mhurhangee/ep-ind-claims huggingface dataset:
A device allowing the separation of particles of solid with a diameter in the range 10 to 100 microns, dispersed in the form of a suspension in a liquid, said device comprising an upper portion which is cylindrical in shape with a ratio H/D in the range 2 to 6, and a lower conical portion having the same maximum diameter as the cylindrical portion, the cone angle α being in the range 40° to 60°, said device further comprising: • a tube (Ta) for admitting the suspension in the form of an elbow, the horizontal portion of said elbow, with diameter d1, penetrating into the interior of the upper portion of the device, and the vertical portion of said elbow, with diameter d2, opening substantially at the level of the plane separating the upper portion and the lower portion of the device, the ratio of the diameters, d2/d1, being in the range 2 to 4, and the vertical portion of the admission tube (Ta) having a length (hb) equal to at least three times the diameter d2 of said vertical portion; • an upper withdrawal tube (Ts) for clear liquid located at the top of the upper cylindrical portion; • a lower withdrawal tube (Ti) for solid particles located at the bottom of the lower conical portion; • an internal baffle, downwardly orientated, making an angle (β) with respect to the vertical, which is substantially equal to the cone half angle (α) of the lower portion of the device, is fixed to the internal wall of the cylindrical portion of the device, at a level substantially identical to the level of the start of the vertical portion of the admission tube (Ta), the height of said baffle being in the range 0.4 to 0.6 times the height of the vertical portion of the admission tube (hb), the diameter being in the range 1 to 10 metres. • a tube (Ta) for admitting the suspension in the form of an elbow, the horizontal portion of said elbow, with diameter d1, penetrating into the interior of the upper portion of the device, and the vertical portion of said elbow, with diameter d2, opening substantially at the level of the plane separating the upper portion and the lower portion of the device, the ratio of the diameters, d2/d1, being in the range 2 to 4, and the vertical portion of the admission tube (Ta) having a length (hb) equal to at least three times the diameter d2 of said vertical portion; • an upper withdrawal tube (Ts) for clear liquid located at the top of the upper cylindrical portion; • a lower withdrawal tube (Ti) for solid particles located at the bottom of the lower conical portion; • an internal baffle, downwardly orientated, making an angle (β) with respect to the vertical, which is substantially equal to the cone half angle (α) of the lower portion of the device, is fixed to the internal wall of the cylindrical portion of the device, at a level substantially identical to the level of the start of the vertical portion of the admission tube (Ta), the height of said baffle being in the range 0.4 to 0.6 times the height of the vertical portion of the admission tube (hb), the diameter being in the range 1 to 10 metres.
A cyclic dialkoxy silane composition comprising at least one component having a chemical structure of: [[[(ROC(-O)) p - j] k -Y-S] r -G-(SiX u Z c w) s] n wherein: each occurrence of Y is -C(=O)-; each occurrence of R is independently selected from the group consisting of hydrogen and C 1 to C 4 alkyls; each occurrence of G is independently selected from the group consisting of hydrogen and monovalent and polyvalent alkyl, alkenyl, aryl, or aralkyl groups wherein G can have from 1 to 30 carbon atoms; each occurrence of X is independently selected from the group consisting of R 1 O-, R 1 C(=O)O-, R 1 R 2 C-NO-, R 1 R 2 NO-, R 1 R 2 N-, -R 1, and - (OSiR 1 R 2) t (OSiR 1 R 2 R 3), wherein each occurrence of R 1, R 2 and R 3 is independently R; each occurrence of Z c, which forms a cyclic structure with a silicon atom, is independently given by -O(R 4 CR 5) f O- wherein each occurrence of R 4 and R 5 is independently R; each occurrence of the subscripts, u, n, w, f, p, r, j, p, t, s, and k, is independently given by u is 1; n is 1; w is 1;. f is 1 to 15; p is 0; r is 1 to 3; j is 1; t is 0 to 50; s is 1 to 3; and k is 1. each occurrence of Y is -C(=O)-; each occurrence of R is independently selected from the group consisting of hydrogen and C 1 to C 4 alkyls; each occurrence of G is independently selected from the group consisting of hydrogen and monovalent and polyvalent alkyl, alkenyl, aryl, or aralkyl groups wherein G can have from 1 to 30 carbon atoms; each occurrence of X is independently selected from the group consisting of R 1 O-, R 1 C(=O)O-, R 1 R 2 C-NO-, R 1 R 2 NO-, R 1 R 2 N-, -R 1, and - (OSiR 1 R 2) t (OSiR 1 R 2 R 3), wherein each occurrence of R 1, R 2 and R 3 is independently R; each occurrence of Z c, which forms a cyclic structure with a silicon atom, is independently given by -O(R 4 CR 5) f O- wherein each occurrence of R 4 and R 5 is independently R; each occurrence of the subscripts, u, n, w, f, p, r, j, p, t, s, and k, is independently given by u is 1; n is 1; w is 1;. f is 1 to 15; p is 0; r is 1 to 3; j is 1; t is 0 to 50; s is 1 to 3; and k is 1. u is 1; n is 1; w is 1;. f is 1 to 15; p is 0; r is 1 to 3; j is 1; t is 0 to 50; s is 1 to 3; and k is 1.
