mhurhangee/patent-ind-claim-en huggingface dataset:
A method of preparing a peptoid, analogue or derivative thereof, comprising at least one arginine type monomer and at least one lysine type monomer, wherein the arginine type monomer comprises a monomer of Formula (I): wherein x is an integer between 0 and 14; and the lysine type monomer comprises a monomer of Formula (II): wherein y is an integer between 0 and 14; the method comprising:- (i) synthesising a precursor linear peptoid, analogue or derivative thereof comprising one or more lysine type monomers protected with a first protecting group, and one or more lysine type monomers protected with a second protecting group, wherein the first protecting group comprises an N-(1-(4,4-dimethyl-2,6-dioxocyclohexylidene)ethyl) (Dde) protecting group and the second protecting group comprises a tert-butyloxycarbonyl (Boc) protecting group; (ii) removing the first protecting group to reveal one or more unprotected lysine type monomers; (iii) converting the one or more unprotected lysine type monomers to one or more arginine type monomers; and (iv) removing the second protecting group to obtain a peptoid, analogue or derivative thereof, comprising at least one arginine type monomer and at least one lysine type monomer. (i) synthesising a precursor linear peptoid, analogue or derivative thereof comprising one or more lysine type monomers protected with a first protecting group, and one or more lysine type monomers protected with a second protecting group, wherein the first protecting group comprises an N-(1-(4,4-dimethyl-2,6-dioxocyclohexylidene)ethyl) (Dde) protecting group and the second protecting group comprises a tert-butyloxycarbonyl (Boc) protecting group; (ii) removing the first protecting group to reveal one or more unprotected lysine type monomers; (iii) converting the one or more unprotected lysine type monomers to one or more arginine type monomers; and (iv) removing the second protecting group to obtain a peptoid, analogue or derivative thereof, comprising at least one arginine type monomer and at least one lysine type monomer.
A system for generating instructions to a robot to perform work on a workpiece comprising: a 3D model or models of a robot scene providing robot scene data, the robot scene data comprising an image of the robot scene or a CAD of the scene; data of one or both hands of a gesture that is made with said one or both hands (2c-2j) and is associated with a plurality of instructions comprising a start instruction for the robot and a stop instruction for the robot, the gesture data comprising an image of said one or both hands pointing to a location in the robot scene, and hand and finger orientation and location information of said one or both hands; and a computation device having program code configured to process : said robot scene data, said gesture data, and context in which the gesture is used, wherein processing the context comprises recognizing a previous occurrence of said gesture data, to generate an instruction for operating said robot to perform work on said workpiece , said instruction including a robot target, the computation device being suitable for calculating the robot target by intersecting the finger direction with the robot scene data, to generate instructions for the robot based on the context, said operation comprising generating a start instruction for the robot if said gesture is used for a first time or to generate a stop instruction for the robot if said gesture is used for a second time. a 3D model or models of a robot scene providing robot scene data, the robot scene data comprising an image of the robot scene or a CAD of the scene; data of one or both hands of a gesture that is made with said one or both hands (2c-2j) and is associated with a plurality of instructions comprising a start instruction for the robot and a stop instruction for the robot, the gesture data comprising an image of said one or both hands pointing to a location in the robot scene, and hand and finger orientation and location information of said one or both hands; and a computation device having program code configured to process : said robot scene data, said gesture data, and context in which the gesture is used, wherein processing the context comprises recognizing a previous occurrence of said gesture data, said robot scene data, said gesture data, and context in which the gesture is used, wherein processing the context comprises recognizing a previous occurrence of said gesture data, to generate an instruction for operating said robot to perform work on said workpiece , said instruction including a robot target, the computation device being suitable for calculating the robot target by intersecting the finger direction with the robot scene data, to generate instructions for the robot based on the context, said operation comprising generating a start instruction for the robot if said gesture is used for a first time or to generate a stop instruction for the robot if said gesture is used for a second time.
A supply system for supplying an engine with fuel, comprising a tank , a conveyor line system and one or multiple heat exchangers (10, 10', 10"), which is/are arranged in the interior of the tank and serve/s for cooling fuel by means of a cooling flow, wherein the one or the multiple heat exchangers comprises/comprise a main flow line for feeding through the fuel to be cooled and a secondary flow line , which branches off the main flow line and serves for feeding through the cooling flow, and wherein the conveyor line system is designed for feeding fuel from the tank to the engine through the one or the multiple heat exchangers.
