mhurhangee/patent-ind-claim-en huggingface dataset:
A method of preparing a whey protein hydrolysate comprising: a) providing a whey protein solution comprising whey protein in an amount of at least 50% by weight based on the total solid content; b) subjecting the whey protein solution to enzymatic hydrolysis, wherein the enzymatic hydrolysis is performed with the use of either one of the following enzyme combinations; i) comprising at least a serine endopeptidase from Bacillus, at least a serine endopeptidase from Aspergillus, and at least a trypsin-like protease ii) comprising at least a serine endopeptidase from Bacillus, at least a serine endopeptidase from Aspergillus, and at least a leucyl aminopeptidase from Aspergillus iii) comprising at least a bacillolysin from Bacillus amyloliquefaciens, at least bromelain, and at least a leucyl aminopeptidase from Aspergillus c) stopping the enzymatic hydrolysis by inactivating the enzymes when the degree of hydrolysis (DH) is 20% or more to obtain a whey protein hydrolysate; wherein the method does not comprise any step of ultrafiltration of the whey protein hydrolysate obtained in step c). a) providing a whey protein solution comprising whey protein in an amount of at least 50% by weight based on the total solid content; b) subjecting the whey protein solution to enzymatic hydrolysis, wherein the enzymatic hydrolysis is performed with the use of either one of the following enzyme combinations; i) comprising at least a serine endopeptidase from Bacillus, at least a serine endopeptidase from Aspergillus, and at least a trypsin-like protease ii) comprising at least a serine endopeptidase from Bacillus, at least a serine endopeptidase from Aspergillus, and at least a leucyl aminopeptidase from Aspergillus iii) comprising at least a bacillolysin from Bacillus amyloliquefaciens, at least bromelain, and at least a leucyl aminopeptidase from Aspergillus i) comprising at least a serine endopeptidase from Bacillus, at least a serine endopeptidase from Aspergillus, and at least a trypsin-like protease ii) comprising at least a serine endopeptidase from Bacillus, at least a serine endopeptidase from Aspergillus, and at least a leucyl aminopeptidase from Aspergillus iii) comprising at least a bacillolysin from Bacillus amyloliquefaciens, at least bromelain, and at least a leucyl aminopeptidase from Aspergillus c) stopping the enzymatic hydrolysis by inactivating the enzymes when the degree of hydrolysis (DH) is 20% or more to obtain a whey protein hydrolysate; wherein the method does not comprise any step of ultrafiltration of the whey protein hydrolysate obtained in step c).
A method for mounting a turbine ring assembly comprising a turbine ring made of ceramic matrix composite material and a ring support structure made of metal, provided with a central shroud from which protrude a first and a second radial clamps from which the ring is held, and with at least one annular flange made in one piece disposed upstream of the turbine ring and of the first radial clamp relative to the direction of an air stream (F) intended to pass through the turbine ring assembly, said at least one annular flange having in the radial direction (D R ) a first free end and a second end opposite to the first end , said second end being, on the one hand, removably fixed to said first radial clamp and, on the other hand, hooped onto the central shroud of the ring support structure , characterized in that the mounting method comprises, before the mounting of said at least one annular flange on the central shroud of the ring support structure , a step of radially deforming the ring support structure by heating the central shroud via an application of a heating cover encompassing the entire circumferential perimeter of the radially outer surface of the central shroud , then a step of inserting said at least one flange onto the ring support structure . said at least one annular flange having in the radial direction (D R ) a first free end and a second end opposite to the first end , said second end being, on the one hand, removably fixed to said first radial clamp and, on the other hand, hooped onto the central shroud of the ring support structure , characterized in that the mounting method comprises, before the mounting of said at least one annular flange on the central shroud of the ring support structure , a step of radially deforming the ring support structure by heating the central shroud via an application of a heating cover encompassing the entire circumferential perimeter of the radially outer surface of the central shroud , then a step of inserting said at least one flange onto the ring support structure .
