mhurhangee/ep-ind-claims huggingface dataset:
An inj ectate containing a known amount A 1 of a first molecule and a known amount A 2 of a second molecule, wherein the first molecule is dextran with a molecular size of 1 kDa to 20 kDa labeled with a first fluorescent dye and is non-metabolized and permeable to vessel walls of the vascular system of the animal, and the second molecule is dextran with a molecular size of 70 kDa to 500 kDa labeled with a second fluorescent dye molecule and is non-metabolized and impermeable to vessel walls of the vascular system of the animal, for use in a method for simultaneously measuring extracellular fluid volume (ECFV) and total vascular plasma volume (TVPV) in an animal with renal failure, the method comprising: (a) administering the injectate into the vascular system of the animal; (b) allowing the first molecule to reach a first equilibrium steady state concentration C 1 and the second molecule to reach a second equilibrium steady state concentration C 2; (c) measuring C 1 and C 2 in the vascular system of the animal; (d) calculating ECFV using the equation ECFV = A 1 /C 1 and TVPV using the equation TVPV = A 2 /C 2, and optionally (e) calculating interstitial fluid volume using the equation IFV = ECFV - TVPV. (a) administering the injectate into the vascular system of the animal; (b) allowing the first molecule to reach a first equilibrium steady state concentration C 1 and the second molecule to reach a second equilibrium steady state concentration C 2; (c) measuring C 1 and C 2 in the vascular system of the animal; (d) calculating ECFV using the equation ECFV = A 1 /C 1 and TVPV using the equation TVPV = A 2 /C 2, and optionally (e) calculating interstitial fluid volume using the equation IFV = ECFV - TVPV.
A mobile terminal, comprising: a fingerprint identification module and a terminal screen; the terminal screen comprising a display area and a non-display area located at an end of the display area, the display area having a display surface, and the non-display area having a driving circuit; the fingerprint identification module being adjacent to the non-display area relative to the display area, a forward projection, on a plane where the display surface is located, of the fingerprint identification module being at least partially overlapped with a forward projection, on the plane where the display surface is located, of the non-display area; a cover plate glass located at an outer side of the terminal screen; the cover plate glass defining a module accommodation hole configured to accommodate the fingerprint identification module; a ring body provided between the fingerprint identification module and the cover plate glass and fixed to the cover plate glass and the fingerprint identification module separately by glue; an upper cover arranged opposite to the terminal screen and located at an inner side of the terminal screen; the upper cover being fixed to the cover plate glass by glue, wherein a bottom of the ring body is fixed to the upper cover by glue, wherein the bottom of the ring body has a sunk stage, and a bottom and a side of the sunk stage are fixed to the upper cover separately by dispensing glue. a fingerprint identification module and a terminal screen; the terminal screen comprising a display area and a non-display area located at an end of the display area, the display area having a display surface, and the non-display area having a driving circuit; the fingerprint identification module being adjacent to the non-display area relative to the display area, a forward projection, on a plane where the display surface is located, of the fingerprint identification module being at least partially overlapped with a forward projection, on the plane where the display surface is located, of the non-display area; a cover plate glass located at an outer side of the terminal screen; the cover plate glass defining a module accommodation hole configured to accommodate the fingerprint identification module; a ring body provided between the fingerprint identification module and the cover plate glass and fixed to the cover plate glass and the fingerprint identification module separately by glue; an upper cover arranged opposite to the terminal screen and located at an inner side of the terminal screen; the upper cover being fixed to the cover plate glass by glue, wherein a bottom of the ring body is fixed to the upper cover by glue, wherein the bottom of the ring body has a sunk stage, and a bottom and a side of the sunk stage are fixed to the upper cover separately by dispensing glue.
Support for a product packaged in unit doses, suitable for being handled by an automated management systems, comprising a plastic support card having a flap folded over and fastened to a main portion thereof, in which a main opening (20, 20') is made, from which a portion (16, 16') of a pack (14, 14') of a unit dose product (P, S) appears, at least part of a peripheral edge of said pack being enclosed between the flap and the main portion of the support card, a secondary opening (22, 22') being made in the flap to allow the unit dose product to be removed from its pack, the flap being fastened to the main portion only along part or all of a peripheral edge zone of the flap, by welding with no added material, the peripheral edge being, at least in part, wider than the main opening such that it remains positioned between the main portion and the flap superimposed thereon and fastened thereto.
