mhurhangee/ep-ind-claims huggingface dataset:
A non-aqueous, emulsifiable and pourable concentrate formulation, that is able to form an emulsion when diluted into water and mixed by inversion of the vial comprising: (a)at least one non-ionic surfactant chosen from sorbitol derivatives, fatty alcohol ethoxylates, fatty acid ethoxylates and mixtures thereof; (b)at least one alkyl-benzene sulfonate surfactant as anionic surfactant; (c)a liquid medium wholly or partly formed from at least one vegetable oil alkyl ester or mixtures thereof; (d)at least 4% by weight of at least one phyllosilicate as thickener relative to the total weight of the composition; and (e)at least one activator of said phyllosilicate, chosen amongst methanol, ethanol, acetone, methylethylketone and propylene carbonate. (a)at least one non-ionic surfactant chosen from sorbitol derivatives, fatty alcohol ethoxylates, fatty acid ethoxylates and mixtures thereof; (b)at least one alkyl-benzene sulfonate surfactant as anionic surfactant; (c)a liquid medium wholly or partly formed from at least one vegetable oil alkyl ester or mixtures thereof; (d)at least 4% by weight of at least one phyllosilicate as thickener relative to the total weight of the composition; and (e)at least one activator of said phyllosilicate, chosen amongst methanol, ethanol, acetone, methylethylketone and propylene carbonate.
A method for transmitting a form request, comprising: generating signature information based on a preset read-only parameter of a form in a target response page when receiving the target response page fed back by a server; adding the signature information to the form of the target response page and transmitting the target response page to a terminal; receiving a target form request corresponding to the target response page transmitted by the terminal and verifying the signature information in a form contained in the target form request; and transmitting the target form request to the server if the verification is successful, otherwise performing a prevention process on the target form request; wherein receiving the target form request corresponding to the target response page transmitted by the terminal and verifying the signature information in a form contained in the target form request comprises: receiving the target form request corresponding to the target response page transmitted by the terminal and obtaining request information of the target form request, wherein the request information at least contains a uniform resource locator, URL corresponding to the target form request, a parameter format of the preset read-only parameter and the signature information; determining whether the target form request is a form request to be prevented based on the request information and a form request learning table stored locally; and verifying the signature information in the form contained in the target form request if the target form request is a form request to be prevented; wherein the form request learning table records request information of all form requests obtained that need to be prevented, wherein the all form requests are obtained by big-data processing and machine learning. generating signature information based on a preset read-only parameter of a form in a target response page when receiving the target response page fed back by a server; adding the signature information to the form of the target response page and transmitting the target response page to a terminal; receiving a target form request corresponding to the target response page transmitted by the terminal and verifying the signature information in a form contained in the target form request; and transmitting the target form request to the server if the verification is successful, otherwise performing a prevention process on the target form request; receiving the target form request corresponding to the target response page transmitted by the terminal and obtaining request information of the target form request, wherein the request information at least contains a uniform resource locator, URL corresponding to the target form request, a parameter format of the preset read-only parameter and the signature information; determining whether the target form request is a form request to be prevented based on the request information and a form request learning table stored locally; and verifying the signature information in the form contained in the target form request if the target form request is a form request to be prevented;
A method for installing electricity pylons and pylon foundations, said method comprising: - providing, at a foundation tube, a control device comprising an axial control component and a perpendicular control component (21, 22, 23), which foundation tube is provided at a predetermined location for a foundation of an electricity pylon, - positioning a metal profile into the foundation tube, whereby said profile is essentially directed along an axis of the foundation tube, - connecting the metal profile to at least one of said components of the control device, and - filling up the foundation tube with concrete, wherein a desired position of the profile, in the direction of the axis of the foundation tube and in the perpendicular plane to said direction, as well as a desired angle of rotation of the profile in said perpendicular plane, are set by means of the control device, characterized in that the axial control component is clamped against or over an upper edge of the foundation tube, and/or in that the perpendicular control component is positioned resting onto and/or hooked or clamped over an upper edge of the foundation tube. - providing, at a foundation tube, a control device comprising an axial control component and a perpendicular control component (21, 22, 23), which foundation tube is provided at a predetermined location for a foundation of an electricity pylon, - positioning a metal profile into the foundation tube, whereby said profile is essentially directed along an axis of the foundation tube, - connecting the metal profile to at least one of said components of the control device, and - filling up the foundation tube with concrete,