Electric pump comprising an electric actuation assembly , having an electric motor member arranged inside a casing and fixed to a motor shaft having a longitudinal axis (A), to drive in rotation the same motor shaft about said longitudinal axis (A), a hydraulic assembly , having at least one pumping stage provided with an impeller fixed to said motor shaft and a fixed body shaping a diffuser member fixed with respect to said impeller , to pump a pumping liquid from a suction portion to a discharge portion of said electric pump, a sealing system interposed between said hydraulic assembly and said electric actuation assembly to prevent the suction of said pumping liquid inside said electric actuation assembly , further comprising a detection assembly intended to detect possible faults of said sealing system , said detection assembly comprising a detection device , placed inside a collection chamber interposed between said hydraulic assembly and said electric actuation assembly , predisposed to collect possible leakage of said pumping liquid coming from said hydraulic assembly , a protection device associated with said detection device , comprising at least one flame arrester element to ensure, in particular to said detection assembly of said electric pump , an explosion-proof behaviour, and a detection duct arranged in communication with the inside of said collection chamber and with said detection device , said flame arrester element shaping a body inserted inside said detection duct between said inside of said collection chamber and said detection device , said at least one flame arrester element inserted in said detection duct being permeable to said pumping liquid, so as to ensure direct detection of possible leakage of said pumping liquid from said hydraulic assembly to said collection camber .
A print head for an inkjet printer, the print head comprising an ink drop generator , an ink supply tube connected to the ink drop generator , and a solvent supply tube connected at a first end to the ink drop generator and for connection at a second end to a solvent reservoir, the solvent supply tube being provided with ink flow restriction means for restricting a flow of ink from the ink drop generator into the solvent supply tube , characterised in that the ink flow restriction means comprise an arrangement of the solvent supply tube such that, for a flow direction reversing portion of the solvent supply tube at the first end of the solvent supply tube , a flow of solvent from the second end to the first end of the solvent supply tube flows away from the ink drop generator .
A subsea pressure regulation system for barrier fluid configured to lubricate and protect a subsea fluid processing machine configured to process a process fluid in a subsea location, the pressure regulation system comprising: a housing configured for deployment at the subsea location; a moveable member disposed within the housing and configured to longitudinally translate within the housing, the member having at least first and second surfaces, the first surface and an inner portion of the housing defining a first volume and the second surface and an inner portion of the housing defining a second volume , the first and second volumes being variable in size depending on the longitudinal position of the moveable member, the subsea pressure regulation system being characterised in that the first volume is configured to be filled with barrier fluid supplied directly from a barrier fluid supply and be in fluid communication with barrier fluid circulating in the fluid processing machine and the second volume configured to be pressure matched with the process fluid in the fluid processing machine; a biasing mechanism configured to maintain the fluid pressure of the barrier fluid circulating in the machine at a predetermined differential above the fluid pressure of the process fluid in the fluid processing machine at least in part by translation of the moveable member ; and a valve (V3) arranged to control fluid communication between the first volume and the barrier fluid circulating in the fluid processing machine. a housing configured for deployment at the subsea location; a moveable member disposed within the housing and configured to longitudinally translate within the housing, the member having at least first and second surfaces, the first surface and an inner portion of the housing defining a first volume and the second surface and an inner portion of the housing defining a second volume , the first and second volumes being variable in size depending on the longitudinal position of the moveable member, the subsea pressure regulation system being characterised in that the first volume is configured to be filled with barrier fluid supplied directly from a barrier fluid supply and be in fluid communication with barrier fluid circulating in the fluid processing machine and the second volume configured to be pressure matched with the process fluid in the fluid processing machine; a biasing mechanism configured to maintain the fluid pressure of the barrier fluid circulating in the machine at a predetermined differential above the fluid pressure of the process fluid in the fluid processing machine at least in part by translation of the moveable member ; and a valve (V3) arranged to control fluid communication between the first volume and the barrier fluid circulating in the fluid processing machine.
