mhurhangee/patent-ind-claim-en huggingface dataset:
An adhesive composition comprising: (a) from 5 % to 90 % (w/w) of a reactive prepolymer selected from the group consisting of a polyisocyanate-based prepolymer, an epoxy-based prepolymer, or a combination thereof; and (b) from 10 % to 99 % (w/w) of an isolated polypeptide composition capable of dispersing the reactive prepolymer in an aqueous medium to produce a stable dispersion or a stable emulsion, wherein the dispersion or the emulsion exhibits no phase separation by visual inspection for at least 5 minutes after mixing the polypeptide composition with the reactive prepolymer, and wherein the polypeptide composition is derived from corn, wheat, sunflower, cotton, rapeseed, canola, castor, soy, camelina, flax, jatropha, mallow, peanuts, algae, tobacco, whey, or a combination thereof. (a) from 5 % to 90 % (w/w) of a reactive prepolymer selected from the group consisting of a polyisocyanate-based prepolymer, an epoxy-based prepolymer, or a combination thereof; and (b) from 10 % to 99 % (w/w) of an isolated polypeptide composition capable of dispersing the reactive prepolymer in an aqueous medium to produce a stable dispersion or a stable emulsion, wherein the dispersion or the emulsion exhibits no phase separation by visual inspection for at least 5 minutes after mixing the polypeptide composition with the reactive prepolymer, and wherein the polypeptide composition is derived from corn, wheat, sunflower, cotton, rapeseed, canola, castor, soy, camelina, flax, jatropha, mallow, peanuts, algae, tobacco, whey, or a combination thereof.
Process for making a powder or granule containing (A) at least one chelating agent selected from alkali metal salts of methyl glycine diacetic acid (MGDA), (B) at least one alkali metal salt of a C 10 -C 20 fatty acid, in a weight ratio of (A):(B) of from 40 : 1 up to 1,000:1, wherein said powder or granule contains at least 75% by weight of chelating agent (A), said process comprising the steps of (a) mixing the at least one chelating agent (A) and the at least one alkali metal salt of fatty acid (B) in the presence of water, (b) removing most of said water by spray-granulation in a fluidized bed or by spray drying using a gas with an inlet temperature of at least 125°C. (A) at least one chelating agent selected from alkali metal salts of methyl glycine diacetic acid (MGDA), (B) at least one alkali metal salt of a C 10 -C 20 fatty acid, in a weight ratio of (A):(B) of from 40 : 1 up to 1,000:1, wherein said powder or granule contains at least 75% by weight of chelating agent (A), said process comprising the steps of (a) mixing the at least one chelating agent (A) and the at least one alkali metal salt of fatty acid (B) in the presence of water, (b) removing most of said water by spray-granulation in a fluidized bed or by spray drying using a gas with an inlet temperature of at least 125°C. (a) mixing the at least one chelating agent (A) and the at least one alkali metal salt of fatty acid (B) in the presence of water, (b) removing most of said water by spray-granulation in a fluidized bed or by spray drying using a gas with an inlet temperature of at least 125°C.
A battery comprising at least one electrochemical cell and at least one wedging means of said electrochemical cell in the battery, the wedging means being obtained after cross-linking components of a seal , said seal comprising at least two deformable shells , each shell containing a component and comprises a sealing film (2, 2', 2", 2"') and in that a contacting of the component contained in a shell with the component contained in another shell causes cross-linking of a mixture of both components, said electrochemical cell comprising a container including a bottom, the bottom of the container being in contact with the seal.
A tower for a pipe laying system, the tower comprising: - a frame with a leg to support the frame, and - a winch support integrally formed with the leg , the winch support able to receive and support a winch and/or winch components , wherein the winch support comprises: - a winch housing extending at least partially into the leg for receiving at least part of a drum ; and - a mount for supporting a winch shaft. - a frame with a leg to support the frame, and - a winch support integrally formed with the leg , the winch support able to receive and support a winch and/or winch components , wherein the winch support comprises: - a winch housing extending at least partially into the leg for receiving at least part of a drum ; and - a mount for supporting a winch shaft. - a mount for supporting a winch shaft.