A mechanical circulatory support system for a heart, the system comprising: a pump (100; 200; 300; 310; 320) having a distal end and a proximal end, the pump (100; 200; 300; 310; 320) comprising a rotor, the rotor having at least one blade; a pump housing, the pump housing surrounding the at least one blade of the rotor; a catheter (118; 202; 308; 316; 328) having a distal end, a proximal end, an inner surface (120; 204), and an outer surface (122; 206), the catheter (118; 202; 308; 316; 328) extending proximally relative to the pump housing, the outer surface (122; 206) configured to contact blood when disposed within patient vasculature, wherein the outer surface (122; 206) of the catheter (118; 202; 308; 316; 328) comprises a heat transfer surface configured for cooling blood that comes in contact with the outer surface (122; 206); and a cooling element (116; 210) formed as a lumen, wherein the lumen forms a path as it extends from one end of the catheter (118; 202; 308; 316; 328) to the other end, characterized in that the path is a helix. a pump (100; 200; 300; 310; 320) having a distal end and a proximal end, the pump (100; 200; 300; 310; 320) comprising a rotor, the rotor having at least one blade; a pump housing, the pump housing surrounding the at least one blade of the rotor; a catheter (118; 202; 308; 316; 328) having a distal end, a proximal end, an inner surface (120; 204), and an outer surface (122; 206), the catheter (118; 202; 308; 316; 328) extending proximally relative to the pump housing, the outer surface (122; 206) configured to contact blood when disposed within patient vasculature, wherein the outer surface (122; 206) of the catheter (118; 202; 308; 316; 328) comprises a heat transfer surface configured for cooling blood that comes in contact with the outer surface (122; 206); and a cooling element (116; 210) formed as a lumen, wherein the lumen forms a path as it extends from one end of the catheter (118; 202; 308; 316; 328) to the other end,
A cleaning device for cleaning a container, in particular an inner wall of a container, comprising: - a base member that can be coupled to a feed pipe for supplying a cleaning agent, - a rotating member mounted rotatably about a rotational axis on the base member, - a support member having a first end portion and a second end portion spaced apart along the rotational axis, characterized in that the first end portion can be coupled to the base member and the second end portion to the rotating member in such a way that in the coupled state the rotating member is rotatably accommodated between the base member and the support member, wherein the cleaning device further comprises a coupling means which is adapted to lock the support member in place relative to the base member in the coupled state. - a base member that can be coupled to a feed pipe for supplying a cleaning agent, - a rotating member mounted rotatably about a rotational axis on the base member, - a support member having a first end portion and a second end portion spaced apart along the rotational axis,
A method of diagnosing a disease associated with aberrant mRNA splicing, wherein the disease is myotonic dystrophy type 1; Duchenne muscular dystrophy; Becker muscular dystrophy; limb girdle muscular dystrophy type 1B (LGMD1B); LMNA-linked dilated cardiomyopathy; Hutchinson-Gilford progeria syndrome (HGPS); Familial partial lipodystrophy type 2 (FPLD2); spinal muscular atrophy; or amyotrophic lateral sclerosis, the method comprising; isolating extracellular mRNA in a sample comprising urine obtained from a subject who has, or is suspected to have, the disease associated with aberrant mRNA splicing; determining one or more selected mRNA in the sample, wherein the one or more selected mRNA is aberrantly spliced in the subject, and is suspected to be present in a plurality of spliced isoforms in the sample, wherein the spliced isoforms comprise properly spliced isoforms and mis-spliced isoforms; quantitating levels of the properly spliced isoforms and mis-spliced isoforms of the one or more selected mRNAs in the sample; determining a ratio of the properly spliced isoforms to the mis-spliced isoforms of the one or more selected mRNAs in the sample; and comparing the ratio of properly spliced to mis-spliced in a subject to a reference ratio, wherein a ratio in the subject that is less than the reference ratio indicates the presence of a disease associated with aberrant mRNA splicing. wherein the disease is myotonic dystrophy type 1; Duchenne muscular dystrophy; Becker muscular dystrophy; limb girdle muscular dystrophy type 1B (LGMD1B); LMNA-linked dilated cardiomyopathy; Hutchinson-Gilford progeria syndrome (HGPS); Familial partial lipodystrophy type 2 (FPLD2); spinal muscular atrophy; or amyotrophic lateral sclerosis, the method comprising; isolating extracellular mRNA in a sample comprising urine obtained from a subject who has, or is suspected to have, the disease associated with aberrant mRNA splicing; determining one or more selected mRNA in the sample, wherein the one or more selected mRNA is aberrantly spliced in the subject, and is suspected to be present in a plurality of spliced isoforms in the sample, wherein the spliced isoforms comprise properly spliced isoforms and mis-spliced isoforms; quantitating levels of the properly spliced isoforms and mis-spliced isoforms of the one or more selected mRNAs in the sample; determining a ratio of the properly spliced isoforms to the mis-spliced isoforms of the one or more selected mRNAs in the sample; and comparing the ratio of properly spliced to mis-spliced in a subject to a reference ratio, wherein a ratio in the subject that is less than the reference ratio indicates the presence of a disease associated with aberrant mRNA splicing.
