil having a coil core , a heat-conducting structure which is in surface contact with the coil core in order to conduct the heat emitted by the coil core during operation of the coil away from the coil core , and a circuit board , the coil and the heat-conducting structure being provided on a first side of the circuit board such that the heat-conducting structure conducts the heat emitted by the coil core away from the coil core and the first side to a second side of the circuit board which faces away from the first side, and the heat-conducting structure having legs for dissipating heat in the direction of the second side of the circuit board , characterized in that the legs pass through the circuit board, the coil being a transformer coil, and the coil core being designed as a transformer core, the transformer core having: a first portion for electromagnetic interaction with a primary winding, a second portion for electromagnetic interaction with a secondary winding, and a third portion for connecting the first portion to the second portion in order to conduct the magnetic flux between the first and the second portion, the heat-conducting structure being in surface contact with the third portion . a first portion for electromagnetic interaction with a primary winding, a second portion for electromagnetic interaction with a secondary winding, and a third portion for connecting the first portion to the second portion in order to conduct the magnetic flux between the first and the second portion, the heat-conducting structure being in surface contact with the third portion .
Bacteroides for use in treating obesity or diabetes, wherein the Bacteroides are at least one of Bacteroides intestinalis DSM 17393, Bacteroides intestinalis JCM 13266 and Bacteroides intestinalis AM-1.
A liquid-crystal polymer, being composed of the following repeating units: 10 mol% to 35 mol% of 10 mol% to 35 mol% of 10 mol% to 50 mol% of and 10 mol% to 40 mol% of 10 mol% to 40 mol% of or a combination thereof, wherein each of AR 1 , AR 2 , AR 3 , and AR 4 is independently AR 5 or AR 5 -Z-AR 6 , in which each of AR 5 and AR 6 is independently or a combination thereof, and Z is - or C 1-5 alkylene group, wherein each of X and Y is independently H, C 1-5 alkyl group, CF 3 , or wherein R 2 is H, CH 3 , CH(CH 3 ) 2 , C(CH 3 ) 3 , CF 3 , OCH 3 , or , n = 1 to 4; and wherein R 1 is C 1-5 alkylene group.
Optical refrigerator, in particular for cooling an infrared detector or sensor, the refrigerator comprising a source of laser radiation, a cooling crystal configured to receive the laser radiation from the source and to be cooled, an element to be cooled and a thermal link in heat exchange on the one hand with the crystal and on the other hand with the element to be cooled, in order to transfer frigories from the crystal to the element to be cooled, characterized in that the thermal link comprises two plates having respective first ends in heat exchange with two distinct surfaces of the crystal , respectively, the two plates having second ends in heat exchange with the element to be cooled.
A method for manufacturing an aerogel sheet, the method comprising: a step (a) of preparing a silica precursor by mixing silica sol and a surface modifying agent; a step (b) of preparing a gelling catalyst by mixing ethanol and ammonia water (NH 4 OH); a step (c) of spraying the silica precursor prepared in the step (a) to a surface of a blanket to impregnate the blanket with the silica precursor and a step (d) of spraying the gelling catalyst prepared in the step (b) to the surface of the blanket impregnated in the silica precursor to gelate the silica precursor, wherein the step (c) and the step (d) are performed within a conveyor belt that transfers the blanket from one side to the other side thereof and wherein the conveyor belt comprises a scraper comprising a first scraper adjusting a thickness of the silica precursor sprayed to the surface of the blanket and a second scraper adjusting a thickness of the gelling catalyst sprayed to the surface of the blanket, the method, after the step (d), further comprising a step (e) of aging the blanket in which the silica precursor is gelated, and after the step (e), further comprising a step (f) of drying the blanket in which the aging is completed. a step (a) of preparing a silica precursor by mixing silica sol and a surface modifying agent; a step (b) of preparing a gelling catalyst by mixing ethanol and ammonia water (NH 4 OH); a step (c) of spraying the silica precursor prepared in the step (a) to a surface of a blanket to impregnate the blanket with the silica precursor and a step (d) of spraying the gelling catalyst prepared in the step (b) to the surface of the blanket impregnated in the silica precursor to gelate the silica precursor, wherein the step (c) and the step (d) are performed within a conveyor belt that transfers the blanket from one side to the other side thereof and wherein the conveyor belt comprises a scraper comprising a first scraper adjusting a thickness of the silica precursor sprayed to the surface of the blanket and a second scraper adjusting a thickness of the gelling catalyst sprayed to the surface of the blanket, the method, after the step (d), further comprising a step (e) of aging the blanket in which the silica precursor is gelated, and after the step (e), further comprising a step (f) of drying the blanket in which the aging is completed.
An injectable composition for use in preventing and treating iron deficiency anemia, containing an iron oxide/hydroxide complex with dextran as an active ingredient, and a solvent, wherein the composition additionally contains folic acid with the following contents of the components, wt.%: - oxide/hydroxide iron complex with dextran - 0.5-20.0; - folic acid - 0.1-4.0; and - solvent - the rest; characterized in that the iron oxide/hydroxide complex with dextran comprises a complex of iron (III) and dextranheptonic acid or a complex of iron (III) oligoisomaltoside as an active ingredient, wherein the composition additionally contains a pH adjuster to pH within 6.0-8.0, and wherein the iron complex with dextran contains free iron ions lower than or equal to 0.05%. - oxide/hydroxide iron complex with dextran - 0.5-20.0; - folic acid - 0.1-4.0; and - solvent - the rest;
A method for manufacturing an electrode, comprising a step of applying a composition for forming an active layer containing a binder, a conductive material and an active material on a current collector, followed by drying, wherein the step of drying comprises the following steps 1) to 4): 1) a step of preheating a current collector applied with a composition for forming an active layer; 2) a step of fixed rate evaporating said preheated current collector; 3) a step of lapse rate evaporating; and 4) a step of removing a residual solvent at a temperature lower than said preheating step, wherein the step 1) is carried out in a range of 150°C to 180°C. wherein the step 2) is carried out at a lower temperature in the range of 25°C to 60°C relative to the step 1), wherein the step 2) is carried out in a range of 105°C to 130°C, wherein the residual solvent in the electrode is in a range of 1% by weight to 5% by weight after completing the step 2). wherein the step 3) is carried out in a range of 90°C to 105°C, wherein the residual solvent in the electrode is in a range of 0.05% by weight to 0.8% by weight after completing the step 3). wherein the step 4) is carried out in a range of 130°C to 145°C, wherein the residual solvent in the electrode is 0.05% by weight or less after completing the step 4), wherein each temperature in the steps 1) to 4) is a hot air temperature. 1) a step of preheating a current collector applied with a composition for forming an active layer; 2) a step of fixed rate evaporating said preheated current collector; 3) a step of lapse rate evaporating; and 4) a step of removing a residual solvent at a temperature lower than said preheating step,