A control system for an elevator comprising a car ; a counterweight connected to the car by a main rope ; a hoist having a motor for moving the car up and down; at least two car speed detection devices (11A, 11B_), namely, a first car speed detection device and a second car speed detection device to measure a moving speed of the car ; a hoist brake to apply braking to the hoist ; emergency stop equipment to brake the car by grasping guide rails laid along a moving path of the car ; and a control device to control the hoist , the hoist brake , and the emergency stop equipment based on outputs of the first car speed detection device and the second car speed detection device , characterized in that the control device includes a computing unit to calculate acceleration data of the car from velocity data from the first car speed detection device and the second car speed detection device and a decision unit to make a decision regarding an abnormally increased speed of the car , wherein, if two pieces of velocity data that have been output from the first car speed detection device and the second car speed detection device respectively differ from one another and acceleration data of the car calculated from one that is higher of the two pieces of velocity data is equal to or more than a predetermined threshold, the decision unit decides that either the first car speed detection device or the second car speed detection device which has output the higher one of velocity data is abnormal. the control device includes a computing unit to calculate acceleration data of the car from velocity data from the first car speed detection device and the second car speed detection device and a decision unit to make a decision regarding an abnormally increased speed of the car , wherein, if two pieces of velocity data that have been output from the first car speed detection device and the second car speed detection device respectively differ from one another and acceleration data of the car calculated from one that is higher of the two pieces of velocity data is equal to or more than a predetermined threshold, the decision unit decides that either the first car speed detection device or the second car speed detection device which has output the higher one of velocity data is abnormal.
A process, comprising the preparation of a compound library, characterized in that the library is prepared by a process comprising the following steps: i. Having available at least two different compounds each comprising at least a 1,3,2-dioxaborolane or 1,3,2-dioxaborinane ring, forming a boronic ester function. In said compounds: - the boron of the dioxaborolane or dioxaborinane ring is directly linked to a carbon atom of a hydrocarbon radical; - at least one carbon atom of the dioxaborolane or dioxaborinane ring is monosubstituted, the other carbon atoms of the dioxaborolane or dioxaborinane ring being non-substituted or monosubstituted; - in at least two compounds, the hydrocarbon radicals linked to the boron are different; - in at least two compounds, the substituents carried by at least one of the carbon atoms of the dioxaborolane or dioxaborinane rings are different and/or the size of the boronic ester ring is different; ii. Reacting the compounds of step (i.) and forming, by a boronic ester metathesis reaction, the library comprising at least four different compounds, each having at least one substituents of a dioxaborolane or dioxaborinane ring different and/or a boronic ester ring of a different size compared to another compound. i. Having available at least two different compounds each comprising at least a 1,3,2-dioxaborolane or 1,3,2-dioxaborinane ring, forming a boronic ester function. In said compounds: - the boron of the dioxaborolane or dioxaborinane ring is directly linked to a carbon atom of a hydrocarbon radical; - at least one carbon atom of the dioxaborolane or dioxaborinane ring is monosubstituted, the other carbon atoms of the dioxaborolane or dioxaborinane ring being non-substituted or monosubstituted; - in at least two compounds, the hydrocarbon radicals linked to the boron are different; - in at least two compounds, the substituents carried by at least one of the carbon atoms of the dioxaborolane or dioxaborinane rings are different and/or the size of the boronic ester ring is different; - the boron of the dioxaborolane or dioxaborinane ring is directly linked to a carbon atom of a hydrocarbon radical; - at least one carbon atom of the dioxaborolane or dioxaborinane ring is monosubstituted, the other carbon atoms of the dioxaborolane or dioxaborinane ring being non-substituted or monosubstituted; - in at least two compounds, the hydrocarbon radicals linked to the boron are different; - in at least two compounds, the substituents carried by at least one of the carbon atoms of the dioxaborolane or dioxaborinane rings are different and/or the size of the boronic ester ring is different; ii. Reacting the compounds of step (i.) and forming, by a boronic ester metathesis reaction, the library comprising at least four different compounds, each having at least one substituents of a dioxaborolane or dioxaborinane ring different and/or a boronic ester ring of a different size compared to another compound.