Medical fluid transfer device (1, 1a) for the fluid-tightly sealed transfer of a medical fluid which is hazardous to health, comprising a first connector section, which has a first passage and is provided for fluid-tight connection to a medical syringe, a second connector section (5, 5a), which has a second passage (6, 6a) and a third passage and is provided for fluid-tight connection to a medical fluid container, a fluid channel (7, 7a) extending between the first passage and the second passage (6, 6a), which - in a state of the fluid transfer device (1, 1a) connected to the syringe and the medical fluid container - allows a fluid-conducting transfer of the medical fluid between the syringe and the medical fluid container, and a compensation container (8, 8a) with a fluid-tight and variable-volume compensation volume (9, 9a) which - in the connected state of the fluid transfer device (1, 1a) - is connected to the medical fluid container in a fluid-conducting manner by means of the third passage, and which is designed to receive a volume of gas displaced from the medical fluid container during the transfer of the medical fluid, characterized in that the first passage and the second passage (6, 6a) are connected to one another in a fluid-conducting manner via the compensation volume (9, 9a), the compensation volume (9, 9a) forming a fluid channel section (10, 10a) of the fluid channel (7, 7a). a first connector section, which has a first passage and is provided for fluid-tight connection to a medical syringe, a second connector section (5, 5a), which has a second passage (6, 6a) and a third passage and is provided for fluid-tight connection to a medical fluid container, a fluid channel (7, 7a) extending between the first passage and the second passage (6, 6a), which - in a state of the fluid transfer device (1, 1a) connected to the syringe and the medical fluid container - allows a fluid-conducting transfer of the medical fluid between the syringe and the medical fluid container, and a compensation container (8, 8a) with a fluid-tight and variable-volume compensation volume (9, 9a) which - in the connected state of the fluid transfer device (1, 1a) - is connected to the medical fluid container in a fluid-conducting manner by means of the third passage, and which is designed to receive a volume of gas displaced from the medical fluid container during the transfer of the medical fluid, characterized in that the first passage and the second passage (6, 6a) are connected to one another in a fluid-conducting manner via the compensation volume (9, 9a), the compensation volume (9, 9a) forming a fluid channel section (10, 10a) of the fluid channel (7, 7a).
Solution for the production of a polymer membrane, comprising or consisting of a) a copolymer based on (meth)acrylonitrile, obtainable by copolymerisation of (meth)acrylonitrile with at least one copolymer selected from the group consisting of (meth)allyl sulphonic acid or the salts thereof or mixtures hereof, b) at least one crosslinker for poly(meth)acrylonitrile or a copolymer based on (meth)acrylonitrile, the crosslinker - is an amino group-containing polymer, selected from the group consisting of polyethylene imine, polyvinyl amine, polyallyl amine and/or mixtures hereof and/or - is released in situ, in particular from blocked polyethylene imine, blocked polyvinyl amine, blocked polyallyl amine and/or mixtures or combinations hereof, as well as c) at least one solvent for poly(meth)acrylonitrile or a copolymer based on (meth)acrylonitrile, in which the previously mentioned components are present in dissolved state. a) a copolymer based on (meth)acrylonitrile, obtainable by copolymerisation of (meth)acrylonitrile with at least one copolymer selected from the group consisting of (meth)allyl sulphonic acid or the salts thereof or mixtures hereof, b) at least one crosslinker for poly(meth)acrylonitrile or a copolymer based on (meth)acrylonitrile, the crosslinker - is an amino group-containing polymer, selected from the group consisting of polyethylene imine, polyvinyl amine, polyallyl amine and/or mixtures hereof and/or - is released in situ, in particular from blocked polyethylene imine, blocked polyvinyl amine, blocked polyallyl amine and/or mixtures or combinations hereof, as well as - is an amino group-containing polymer, selected from the group consisting of polyethylene imine, polyvinyl amine, polyallyl amine and/or mixtures hereof and/or - is released in situ, in particular from blocked polyethylene imine, blocked polyvinyl amine, blocked polyallyl amine and/or mixtures or combinations hereof, as well as c) at least one solvent for poly(meth)acrylonitrile or a copolymer based on (meth)acrylonitrile, in which the previously mentioned components are present in dissolved state.