An apparatus for forming at least one three-dimensional article through successive fusion of parts of a powder bed , which parts correspond to successive cross sections of the at least one three-dimensional article, said apparatus comprising: a powder distributor configured for evenly distributing a layer of powder on top of a work table provided inside a vacuum chamber ; and an electron beam source emanating an electron beam configured for fusing the powder layer in selected locations corresponding to a cross section of the at least one three-dimensional article; and at least one detector for detecting x-rays and/or secondary electrons sent out from a sensor when said sensor is interacting with said electron beam; said powder distributor being an elongated rod provided movable at a predetermined distance above the powder bed and with its central axis in parallel with a top surface of said work table , characterized in that said sensor is at least one sensor provided on said powder distributor facing towards said electron beam source, wherein said at least one sensor is at least one metal plate comprising at least one opening. a powder distributor configured for evenly distributing a layer of powder on top of a work table provided inside a vacuum chamber ; and an electron beam source emanating an electron beam configured for fusing the powder layer in selected locations corresponding to a cross section of the at least one three-dimensional article; and at least one detector for detecting x-rays and/or secondary electrons sent out from a sensor when said sensor is interacting with said electron beam; said powder distributor being an elongated rod provided movable at a predetermined distance above the powder bed and with its central axis in parallel with a top surface of said work table , characterized in that said sensor is at least one sensor provided on said powder distributor facing towards said electron beam source, wherein said at least one sensor is at least one metal plate comprising at least one opening.
An apparatus comprising: an electronic component; and a substrate configured to support the electronic component, the substrate comprising at least one bendable portion configured to enable the substrate to be moved between an open configuration and a closed configuration; wherein the at least one bendable portion comprises a plurality of rod members and the rod members comprise interlocking portions wherein the interlocking portions comprise a projection configured to fit into a corresponding recess on an adjacent rod member so as to restrict relative movement of the rod members when the substrate is in the closed configuration; characterized in that upper portions of the plurality of rod members stay adjacent to each other in both the open and closed configuration and form a flat surface in the open configuration, the upper portions being on the inside of the apparatus in the closed configuration. an electronic component; and a substrate configured to support the electronic component, the substrate comprising at least one bendable portion configured to enable the substrate to be moved between an open configuration and a closed configuration; wherein the at least one bendable portion comprises a plurality of rod members and the rod members comprise interlocking portions wherein the interlocking portions comprise a projection configured to fit into a corresponding recess on an adjacent rod member so as to restrict relative movement of the rod members when the substrate is in the closed configuration; characterized in that upper portions of the plurality of rod members stay adjacent to each other in both the open and closed configuration and form a flat surface in the open configuration, the upper portions being on the inside of the apparatus in the closed configuration.