Composition exhibiting a bile-salt hydrolase activity in presence of bile or bile salts for use for the treatment or the prevention of giardiasis, wherein said composition is chosen in the group consisting of: - a composition comprising at least one bile-salt hydrolase (BSH) enzyme, said enzyme being chosen among prokaryotic BSH, and preferably among BSH from lactic acid bacteria, - a composition comprising a lactic acid bacterium secreting at least one BSH enzyme, with the exception of Lactobacillus johnsonii La1, Lactobacillus acidophilus, Bifidobacterium bifidum and Bifidobacterium infantis. - a composition comprising a recombinant host cell secreting at least one heterologous BSH enzyme, and - a combination thereof, wherein said bile-salt hydrolase activity is determined by the detection of the presence of glycine or taurine liberated from conj ugated bile salts, of cholic acid, of deoxycholic acid and/or of chenodeoxycholic acid. - a composition comprising at least one bile-salt hydrolase (BSH) enzyme, said enzyme being chosen among prokaryotic BSH, and preferably among BSH from lactic acid bacteria, - a composition comprising a lactic acid bacterium secreting at least one BSH enzyme, with the exception of Lactobacillus johnsonii La1, Lactobacillus acidophilus, Bifidobacterium bifidum and Bifidobacterium infantis. - a composition comprising a recombinant host cell secreting at least one heterologous BSH enzyme, and - a combination thereof, wherein said bile-salt hydrolase activity is determined by the detection of the presence of glycine or taurine liberated from conj ugated bile salts, of cholic acid, of deoxycholic acid and/or of chenodeoxycholic acid.
Apparatus for monitoring the clamping force acting in a belt strap (B), comprising a housing having a first housing part and a second housing part , a passage between the housing parts for the belt strap (B), a sensor component arranged in the housing and resting against one of the flat faces of the belt strap (B), and a device for detecting the deflection or the deflection force of the sensor component transversely to the belt longitudinal direction, the housing parts being connected to one another on one side at a hinge edge forming a joint and on the other side at a closure edge , a locking bolt extending with its bolt axis (A) along the closure edge and passing with a first longitudinal portion through an opening in the first housing part and with a second longitudinal portion through an opening in the second housing part , characterized in that for the longitudinal locking of the locking bolt , said locking bolt additionally has a blocking portion on which the bolt cross section is reduced - with respect to the bolt cross section on the first longitudinal portion and/or with respect to the bolt cross section on the second longitudinal portion , - with respect to a bolt cross section (S) directly following the blocking portion counter to the release direction (L) of the locking bolt , and in that a blocking element , which is fixed immovably on the housing in both directions of the bolt axis (A), abuts against the blocking portion . - with respect to the bolt cross section on the first longitudinal portion and/or with respect to the bolt cross section on the second longitudinal portion , - with respect to a bolt cross section (S) directly following the blocking portion counter to the release direction (L) of the locking bolt ,
A process of preparing a compound of formula: comprising the steps of reacting the compound of formula: with a compound of formula: in the presence of Pd(OAc) 2 to form a compound of formula: and reacting the compound of formula: in the presence of (MeCN) 2 PdCl 2 to form a compound of formula:
A balance bracket (450; 550a; 550b; 550c; 550d; 550e) which corresponds to a bracket configured for stress relief for a diffuser case (228; 230; 330; 430) of a gas turbine engine , comprising: a first bracket portion configured for mounting to a first boss (340; 440) on the diffuser case; a second bracket portion configured for mounting to a second boss (342; 442) on the diffuser case, the second bracket portion spaced a distance from the first bracket portion; and a first undulating portion positioned intermediate the first bracket portion and the second bracket portion, characterised in that the first undulating portion defines a first thickness in a thickness cross section, wherein the first thickness is less than a nominal thickness of the first bracket portion of the bracket, and wherein varying the first thickness with respect to the nominal thickness of the first bracket portion provides a means with which to adjust the strength of the undulating portion with respect to the strength of the diffuser case, so as not to adversely affect or hinder the ability of the outer diffuser case to expand due to thermal loads during operation. a first bracket portion configured for mounting to a first boss (340; 440) on the diffuser case; a second bracket portion configured for mounting to a second boss (342; 442) on the diffuser case, the second bracket portion spaced a distance from the first bracket portion; and a first undulating portion positioned intermediate the first bracket portion and the second bracket portion, characterised in that the first undulating portion defines a first thickness in a thickness cross section, wherein the first thickness is less than a nominal thickness of the first bracket portion of the bracket, and wherein varying the first thickness with respect to the nominal thickness of the first bracket portion provides a means with which to adjust the strength of the undulating portion with respect to the strength of the diffuser case, so as not to adversely affect or hinder the ability of the outer diffuser case to expand due to thermal loads during operation.