A urea spraying system comprising a common rail , said common rail comprises a housing , and a pressure detection apparatus and a pressure control valve installed on said housing ; said housing comprises a singular inlet passage where a urea solution can enter, a singular outlet passage where the urea solution can flow out, whereby said inlet passage and said outlet passage are parallel to each other, said housing comprises a plurality of conveyance ports connected to said inlet passage , and a plurality of return flow ports connected to said outlet passage ; said pressure detection apparatus is connected to said inlet passage ; said pressure control valve is connected between said inlet passage and said outlet passage , and said pressure control valve is able to connect or disconnect said inlet passage and said outlet passage to maintain a set pressure within said inlet passage .
A transflexion probe for carrying out a transflexion measurement on a liquid located in a rigid vessel, comprising: a probe shaft equipped with a light guide path in its interior, which defines a rigid cavity sealed on its front end face by a transparent window and an open flow chamber on its front end face with a reflective plate arranged opposite the front end face of the probe shaft , characterized in that the probe shaft , whose interior offers space for a free beam beam path illuminating free beam extending over the entire length of the probe shaft for feeding illuminating light into the flow chamber and for removing detecting light out of the flow chamber has a first coupling device at the rear end for rigid coupling of a sensor module to the probe shaft .
A multistep continuous microreactor flow synthesis method, suitable for producing a yield greater than 90%, for the manufacture of isonicotinyl-hydrazide of Formula 1 comprising the steps of: a) in a first microreactor, or a first part of a suitable microreactor setup, reacting 4-cyano pyridine of Formula 12 in a mixture of water and alcohol, with NaOH in a molar ratio of 4-cyano pyridine:NaOH of 1:0.2 to 1:0.4 at a temperature of 95 °C to 105 °C to produce the intermediate isonicotinamide of Formula 13 b) in a second microreactor, or a second part of a suitable microreactor setup, which is in fluid communication with the first microreactor, or the first part of the microreactor, reacting the intermediate isonicotinamide of Formula 13 with hydrazine hydrate in a molar ratio of isonicotinamide:hydrazine hydrate of 1:1.75 to 1:2.50 at a temperature of 100°C to 120 °C, wherein the reaction in step a) has a residence time of 10 to 32 minutes, and the reaction in step b) has a residence time of 10 to 25 minutes. a) in a first microreactor, or a first part of a suitable microreactor setup, reacting 4-cyano pyridine of Formula 12 in a mixture of water and alcohol, with NaOH in a molar ratio of 4-cyano pyridine:NaOH of 1:0.2 to 1:0.4 at a temperature of 95 °C to 105 °C to produce the intermediate isonicotinamide of Formula 13 b) in a second microreactor, or a second part of a suitable microreactor setup, which is in fluid communication with the first microreactor, or the first part of the microreactor, reacting the intermediate isonicotinamide of Formula 13 with hydrazine hydrate in a molar ratio of isonicotinamide:hydrazine hydrate of 1:1.75 to 1:2.50 at a temperature of 100°C to 120 °C,
Strapping device, in particular separation device for straps , having a handling head , and having a manipulator , which carries the handling head and moves the handling head according to commands stored in a control unit , characterized in that the handling head has a pushing edge at the foot end on a continuous base plate for initially moving the base plate under on the corner side and then swivelling it in while completely moving under the strap , whereby the pushing edge is designed as an at least partial chamfer on the edge in question and facing the strap , wherein the handling head is equipped with a clamping stamp for fixing the strap . the handling head has a pushing edge at the foot end on a continuous base plate for initially moving the base plate under on the corner side and then swivelling it in while completely moving under the strap , whereby the pushing edge is designed as an at least partial chamfer on the edge in question and facing the strap , wherein the handling head is equipped with a clamping stamp for fixing the strap .