Application apparatus having a base unit which has at a first end a connection device for a production system and which extends along an axis from the first end to a second end remote from the connection device, an application unit which is configured to apply a strip, preferably an adhesive strip, to a workpiece, characterized in that the application unit is securely coupled to the base unit at the second end of the base unit, and a redirection unit which is coupled to the base unit so as to be able to be pivoted about the axis, wherein the application unit has a first input guiding element, via which the strip can be supplied to the application unit, wherein the redirection unit is configured in such a manner that the strip can wrap around the redirection unit in such a manner that, when it is guided thereby from an axial receiving position, at which it moves into abutment with the redirection unit, to an axial discharge position, in which it is released from the redirection unit, the axial receiving position is spaced apart from the axial discharge position in an axial direction of the axis, and wherein the first input guiding element of the application unit is spaced apart from the axial receiving position in an axial direction of the axis. a base unit which has at a first end a connection device for a production system and which extends along an axis from the first end to a second end remote from the connection device, an application unit which is configured to apply a strip, preferably an adhesive strip, to a workpiece, characterized in that the application unit is securely coupled to the base unit at the second end of the base unit, and a redirection unit which is coupled to the base unit so as to be able to be pivoted about the axis, wherein the application unit has a first input guiding element, via which the strip can be supplied to the application unit, wherein the redirection unit is configured in such a manner that the strip can wrap around the redirection unit in such a manner that, when it is guided thereby from an axial receiving position, at which it moves into abutment with the redirection unit, to an axial discharge position, in which it is released from the redirection unit, the axial receiving position is spaced apart from the axial discharge position in an axial direction of the axis, and wherein the first input guiding element of the application unit is spaced apart from the axial receiving position in an axial direction of the axis.
A composition of stem cells for use in a method of treating a subject, wherein the stems cells are produced by a method comprising: (a) contacting stem cells with a composition comprising DA-DKP; (b) cultivating the stem cells under conditions suitable to facilitate the expansion of the stem cells; and (c) optionally, adding one or more differentiation factors or changing culturing conditions to induce differentiation of cells to form a different type of cell; wherein the composition comprising DA-DKP is prepared by a process comprising filtration of human serum albumin to produce a low molecular weight fraction of human serum albumin, wherein substantially all of the albumin has been removed from the fraction. (a) contacting stem cells with a composition comprising DA-DKP; (b) cultivating the stem cells under conditions suitable to facilitate the expansion of the stem cells; and (c) optionally, adding one or more differentiation factors or changing culturing conditions to induce differentiation of cells to form a different type of cell;
A heat pump system in which a plurality of heat pump chillers (4A, 4B, 4C, 4D) are connected to a single cold/hot water circuit equipped with a water pump, wherein the plurality of heat pump chillers are divided into a plurality of series (4A, 4B, 4C, 4D), the heat pump system comprising: a parallel circuit in which the heat pump chillers of the individual series are connected in parallel to the single cold/hot water circuit, characterized by further comprising: a series circuit in which the heat pump chillers of the individual series are connected in series to the single cold/hot water circuit, wherein the parallel circuit and the series circuit are switchable to each other via a switching means (7, 8, 9), wherein the parallel circuit is a circuit that connects the heat pump chillers of the individual series in parallel with each other to the single cold/hot water circuit, and the series circuit is a circuit that connects the cold/hot water circuit outlet side of the heat pump chillers (4A, 4B) in a first series to the cold/hot water circuit inlet side of the heat pump chillers in a second series (4C, 4D). a parallel circuit in which the heat pump chillers of the individual series are connected in parallel to the single cold/hot water circuit, a series circuit in which the heat pump chillers of the individual series are connected in series to the single cold/hot water circuit, wherein the parallel circuit and the series circuit are switchable to each other via a switching means (7, 8, 9), wherein the parallel circuit is a circuit that connects the heat pump chillers of the individual series in parallel with each other to the single cold/hot water circuit, and the series circuit is a circuit that connects the cold/hot water circuit outlet side of the heat pump chillers (4A, 4B) in a first series to the cold/hot water circuit inlet side of the heat pump chillers in a second series (4C, 4D).
