mhurhangee/ep-ind-claims huggingface dataset:
A multi-color ink set for 3D printing comprising a first ink composition and a second ink composition, wherein: the first ink composition comprises: at least one photocurable material; a photoinitiator suitable for curing the photocurable material; a first colorant; and an anti-intercolor bleed agent; the second ink composition comprises: at least one photocurable material; a photoinitiator suitable for curing the photocurable material; and a second colorant; wherein the anti-intercolor bleed agent is reactable with the second colorant to prevent intercolor bleeding occurring when the first and second ink compositions come into contact with each other during 3D printing and before curing, wherein the second colorant comprises an acid moiety capable of reacting with the anti-intercolor bleed agent to cause aggregation and wherein the anti-intercolor bleed agent is a cycloamine compound selected from a pyrrole derivative, a pyridine derivative, a quinoline derivative, an isoquinoline derivative, a pyrrolidine derivative, or a piperidine derivative, and wherein the derivative is one in which a hydrogen is substituted with a hydroxyl group, a substituted or unsubstituted C1-C15 alkylene group, a substituted or unsubstituted heteroalkylene group, a substituted or unsubstituted arylene group, a substituted or unsubstituted heteroarylene group, a halogen atom, an amino group, or a nitro group. the first ink composition comprises: at least one photocurable material; a photoinitiator suitable for curing the photocurable material; a first colorant; and an anti-intercolor bleed agent; at least one photocurable material; a photoinitiator suitable for curing the photocurable material; a first colorant; and an anti-intercolor bleed agent; the second ink composition comprises: at least one photocurable material; a photoinitiator suitable for curing the photocurable material; and a second colorant; at least one photocurable material; a photoinitiator suitable for curing the photocurable material; and a second colorant; wherein the anti-intercolor bleed agent is reactable with the second colorant to prevent intercolor bleeding occurring when the first and second ink compositions come into contact with each other during 3D printing and before curing, wherein the second colorant comprises an acid moiety capable of reacting with the anti-intercolor bleed agent to cause aggregation and wherein the anti-intercolor bleed agent is a cycloamine compound selected from a pyrrole derivative, a pyridine derivative, a quinoline derivative, an isoquinoline derivative, a pyrrolidine derivative, or a piperidine derivative, and wherein the derivative is one in which a hydrogen is substituted with a hydroxyl group, a substituted or unsubstituted C1-C15 alkylene group, a substituted or unsubstituted heteroalkylene group, a substituted or unsubstituted arylene group, a substituted or unsubstituted heteroarylene group, a halogen atom, an amino group, or a nitro group.
A process for producing water-absorbing polymer particles by polymerizing droplets of a monomer solution comprising a) at least one water-soluble ethylenically unsaturated monomer, where the solubility of the monomer in water at 23°C is at least 1 g/100 g of water, b) if desired, a crosslinker, c) at least one initiator, d) at least one further initiator and e) water, where the monomer solution is dropletized or sprayed in the gas phase, wherein the initiator c) is a peroxide with the exception of persulfate, the initiator d) is an azo compound and/or a photoinitiator and/or a redox initiator, and the molar ratio of initiator c) to initiator d) is at least 1:8. a) at least one water-soluble ethylenically unsaturated monomer, where the solubility of the monomer in water at 23°C is at least 1 g/100 g of water, b) if desired, a crosslinker, c) at least one initiator, d) at least one further initiator and e) water, where the monomer solution is dropletized or sprayed in the gas phase, wherein the initiator c) is a peroxide with the exception of persulfate, the initiator d) is an azo compound and/or a photoinitiator and/or a redox initiator, and the molar ratio of initiator c) to initiator d) is at least 1:8.