A method of isolating and treating a particulate target using an apparatus, wherein the particulate target is a single animal cell or an aggregate thereof, comprising at least a capillary comprising a tip orifice and an internal cavity , said internal cavity comprising a treatment liquid, a positioning element capable of positioning the tip orifice of the capillary , a discharging/drawing element capable of causing a discharge of treatment liquid from the capillary as well as causing a drawing of treatment liquid into the capillary , wherein the discharged and/or drawn volume can be selected in the range of 1 to 1000 nl, characterized in that said method comprises the steps of: a. locating the particulate target to be isolated and treated b. positioning the tip orifice of the capillary such that the tip orifice of the capillary comes in proximity to the particulate target , using the positioning element, c. discharging of treatment liquid such as to enclose the particulate target in the treatment liquid, d. drawing the particulate target enclosed in the treatment liquid into the internal cavity of the capillary , e. treating the particulate target within the internal cavity of the capillary comprising the treatment liquid. at least a capillary comprising a tip orifice and an internal cavity , said internal cavity comprising a treatment liquid, a positioning element capable of positioning the tip orifice of the capillary , a discharging/drawing element capable of causing a discharge of treatment liquid from the capillary as well as causing a drawing of treatment liquid into the capillary , wherein the discharged and/or drawn volume can be selected in the range of 1 to 1000 nl, characterized in that said method comprises the steps of: a. locating the particulate target to be isolated and treated b. positioning the tip orifice of the capillary such that the tip orifice of the capillary comes in proximity to the particulate target , using the positioning element, c. discharging of treatment liquid such as to enclose the particulate target in the treatment liquid, d. drawing the particulate target enclosed in the treatment liquid into the internal cavity of the capillary , e. treating the particulate target within the internal cavity of the capillary comprising the treatment liquid. a. locating the particulate target to be isolated and treated b. positioning the tip orifice of the capillary such that the tip orifice of the capillary comes in proximity to the particulate target , using the positioning element, c. discharging of treatment liquid such as to enclose the particulate target in the treatment liquid, d. drawing the particulate target enclosed in the treatment liquid into the internal cavity of the capillary , e. treating the particulate target within the internal cavity of the capillary comprising the treatment liquid.
Heating and/or cooling system comprising a heat exchanger with a first flow path and a second flow path , a second fluid connection , a first pump , a second pump , a flow responsive regulator , a flow sensor , a hot line , a cold line and a first fluid connection connected to the heat exchanger such that - the supply hot line with a pressure P hot is in fluid connection with an outlet of the second flow path of the heat exchanger - the cold line with a pressure P cold is in fluid connection with an inlet of the second flow path of the heat exchanger , said heating system further comprising a thermal storage in second fluid connection with an inlet and outlet of the first flow path of the heat exchanger , characterized in that the first pump is connected to the first fluid connection adapted to circulate fluid from the cold line , through the second flow path , and to the hot line at a pressure P1, and where the second pump is connected to the second fluid connection adapted to circulate fluid between the first flow path and the thermal storage , and where the aflow responsive regulator is connected to the first fluid connection (6 7) connecting the hot line or cold line to the second flow path , and wherein said flow responsive regulator is adapted only to pass through flow in the direction towards the first flow path inlet, and the flow sensor sensing when there is a flow in said first fluid connection indicating the pressure P1 of the first pump is higher than the pressure in the hot line or cold line (P hot , P cold ). - the supply hot line with a pressure P hot is in fluid connection with an outlet of the second flow path of the heat exchanger - the cold line with a pressure P cold is in fluid connection with an inlet of the second flow path of the heat exchanger , said heating system further comprising a thermal storage in second fluid connection with an inlet and outlet of the first flow path of the heat exchanger , characterized in that the first pump is connected to the first fluid connection adapted to circulate fluid from the cold line , through the second flow path , and to the hot line at a pressure P1, and where the second pump is connected to the second fluid connection adapted to circulate fluid between the first flow path and the thermal storage , and where the aflow responsive regulator is connected to the first fluid connection (6 7) connecting the hot line or cold line to the second flow path , and wherein said flow responsive regulator is adapted only to pass through flow in the direction towards the first flow path inlet, and the flow sensor sensing when there is a flow in said first fluid connection indicating the pressure P1 of the first pump is higher than the pressure in the hot line or cold line (P hot , P cold ).