Use of a medium composition comprising 20 to 150 μg/ml of a phlorotannin fraction which is a bieckol compound represented by the following Chemical Formula 1 or salts thereof for dedifferentiating mesenchymal stem cells into induced pluripotency stem cells
A topper for a container having an upper surface, the topper including: a body adapted to engage the upper surface of the container, and a movable perforation platform having at least one protruding perforating element (4a, 4b), the perforation platform being pushable with respect to the body from a resting position to a working position wherein the perforating element (4a, 4b) perforates the upper surface of the container, wherein the perforation platform presents in resting position a first orientation and presents in working position a second orientation, wherein the perforation platform does not penetrate the upper surface of the container when in working position, and wherein the topper comprises means for preventing rotation of the perforation platform further than the working position, characterised in that the first and the second orientation differ by an angle, wherein the angle is less than 30°, wherein the movement from the resting position to the working position only comprises either a rotation of less than 30°, or a translation and a rotation of less than 30°. a body adapted to engage the upper surface of the container, and a movable perforation platform having at least one protruding perforating element (4a, 4b), the perforation platform being pushable with respect to the body from a resting position to a working position wherein the perforating element (4a, 4b) perforates the upper surface of the container, wherein the perforation platform presents in resting position a first orientation and presents in working position a second orientation, wherein the perforation platform does not penetrate the upper surface of the container when in working position, and wherein the topper comprises means for preventing rotation of the perforation platform further than the working position, characterised in that the first and the second orientation differ by an angle, wherein the angle is less than 30°, wherein the movement from the resting position to the working position only comprises either a rotation of less than 30°, or a translation and a rotation of less than 30°.
A seal (200;500), comprising: a first cartridge (210;510) comprising a radially inner wall (212;512) and a radially outer wall (216;516); a second cartridge (220;520) movable relative to and configured to sealingly engage the first cartridge (210;510) comprising a radially inner wall (222;522) and a radially outer wall (226;526); and a spring (230;530) between and contacting the first and second cartridges (210,220;510;520) and configured to bias the first cartridge (210;510) in a first direction and the second cartridge (220;520) in a second direction; wherein the second cartridge (220;520) comprises a gape defined as the distance between the radially inner wall (222;522) and the radially outer wall (226;526) of the second cartridge (220;520), the radially inner wall (212;512) of the first cartridge (210;510) and the radially outer wall (216;516) of the first cartridge (210;510) being located within the gape of the second cartridge (220;520); characterised in that the first cartridge (210;510) comprises a split hoop, and a bridge located within a first slot (340;585) defined in a first end of the split hoop and a second slot (340;585) defined in a second end of the split hoop. a first cartridge (210;510) comprising a radially inner wall (212;512) and a radially outer wall (216;516); a second cartridge (220;520) movable relative to and configured to sealingly engage the first cartridge (210;510) comprising a radially inner wall (222;522) and a radially outer wall (226;526); and a spring (230;530) between and contacting the first and second cartridges (210,220;510;520) and configured to bias the first cartridge (210;510) in a first direction and the second cartridge (220;520) in a second direction; wherein the second cartridge (220;520) comprises a gape defined as the distance between the radially inner wall (222;522) and the radially outer wall (226;526) of the second cartridge (220;520), the radially inner wall (212;512) of the first cartridge (210;510) and the radially outer wall (216;516) of the first cartridge (210;510) being located within the gape of the second cartridge (220;520); characterised in that the first cartridge (210;510) comprises a split hoop, and a bridge located within a first slot (340;585) defined in a first end of the split hoop and a second slot (340;585) defined in a second end of the split hoop.