A fully enclosing engine or unit capsule of a motor vehicle with (a) a sound-absorbing carrier layer made of a flexible compound with Shore-(A)-hardness in the range of 60 to 95, a thickness in the range of 1.2 to 4 mm, a weight per unit area in the range of 1.44 to 12 kg/m 2 resulting from a density of 1.2 to 3.0 g/cm 3 , (b) a PUR-foam with a density in the range of 45 to 105 g/l, a storage module in the range of 20 to 250 kN/m 2 , and a loss factor of 0.3 to 0.8, and (c) an at least two-layer air cushion foil of polyethylene terephthalate (PET), polyamide (PA) 6 or 6.6 partially or over the entire surface between the carrier layer and the PUR foam . (a) a sound-absorbing carrier layer made of a flexible compound with Shore-(A)-hardness in the range of 60 to 95, a thickness in the range of 1.2 to 4 mm, a weight per unit area in the range of 1.44 to 12 kg/m 2 resulting from a density of 1.2 to 3.0 g/cm 3 , a thickness in the range of 1.2 to 4 mm, a weight per unit area in the range of 1.44 to 12 kg/m 2 resulting from a density of 1.2 to 3.0 g/cm 3 , (b) a PUR-foam with a density in the range of 45 to 105 g/l, a storage module in the range of 20 to 250 kN/m 2 , and a loss factor of 0.3 to 0.8, and a density in the range of 45 to 105 g/l, a storage module in the range of 20 to 250 kN/m 2 , and a loss factor of 0.3 to 0.8, and (c) an at least two-layer air cushion foil of polyethylene terephthalate (PET), polyamide (PA) 6 or 6.6 partially or over the entire surface between the carrier layer and the PUR foam .
Process for preparing an animal brain extract, wherein the animal is not human, characterized in that it comprises: 1) subjecting minced brains to an extraction with a mixture of ethanol:water or with a mixture of chloroform:methanol and separating the liquid fraction, referred to as L1, 2) distilling the solvent of the liquid fraction L1, and precipitating with acetone to obtain the solid fraction, referred to as S2, 3) saponifying the solid fraction S2, discarding the products soluble in acetone resulting from the saponification, and obtaining the solid fraction, referred to as S3. 1) subjecting minced brains to an extraction with a mixture of ethanol:water or with a mixture of chloroform:methanol and separating the liquid fraction, referred to as L1, 2) distilling the solvent of the liquid fraction L1, and precipitating with acetone to obtain the solid fraction, referred to as S2, 3) saponifying the solid fraction S2, discarding the products soluble in acetone resulting from the saponification, and obtaining the solid fraction, referred to as S3.
A cleansing composition comprising: a. 10 to 30 wt% soap, b. 20 to 45 wt% water soluble organic solvent, c. 20 to 40 wt% water, d. 3.5 to 15 wt% electrolyte other than soap, and e. benefit agent wherein the benefit agent is an organic compound having logP value in the range of 0.4 to 12; Wherein the electrolyte is selected from sodium sulfate, sodium chloride, sodium acetate, sodium citrate, potassium chloride, potassium sulfate, sodium carbonate and other mono or di or tri salts of alkaline earth metals; and wherein the soluble to insoluble soap ratio ranges from 1:0.95 to 1:0.65, wherein non-soap surfactant is up to 15% by weight of the composition. a. 10 to 30 wt% soap, b. 20 to 45 wt% water soluble organic solvent, c. 20 to 40 wt% water, d. 3.5 to 15 wt% electrolyte other than soap, and e. benefit agent wherein the benefit agent is an organic compound having logP value in the range of 0.4 to 12; Wherein the electrolyte is selected from sodium sulfate, sodium chloride, sodium acetate, sodium citrate, potassium chloride, potassium sulfate, sodium carbonate and other mono or di or tri salts of alkaline earth metals; and wherein the benefit agent is an organic compound having logP value in the range of 0.4 to 12; Wherein the electrolyte is selected from sodium sulfate, sodium chloride, sodium acetate, sodium citrate, potassium chloride, potassium sulfate, sodium carbonate and other mono or di or tri salts of alkaline earth metals; and wherein the soluble to insoluble soap ratio ranges from 1:0.95 to 1:0.65, wherein non-soap surfactant is up to 15% by weight of the composition.
A method of forming a battery electrode, comprising; forming a number of polymer coated sulfur particles ; converting the polymer coating to a silicon dioxide coating using a silicon reactant to form a number of silicon dioxide coated sulfur particles ; mixing the silicon dioxide coated sulfur particles with conductor material to form a silicon dioxide coated particle-conductor composite ; and shaping an amount of the silicon dioxide coated sulfur particle-conductor composite into an electrode .