An electrical enclosure assembly comprising: a first duct section having a first panel with a first flange ; a second duct section adjacent to the first section and having a second panel with a second flange , the second flange being fastened to the first flange of the first panel to form a flanged butt joint between the first and second duct sections, the first and second duct sections being in a path through which a pressure wave travels during an arc-fault event in the enclosure to an exhaust vent, characterized in that the electrical enclosure assembly further comprises a pressure ring fastened to at least one of the first and second panels and internally covering the flanged butt joint, the pressure ring being configured to deform with the first and second panels in response to a peak pressure of the pressure wave, the deformation causing the pressure ring to fill-in gaps created in the flanged butt joint by the peak pressure during the arc-fault event. a first duct section having a first panel with a first flange ; a second duct section adjacent to the first section and having a second panel with a second flange , the second flange being fastened to the first flange of the first panel to form a flanged butt joint between the first and second duct sections, the first and second duct sections being in a path through which a pressure wave travels during an arc-fault event in the enclosure to an exhaust vent, characterized in that the electrical enclosure assembly further comprises a pressure ring fastened to at least one of the first and second panels and internally covering the flanged butt joint, the pressure ring being configured to deform with the first and second panels in response to a peak pressure of the pressure wave, the deformation causing the pressure ring to fill-in gaps created in the flanged butt joint by the peak pressure during the arc-fault event.
A process of foaming a polyolefin composition using as a nucleator a combination of (A) a fluororesin, and (B) a mixture of a first component consisting of at least one of citric acid and an alkali metal citrate, and a second component consisting of at least one of an alkali metal citrate, a di-alkali metal hydrogen citrate, an alkali metal dihydrogen citrate and an alkali metal bicarbonate with the proviso that if the first component of the mixture is an alkali metal citrate, then the second component of the mixture is not an alkali metal citrate, wherein the polyolefin of the polyolefin composition comprises high density polyethylene (HDPE) and low density polyethylene (LDPE) and wherein the fluororesin is present in the composition in an amount of 0.01 to 1 wt% based on the weight of the composition, and the mixture is present in the composition in an amount of 300 to 5000 parts per million (ppm).
A disposable arrangement for use in a blood treatment apparatus , comprising: at least one fluid-conducting device which is configurable to define a flow circuit (C2) that extends through a blood chamber of a dialyzer and comprises connectors for connection to a vascular system of a subject (S) during blood treatment, said disposable arrangement further comprising a sterilizing filter and being configurable to define the flow circuit (C2) to form a closed loop that includes the sterilizing filter . at least one fluid-conducting device which is configurable to define a flow circuit (C2) that extends through a blood chamber of a dialyzer and comprises connectors for connection to a vascular system of a subject (S) during blood treatment, said disposable arrangement further comprising a sterilizing filter and being configurable to define the flow circuit (C2) to form a closed loop that includes the sterilizing filter .
A method performed by a wireless device , the method comprising: receiving , prior to group formation of a peer-to-peer, P2P, group , persistent information for the P2P group, wherein the persistent information comprises a Persistent Group Information field providing information about a persistency of the P2P group; and subsequent to receiving the persistent information, forming the P2P group based on the received persistent information , wherein the wireless device enables persistency in the P2P group if the Persistent Group Information field indicates support of persistency and wherein persistency is whether the P2P group is set as a persistent group or a non-persistent group. receiving , prior to group formation of a peer-to-peer, P2P, group , persistent information for the P2P group, wherein the persistent information comprises a Persistent Group Information field providing information about a persistency of the P2P group; and subsequent to receiving the persistent information, forming the P2P group based on the received persistent information , wherein the wireless device enables persistency in the P2P group if the Persistent Group Information field indicates support of persistency and wherein persistency is whether the P2P group is set as a persistent group or a non-persistent group.