Method for operating a heating and domestic water system , which comprises a power generation device, a hot water tank for domestic water, a domestic water circuit , a heating water circuit , a first heat source for heating the domestic water, and a second heat source for heating the domestic water, wherein the second heat source is arranged in the hot water tank or at another place within the domestic water circuit , wherein the domestic water circuit and the heating water circuit are thermally coupled, comprising the following steps: a) determining whether there is a heat storage capacity of the hot water tank ; b) determining whether power generated by the power generation device is available, wherein the power generation device is coupled to the first heat source and / or to the second heat source and / or the power generation device is connected via a smart grid with the first heat source and / or to the second heat source; c) if there is a heat storage capacity and power generated by the power generation device is available, supplying the first heat source and / or the second heat source with the power of the power generation device and heating the domestic water, in particular in the hot water tank , by means of the first heat source and / or second heat source fed by the power of the power generation device; d) transferring thermal energy of the domestic water in the domestic water circuit to heating water in the heating water circuit when heating is required, characterized in that the first heat source is arranged in the hot water tank or at another place within the domestic water circuit . a) determining whether there is a heat storage capacity of the hot water tank ; b) determining whether power generated by the power generation device is available, wherein the power generation device is coupled to the first heat source and / or to the second heat source and / or the power generation device is connected via a smart grid with the first heat source and / or to the second heat source; c) if there is a heat storage capacity and power generated by the power generation device is available, supplying the first heat source and / or the second heat source with the power of the power generation device and heating the domestic water, in particular in the hot water tank , by means of the first heat source and / or second heat source fed by the power of the power generation device; d) transferring thermal energy of the domestic water in the domestic water circuit to heating water in the heating water circuit when heating is required, characterized in that the first heat source is arranged in the hot water tank or at another place within the domestic water circuit .
Non-woven fabric suitable for thermoforming to form a beverage capsule filter element comprising fibers consisting of a core containing polylactic acid (PLA-1) coated with an envelope containing polylactic acid (PLA-2) characterized in that : - PLA-1 is a copolymer of lactic acid monomers L1 and lacticacid monomers D1; - PLA-2 is a copolymer of lactic acid monomers L2 and lactic acid D2; - wherein a D2 monomer ratio D2/(D2+L2) is greater than a D1 monomer ratio D1/(D1+L1); wherein - the core further contains a polymeric plasticizer; and wherein - the non-woven fabric meets the biodregability standards of ASTM D6400. - PLA-1 is a copolymer of lactic acid monomers L1 and lacticacid monomers D1; - PLA-2 is a copolymer of lactic acid monomers L2 and lactic acid D2; - wherein a D2 monomer ratio D2/(D2+L2) is greater than a D1 monomer ratio D1/(D1+L1); wherein - the core further contains a polymeric plasticizer; and wherein - the non-woven fabric meets the biodregability standards of ASTM D6400.
A process to make light naphtha, mainly comprising n-hexane, n-pentane, cyclohexane and methylcyclopentane, the process comprising: a reaction vessel under hydrogen pressure containing a biphasic liquid medium comprising an aqueous reaction solution and a substantially water-immiscible organic extraction and reaction solution; wherein the aqueous solution contains at least a carbohydrate containing feedstock and an acid catalyst and the organic phase at least a Ru on carbon catalyst modified with HPA (heteropolyacid) so that it favorably hydrogenates furan derivatives in presence of hexoses; and wherein the carbohydrate is converted in the aqueous phase to a furan derivative, and the furan derivative is extracted and converted to light naphtha into the organic extraction and reaction solution in presence of the Ru on carbon catalyst modified with HPA.