Compound of formula: [(R1R2R3R4R5R6)Salen)]M x - M is barium; - R1, R2, R3, R4, R5, R6 are an organic ligands independently selected in the group consisting of H, C1-C5 linear or branched alkyl; - A is selected in the group consisting of alcohol, alkylamine, ether; - 0 ≤ x ≤ 3 - M is barium; - R1, R2, R3, R4, R5, R6 are an organic ligands independently selected in the group consisting of H, C1-C5 linear or branched alkyl; - A is selected in the group consisting of alcohol, alkylamine, ether; - 0 ≤ x ≤ 3
An adjustable power intraocular lens, comprising: a container having an optical component and a peripheral component extending around at least a portion of the optical component, wherein the optical component has an anterior optical element, a posterior optical element, and a fluid chamber having a chamber volume between the anterior optical element and the posterior optical element; an optical fluid in the container; characterised in that the adjustable power intraocular lens further comprises a transport substance in solution with the optical fluid, wherein the transport substance is configured to pass through the container; and a plurality of volume control elements (140, 160) in the peripheral component of the container, wherein the volume control elements (140, 160) comprise: first volume control elements configured to be activated by a non-invasive energy and upon activation to release the transport substance into the optical fluid to decrease the chamber volume; and/or second volume control elements configured to be activated by a non- invasive energy and upon activation to absorb the transport substance from the optical fluid to increase the chamber volume. a container having an optical component and a peripheral component extending around at least a portion of the optical component, wherein the optical component has an anterior optical element, a posterior optical element, and a fluid chamber having a chamber volume between the anterior optical element and the posterior optical element; an optical fluid in the container; characterised in that the adjustable power intraocular lens further comprises a transport substance in solution with the optical fluid, wherein the transport substance is configured to pass through the container; and a plurality of volume control elements (140, 160) in the peripheral component of the container, wherein the volume control elements (140, 160) comprise: first volume control elements configured to be activated by a non-invasive energy and upon activation to release the transport substance into the optical fluid to decrease the chamber volume; and/or second volume control elements configured to be activated by a non- invasive energy and upon activation to absorb the transport substance from the optical fluid to increase the chamber volume. first volume control elements configured to be activated by a non-invasive energy and upon activation to release the transport substance into the optical fluid to decrease the chamber volume; and/or second volume control elements configured to be activated by a non- invasive energy and upon activation to absorb the transport substance from the optical fluid to increase the chamber volume.
A method for energy efficient networking, the method comprising: in an Ethernet link that communicatively couples several link partners, wherein said Ethernet link comprises one or more silent channels or a silent direction in one or more channels: determining, based on one or more control parameters, when to: refresh one or more parameters outdated over time due to inactivity of said one or more silent channels or said silent direction in said one or more channels instead of performing a full set of training steps for said one or more silent channels or said silent direction in said one or more channels; the method further comprising: modifying criteria for when to trigger the refreshing activity by feeding back information based on results observed after one or more prior cycles of the refreshing as at least one of the one or more control parameters, and executing said refreshing based on said determination. in an Ethernet link that communicatively couples several link partners, wherein said Ethernet link comprises one or more silent channels or a silent direction in one or more channels: determining, based on one or more control parameters, when to: refresh one or more parameters outdated over time due to inactivity of said one or more silent channels or said silent direction in said one or more channels instead of performing a full set of training steps for said one or more silent channels or said silent direction in said one or more channels; the method further comprising: modifying criteria for when to trigger the refreshing activity by feeding back information based on results observed after one or more prior cycles of the refreshing as at least one of the one or more control parameters, and executing said refreshing based on said determination. determining, based on one or more control parameters, when to: refresh one or more parameters outdated over time due to inactivity of said one or more silent channels or said silent direction in said one or more channels instead of performing a full set of training steps for said one or more silent channels or said silent direction in said one or more channels; refresh one or more parameters outdated over time due to inactivity of said one or more silent channels or said silent direction in said one or more channels instead of performing a full set of training steps for said one or more silent channels or said silent direction in said one or more channels; the method further comprising: modifying criteria for when to trigger the refreshing activity by feeding back information based on results observed after one or more prior cycles of the refreshing as at least one of the one or more control parameters, and executing said refreshing based on said determination. modifying criteria for when to trigger the refreshing activity by feeding back information based on results observed after one or more prior cycles of the refreshing as at least one of the one or more control parameters, and executing said refreshing based on said determination.