A luminaire comprising a motion detector, the motion detector comprising: - a motion sensor interface configured to receive a motion signal from a motion sensor, said motion signal being correlated with motion of objects in an environment of the motion sensor, - a processor system configured to: - signal-process the motion signal to obtain multiple motion components, a motion component being correlated with a direction and velocity of a motion in the environment, - cancel in the motion components, two motion components that correspond to motions with opposite directions, - detect motion of objects in the environment from the motion components that are not cancelled, - wherein the luminaire being connectable to a light-emitting element and being configured to control the light-emitting element at least in dependency upon the motion detector. - a motion sensor interface configured to receive a motion signal from a motion sensor, said motion signal being correlated with motion of objects in an environment of the motion sensor, - a processor system configured to: - signal-process the motion signal to obtain multiple motion components, a motion component being correlated with a direction and velocity of a motion in the environment, - cancel in the motion components, two motion components that correspond to motions with opposite directions, - detect motion of objects in the environment from the motion components that are not cancelled, - wherein the luminaire being connectable to a light-emitting element and being configured to control the light-emitting element at least in dependency upon the motion detector. - signal-process the motion signal to obtain multiple motion components, a motion component being correlated with a direction and velocity of a motion in the environment, - cancel in the motion components, two motion components that correspond to motions with opposite directions, - detect motion of objects in the environment from the motion components that are not cancelled, - wherein the luminaire being connectable to a light-emitting element and being configured to control the light-emitting element at least in dependency upon the motion detector.
A method for preparing an organosilicon compound having a ketimine structure, represented by the following formula: wherein each R 1 independently is a C 1 -C 10 alkyl or C 6 -C 10 aryl group, each R 2 independently is a C 1 -C 10 alkyl or C 6 -C 10 aryl group, R 3 and R 4 are each independently hydrogen or a C 1 -C 10 alkyl or C 6 -C 10 aryl group, n is an integer of 1 to 3, and m is an integer of 1 to 12, said method comprising the steps of: reacting an amino-containing organosilicon compound having the following formula with a carbonyl compound having the following formula: wherein R 1, R 2, R 3, R 4, n, and m are as defined above, and reducing a chlorine content, the chlorine content being reduced to less than 0.1 ppm by weight based on the organosilicon compound having formula. reacting an amino-containing organosilicon compound having the following formula with a carbonyl compound having the following formula: wherein R 1, R 2, R 3, R 4, n, and m are as defined above, and reducing a chlorine content,
A sheet processing apparatus, comprising: a pressing unit including a first pressing member (261 a) and a second pressing member, the pressing unit being configured to sandwich and press a fold part of a folded sheet bundle between the first pressing member (261 a) and the second pressing member; and a moving unit configured to move a position pressed by the pressing unit in a direction of a fold of the sheet bundle, wherein a position pressed by the first pressing member on the sheet bundle and another position pressed by the second pressing member on the sheet bundle are shifted with respect to each other in the direction of the fold of the sheet bundle; characterised in that: the pressing unit is configured to, during a forward movement, start pressing on the sheet bundle from a predetermined position in a width direction of the sheet bundle and release the pressing after getting through one end part of the sheet bundle, and the pressing unit is configured to, during a backward movement, start pressing from another position in the width direction before reaching the predetermined position and getting through another end part of the sheet bundle. a pressing unit including a first pressing member (261 a) and a second pressing member, the pressing unit being configured to sandwich and press a fold part of a folded sheet bundle between the first pressing member (261 a) and the second pressing member; and a moving unit configured to move a position pressed by the pressing unit in a direction of a fold of the sheet bundle, wherein a position pressed by the first pressing member on the sheet bundle and another position pressed by the second pressing member on the sheet bundle are shifted with respect to each other in the direction of the fold of the sheet bundle; characterised in that: the pressing unit is configured to, during a forward movement, start pressing on the sheet bundle from a predetermined position in a width direction of the sheet bundle and release the pressing after getting through one end part of the sheet bundle, and the pressing unit is configured to, during a backward movement, start pressing from another position in the width direction before reaching the predetermined position and getting through another end part of the sheet bundle. the pressing unit is configured to, during a forward movement, start pressing on the sheet bundle from a predetermined position in a width direction of the sheet bundle and release the pressing after getting through one end part of the sheet bundle, and the pressing unit is configured to, during a backward movement, start pressing from another position in the width direction before reaching the predetermined position and getting through another end part of the sheet bundle.