Sealing device, in particular for a biological waste treatment automaton, comprising a tank the bottom wall of which is traversed by a shaft bearing in rotation, inside the tank , an annular part comprising at least one first annular groove opening towards the bottom wall and housing a first annular seal bearing in an axial direction on an annular element secured to the bottom wall and radially outwards on a radially outer lateral annular face of said annular groove , said sealing device being characterised in that elastic bearing means are axially interposed between a bottom annular wall (BOA) of said annular groove and said annular seal .
A non-transitory machine-readable storage medium comprising instructions for execution by a processing resource of a printing device to cause a printing device to: analyze at least one digital image corresponding to a calibration output of a printing device to determine a location saturation value for each of a plurality of nozzle locations of the printing device ; and segment at least one printhead into a plurality of segments corresponding to one or more nozzle locations based at least in part on the location saturation value for each nozzle location, characterized in that : the instructions cause the printing device to determine, from the plurality of segments, a reference segment, and determine, for each segment, a uniformity correction value based at least in part on the reference segment; and the plurality of segments comprise a first segment having a first size corresponding to a first number of nozzle locations, and the plurality of segments comprise a second segment having a second size corresponding to a second number of nozzle locations, and the second size is different than the first size. analyze at least one digital image corresponding to a calibration output of a printing device to determine a location saturation value for each of a plurality of nozzle locations of the printing device ; and segment at least one printhead into a plurality of segments corresponding to one or more nozzle locations based at least in part on the location saturation value for each nozzle location, characterized in that : the instructions cause the printing device to determine, from the plurality of segments, a reference segment, and determine, for each segment, a uniformity correction value based at least in part on the reference segment; and the plurality of segments comprise a first segment having a first size corresponding to a first number of nozzle locations, and the plurality of segments comprise a second segment having a second size corresponding to a second number of nozzle locations, and the second size is different than the first size. the instructions cause the printing device to determine, from the plurality of segments, a reference segment, and determine, for each segment, a uniformity correction value based at least in part on the reference segment; and determine, from the plurality of segments, a reference segment, and determine, for each segment, a uniformity correction value based at least in part on the reference segment; and the plurality of segments comprise a first segment having a first size corresponding to a first number of nozzle locations, and the plurality of segments comprise a second segment having a second size corresponding to a second number of nozzle locations, and the second size is different than the first size.
A composition comprising: IF 5 and at least one aprotic solvent selected from the group consisting of (cyclo)alkanes, chlorine-containing organic solvents, with the proviso that carbon tetrachloride is excluded, aromatic solvents, nitrile-containing organic solvents, and fluorine-containing organic solvents, wherein the aprotic solvent is contained in an amount within a range of 50 mass ppm to 20 mass%, and wherein the composition further comprises HF and an organic base. IF 5 and at least one aprotic solvent selected from the group consisting of (cyclo)alkanes, chlorine-containing organic solvents, with the proviso that carbon tetrachloride is excluded, aromatic solvents, nitrile-containing organic solvents, and fluorine-containing organic solvents,
A method for producing a scandium-containing concentrate from a red mud, said method comprising filtrating the red mud from a liquid phase, repulping a red mud cake with a sodium bicarbonate recirculated solution, gassing the solution with carbon dioxide until a pH of ≤ 9 is reached, leaching the red mud with a soda-bicarbonate solution, filtrating and washing the red mud cake with water on a filter, sorbing scandium from the filtrate on a phosphate ion exchanger following which the recirculated solution is recycled for repulping the red mud cake, desorbing scandium from the phosphate ion exchanger with a strong soda solution at a high temperature to obtain a strippant rich in scandium, and at least one strippant hydrolysis stage to obtain a scandium-containing concentrate at the second stage, characterized in that the carbonization leaching of the red mud is carried out at least in a single stage using a solution with a mixture of sodium carbonate and bicarbonate, scandium is sorbed from the obtained scandium-containing solution on a phosphorous-containing ion exchanger, scandium is desorbed from an ion exchanger organic phase using a sodium carbonate solution to obtain commercial regenerated scandium from which a scandium concentrate is precipitated, wherein the Sc 2 O 3 content therein is at least 15 wt. % (in terms of dry matter), the TiO 2 content not more than 3 wt. % (in terms of dry matter), the ZrO 2 content not more than 15 wt. % (in terms of dry matter), and wherein scandium in the concentrate is in form of a mixture of Sc(OH) 3 hydroxide with ScOHCO 3 ×4H 2 O basic salt.