A door for a microwave oven, comprising: a door frame; a substantially transparent, glass or polymeric substrate arranged within the frame to define a viewing window; and an electrically conductive mesh spanning the viewing window, characterised in that the mesh comprises a plurality of carbon nanotubes forming a two-dimensional weave and is embedded in the substrate to shield microwave radiation generated in the oven from reaching an exterior of the door frame, wherein: said mesh is located so as to overlap the edge flush with the outer edge of the frame; said plurality of carbon nanotubes possesses two distinct populations having diameters of 0.93 nm ± 0.03 nm and 1.64 nm ± 0.15 nm, and said mesh comprises additional carbon nanotubes placed such that said mesh is configured in the form of a three-dimensional structure. a door frame; a substantially transparent, glass or polymeric substrate arranged within the frame to define a viewing window; and an electrically conductive mesh spanning the viewing window, characterised in that the mesh comprises a plurality of carbon nanotubes forming a two-dimensional weave and is embedded in the substrate to shield microwave radiation generated in the oven from reaching an exterior of the door frame, wherein: said mesh is located so as to overlap the edge flush with the outer edge of the frame; said plurality of carbon nanotubes possesses two distinct populations having diameters of 0.93 nm ± 0.03 nm and 1.64 nm ± 0.15 nm, and said mesh comprises additional carbon nanotubes placed such that said mesh is configured in the form of a three-dimensional structure. said mesh is located so as to overlap the edge flush with the outer edge of the frame; said plurality of carbon nanotubes possesses two distinct populations having diameters of 0.93 nm ± 0.03 nm and 1.64 nm ± 0.15 nm, and said mesh comprises additional carbon nanotubes placed such that said mesh is configured in the form of a three-dimensional structure.
A lawnmower comprising: a housing; and a passive cleaning assembly for removing detritus from the housing, the passive cleaning assembly being moveably mounted on said housing, characterized in that movement of the lawnmower with respect to the ground causes a cleaning portion of the passive cleaning assembly to move with respect to the housing and thereby remove detritus from the housing.
A ceramide dispersion comprising: ceramide-containing particles which at least contain a ceramide, which are dispersed in an aqueous phase as an oil-phase component, and which have a volume average particle diameter from 1 nm to 75 nm; and a fatty acid component which is at least one fatty acid selected from the group consisting of lauric acid, isostearic acid, oleic acid, γ-linolenic acid, α-linolenic acid, linoleic acid, arachidonic acid, eicosapentaenoic acid, and salts thereof, a nonionic surfactant in an amount of 0 or not more than 0.1 times the total mass of the ceramide; and an ionic surfactant other than the fatty acid component in an amount of 0 or less than 0.05 times the total mass of the ceramide; and pH being from 6 to 8, wherein the content of fatty acid components in the ceramide dispersion is from 0.01 times to 1.0 times the total mass of the ceramide. ceramide-containing particles which at least contain a ceramide, which are dispersed in an aqueous phase as an oil-phase component, and which have a volume average particle diameter from 1 nm to 75 nm; and a fatty acid component which is at least one fatty acid selected from the group consisting of lauric acid, isostearic acid, oleic acid, γ-linolenic acid, α-linolenic acid, linoleic acid, arachidonic acid, eicosapentaenoic acid, and salts thereof,
A method comprising: receiving a call at a call center that services a call queue corresponding to a plurality of calls to be serviced at the call center; generating a call queue entry that is based on said call; inserting said call queue entry into said call queue; receiving information about said telecommunications terminal that placed said call; adding said received information to said call queue entry; when an agent is available, selecting said call from said call queue; removing said call queue entry from said call queue; and routing said call to said available agent. wherein said information about said telecommunications terminal that placed said call comprises a geo-location L of said telecommunications terminal, characterized in that it further comprises at least one of a direction D of said telecommunications terminal, and a speed S of said telecommunications terminal; and wherein the selecting said call from said call queue is based, at least in part, on said geo-location L of said telecommunications terminal, and is further based on at least one of said direction D of said telecommunications terminal, said speed S of said telecommunications terminal, and the calendrical time at said telecommunications terminal. receiving a call at a call center that services a call queue corresponding to a plurality of calls to be serviced at the call center; generating a call queue entry that is based on said call; inserting said call queue entry into said call queue; receiving information about said telecommunications terminal that placed said call; adding said received information to said call queue entry; when an agent is available, selecting said call from said call queue; removing said call queue entry from said call queue; and routing said call to said available agent. wherein said information about said telecommunications terminal that placed said call comprises a geo-location L of said telecommunications terminal, characterized in that it further comprises at least one of a direction D of said telecommunications terminal, and a speed S of said telecommunications terminal; and wherein the selecting said call from said call queue is based, at least in part, on said geo-location L of said telecommunications terminal, and is further based on at least one of said direction D of said telecommunications terminal, said speed S of said telecommunications terminal, and the calendrical time at said telecommunications terminal.