A process for obtaining sugar from fermented grain, comprising the steps: (a) treating the fermented grain with hot water to hydrolyse hemicellulose; (b) separating an aqueous phase containing the products of the hydrolysis of hemicellulose from particulate material; (c) feeding the particulate material into a flow of steam at above 450°C along a reactor duct to form a flowing mixture of particles and vapours, the mass flow of steam being at least 3 times the mass flow of particulate matter, such that the particulate material is heated rapidly; (d) then separating at least 75% (by mass) of the particles from the flowing mixture after no more than 3 seconds; and (e) condensing the vapours from the flowing mixture. (a) treating the fermented grain with hot water to hydrolyse hemicellulose; (b) separating an aqueous phase containing the products of the hydrolysis of hemicellulose from particulate material; (c) feeding the particulate material into a flow of steam at above 450°C along a reactor duct to form a flowing mixture of particles and vapours, the mass flow of steam being at least 3 times the mass flow of particulate matter, such that the particulate material is heated rapidly; (d) then separating at least 75% (by mass) of the particles from the flowing mixture after no more than 3 seconds; and (e) condensing the vapours from the flowing mixture.
A method for tracking multiple objects (14, 15), comprising: wirelessly sending commands to the multiple objects (14, 15) instructing different subsets of the multiple objects to output at different times; receiving electromagnetic signals from the multiple movable objects (14, 15), the electromagnetic signals were output in response to respective commands; and calculating locations of the multiple objects (14,15) based on the sensed electromagnetic signals from the multiple movable objects (14, 15), and characterized by the method further comprising: automatically choosing a first subset of the objects to track at a first frequency of time; and automatically choosing a second subset of the objects to track at a second frequency of time; the receiving is performed for the first subset of the objects at the first frequency of time and the receiving and calculating are performed for the second subset of the objects at the second frequency of time in response to the automatically choosing the first subset and the automatically choosing the second subset. wirelessly sending commands to the multiple objects (14, 15) instructing different subsets of the multiple objects to output at different times; receiving electromagnetic signals from the multiple movable objects (14, 15), the electromagnetic signals were output in response to respective commands; and calculating locations of the multiple objects (14,15) based on the sensed electromagnetic signals from the multiple movable objects (14, 15), and characterized by the method further comprising: automatically choosing a first subset of the objects to track at a first frequency of time; and automatically choosing a second subset of the objects to track at a second frequency of time; the receiving is performed for the first subset of the objects at the first frequency of time and the receiving and calculating are performed for the second subset of the objects at the second frequency of time in response to the automatically choosing the first subset and the automatically choosing the second subset. automatically choosing a first subset of the objects to track at a first frequency of time; and automatically choosing a second subset of the objects to track at a second frequency of time; the receiving is performed for the first subset of the objects at the first frequency of time and the receiving and calculating are performed for the second subset of the objects at the second frequency of time in response to the automatically choosing the first subset and the automatically choosing the second subset.
A hinged deflector plate for use in a grill comprising: a middle section, the middle section having a first layer and a second layer, the second layer attached to the first layer and a substantially hollow plenum formed between the first and second 66 layers; two end sections (38B,38C), each end section (38B,38C) having a first layer and a second layer, the second layer attached to the first layer and a substantially hollow plenum formed between the first and second layers; a first hinge assembly connecting one end section (38B,38C) to the middle section; and, a second hinge assembly connecting the other end section (38B,38C) to the middle section. a middle section, the middle section having a first layer and a second layer, the second layer attached to the first layer and a substantially hollow plenum formed between the first and second 66 layers; two end sections (38B,38C), each end section (38B,38C) having a first layer and a second layer, the second layer attached to the first layer and a substantially hollow plenum formed between the first and second layers; a first hinge assembly connecting one end section (38B,38C) to the middle section; and, a second hinge assembly connecting the other end section (38B,38C) to the middle section.