A method for preparing 1,5-pentanediamine by fermentation, comprising: culturing a cell overexpressing a lysine decarboxylase with lysine and pyridoxal phosphate as substrates to start whole-cell catalysis, to obtain a fermentation broth comprising 1,5-pentanediamine, wherein the cell is a cell whose expression is enhanced by replacing the promotor of the lysine decarboxylase gene with T7 promoter, and the cell is E. coli BL21 (DE3); separating the cells from the fermentation broth to obtain a clear liquid of catalytic solution; removing carbon dioxide from the liquid obtained in the step by decompressing and/or heating under controlled conditions that separate the carbon dioxide from the liquid containing the 1,5-pentanediamine, and then adding a base to obtain a treatment liquid; extracting a composition containing 1,5-pentanediamine from the treatment liquid obtained in the step by distillation under reduced pressure; wherein in step , no acidic pH regulator is added to the fermentation broth, and the cells themselves generate CO 2 to neutralize 1,5-pentanediamine. culturing a cell overexpressing a lysine decarboxylase with lysine and pyridoxal phosphate as substrates to start whole-cell catalysis, to obtain a fermentation broth comprising 1,5-pentanediamine, wherein the cell is a cell whose expression is enhanced by replacing the promotor of the lysine decarboxylase gene with T7 promoter, and the cell is E. coli BL21 (DE3); separating the cells from the fermentation broth to obtain a clear liquid of catalytic solution; removing carbon dioxide from the liquid obtained in the step by decompressing and/or heating under controlled conditions that separate the carbon dioxide from the liquid containing the 1,5-pentanediamine, and then adding a base to obtain a treatment liquid; extracting a composition containing 1,5-pentanediamine from the treatment liquid obtained in the step by distillation under reduced pressure; wherein in step , no acidic pH regulator is added to the fermentation broth, and the cells themselves generate CO 2 to neutralize 1,5-pentanediamine.
A coated cutting tool comprising a substrate and a coating layer formed on a surface of the substrate, the coating layer including at least one α-type aluminum oxide layer, wherein, in the α-type aluminum oxide layer, a texture coefficient TC of a plane represented by the formula below is 1.4 or more and 6.9 or less: TC 1,2 11 = I 1,2 11 I 0 1,2 11 1 8 ∑ I h k l I 0 h k l − 1 , wherein, I (h,k,l) denotes a peak intensity for an (h,k,l) plane in X-ray diffraction of the α-type aluminum oxide layer, I 0 (h,k,l) denotes a standard diffraction intensity for an (h,k,l) plane which is indicated on a JCPDS Card No. 10-0173 for α-type aluminum oxide, and (h,k,l) refers to eight crystal planes of , , , , , , and , wherein an average thickness of the α-type aluminum oxide layer is from 1.0 μm or more to 15.0 μm or less, wherein the coating layer comprises a TiCN layer between the substrate and the α-type aluminum oxide layer, and a ratio I 311 /I 220 of a peak intensity I 311 for a plane in X-ray diffraction of the TiCN layer to a peak intensity I 220 for a plane in X-ray diffraction of the TiCN layer is from 1.5 or more to 20.0 or less, wherein the coating layer comprises, between the TiCN layer and the α-type aluminum oxide layer, an intermediate layer comprised of a compound of at least one kind selected from the group consisting of a Ti carbonate, a Ti oxynitride and a Ti carboxynitride, and wherein an average thickness of the coating layer is from 3.0 μm or more to 30.0 μm or less. wherein, I (h,k,l) denotes a peak intensity for an (h,k,l) plane in X-ray diffraction of the α-type aluminum oxide layer, I 0 (h,k,l) denotes a standard diffraction intensity for an (h,k,l) plane which is indicated on a JCPDS Card No. 10-0173 for α-type aluminum oxide, and (h,k,l) refers to eight crystal planes of , , , , , , and , wherein an average thickness of the α-type aluminum oxide layer is from 1.0 μm or more to 15.0 μm or less, wherein the coating layer comprises a TiCN layer between the substrate and the α-type aluminum oxide layer, and a ratio I 311 /I 220 of a peak intensity I 311 for a plane in X-ray diffraction of the TiCN layer to a peak intensity I 220 for a plane in X-ray diffraction of the TiCN layer is from 1.5 or more to 20.0 or less, wherein the coating layer comprises, between the TiCN layer and the α-type aluminum oxide layer, an intermediate layer comprised of a compound of at least one kind selected from the group consisting of a Ti carbonate, a Ti oxynitride and a Ti carboxynitride, and wherein an average thickness of the coating layer is from 3.0 μm or more to 30.0 μm or less.