A method of customizing a nail-biting and/or finger sucking treatment solution, comprising the steps of: obtaining a first solution with a first bitterness level; obtaining a second solution with a second bitterness level; and adding at least a portion of the second solution to at least a portion of the first solution to form a combined solution with a third bitterness level; wherein the third bitterness level is greater than the first bitterness level. obtaining a first solution with a first bitterness level; obtaining a second solution with a second bitterness level; and adding at least a portion of the second solution to at least a portion of the first solution to form a combined solution with a third bitterness level;
A fluorinated, alkoxysilyl-functional polymer, obtainable by a method comprising the steps of: a) reacting an OH-functional (per)fluoropolyether (PFPE) with a polyisocyanate A under urethane formation reaction conditions, to obtain an isocyanate-functional intermediate B, b) reacting intermediate B with a secondary, alkoxysilyl-functional monoamine C, to obtain the alkoxysilyl-functional polymer. a) reacting an OH-functional (per)fluoropolyether (PFPE) with a polyisocyanate A under urethane formation reaction conditions, to obtain an isocyanate-functional intermediate B, b) reacting intermediate B with a secondary, alkoxysilyl-functional monoamine C, to obtain the alkoxysilyl-functional polymer.
A method for producing an anisotropic rare earth magnet comprising: a mixing step of obtaining a mixed raw material of a magnet raw material capable of generating R 2 TM 14 B 1 -type crystals of a tetragonal compound of a rare earth element, hereinafter referred to as "R", boron, and a transition element, hereinafter referred to as "TM", and a diffusion raw material to serve as a supply source of at least a rare earth element, hereinafter referred to as "R"', and Cu; a forming step of obtaining a formed body by pressing the mixed raw material; and a diffusing step of diffusing at least R' and Cu onto surfaces or into crystal grain boundaries of the R 2 TM 14 B 1 -type crystals by heating the formed body; characterized in that the forming step comprises: a preforming step of obtaining a preform by pressing the mixed raw material at cold or warm temperature; and a densifying step of obtaining a dense formed body by pressing the preform at hot temperature; and the anisotropic rare earth magnet is a dense anisotropic rare earth magnet comprising the dense formed body. a mixing step of obtaining a mixed raw material of a magnet raw material capable of generating R 2 TM 14 B 1 -type crystals of a tetragonal compound of a rare earth element, hereinafter referred to as "R", boron, and a transition element, hereinafter referred to as "TM", and a diffusion raw material to serve as a supply source of at least a rare earth element, hereinafter referred to as "R"', and Cu; a forming step of obtaining a formed body by pressing the mixed raw material; and a diffusing step of diffusing at least R' and Cu onto surfaces or into crystal grain boundaries of the R 2 TM 14 B 1 -type crystals by heating the formed body; characterized in that the forming step comprises: a preforming step of obtaining a preform by pressing the mixed raw material at cold or warm temperature; and a densifying step of obtaining a dense formed body by pressing the preform at hot temperature; and a preforming step of obtaining a preform by pressing the mixed raw material at cold or warm temperature; and a densifying step of obtaining a dense formed body by pressing the preform at hot temperature; and the anisotropic rare earth magnet is a dense anisotropic rare earth magnet comprising the dense formed body.
A nutritional composition comprising protein in an amount of at least 3530% of the total energy of the nutritional composition, and at least one source of fatty acids that provides the nutritional composition with an omega-6 to omega-3 fatty acid ratio from 1.0:0.5 to 2.5:1.5 for use in a method of treating a patient suffering from, or at risk of suffering from, complications associated with excessive feeding.