A photovoltaic module that comprises: a support substrate; a front substrate; and an encapsulant that encapsulates a photoelectric transformation element between the support substrate and the front substrate, and that comprises a silicone resin which comprises an aryl group bound to a silicon atom and of which a molar ratio of the aryl group with respect to the total silicon atoms in the silicone resin is greater than 0.3 wherein the silicone resin is represented by an average composition formula of Formula 1: [Formula 1] (R 3 SiO 1/2) a (R 2 SiO 2/2) b (RSiO 3/2) c (SiO 4/2) d wherein R's are substituents directly bound to the silicon atoms, and independently represent hydrogen, a hydroxy group, an epoxy group, an acryloyl group, a methacryloyl group, an isocyanate group, an alkoxy group, an alkyl group, an alkenyl group or an aryl group, with the provision that at least one of the R's represents the aryl group; a is between 0 and 0.6, b is between 0 and 0.95, c is between 0 and 0.8, and d is between 0 and 0.4, with the provision that a+b+c+d is 1, wherein the silicone resin represented by the average composition formula of Formula 1 comprises a siloxane unit of the following Formula 6: [Formula 6] (C 6 H 5)SiO 3/2. a support substrate; a front substrate; and an encapsulant that encapsulates a photoelectric transformation element between the support substrate and the front substrate, and that comprises a silicone resin which comprises an aryl group bound to a silicon atom and of which a molar ratio of the aryl group with respect to the total silicon atoms in the silicone resin is greater than 0.3 wherein the silicone resin is represented by an average composition formula of Formula 1: [Formula 1] (R 3 SiO 1/2) a (R 2 SiO 2/2) b (RSiO 3/2) c (SiO 4/2) d wherein R's are substituents directly bound to the silicon atoms, and independently represent hydrogen, a hydroxy group, an epoxy group, an acryloyl group, a methacryloyl group, an isocyanate group, an alkoxy group, an alkyl group, an alkenyl group or an aryl group, with the provision that at least one of the R's represents the aryl group; a is between 0 and 0.6, b is between 0 and 0.95, c is between 0 and 0.8, and d is between 0 and 0.4, with the provision that a+b+c+d is 1, wherein the silicone resin represented by the average composition formula of Formula 1 comprises a siloxane unit of the following Formula 6: [Formula 6] (C 6 H 5)SiO 3/2.
An identification method for hematopoietic stem cells, wherein a hematopoietic stem cell identification probe comprising at least one or more compounds selected from the group consisting of compounds represented by the following general formula is provided to a cell population and hematopoietic stem cells contained in the cell population are identified based on fluorescence of the hematopoietic stem cell identification probe in cells having low incorporation of the hematopoietic stem cell identification probe, wherein R 1 represents a hydrogen atom, an alkyl group, an aralkyl group, an alkenyl group, an aryl group or a hetero ring group; R 2 to R 5 each independently represent a hydrogen atom or an alkyl group, with R 2 and R 4 optionally bound to each other for forming a ring; R 6 represents a hydrogen atom, an alkyl group, an alkoxy group or a halogen atom; R 7 represents an alkyl group or a carboxyalkyl group, in which -CH 2 -CH 2 - of a carbon chain is optionally substituted with -CONH-; and R 8 represents a sulfur atom or a group represented by the general formula: wherein a sign * represents a binding site to the general formula and R 13 represents an alkyl group, an aralkyl group, an allyl group or a carboxyalkyl group.
A method performed by a processor of a user equipment, UE, for performing a random access, RA, procedure in a multi-carrier network, wherein the multi-carrier network includes a plurality of carrier groups associated with a base station and the UE, wherein each carrier group includes one or more downlink carriers and one or more uplink carriers, the method comprising: receiving, by the UE, a set of RA parameters for each of the plurality of carrier groups assigned to the UE, wherein each of the plurality of carrier groups are groups of carriers having a similar propagation metric including an expected path loss and a propagation delay; receiving, by the UE, an order on any of the active downlink carriers in a particular carrier group of the plurality of carrier groups, which instructs the UE to transmit an RA preamble signal, determining a transmit power based on a path loss estimation performed on a downlink carrier in the particular carrier group; transmitting, by the UE, the RA preamble signal on at least one uplink carrier in the particular carrier group using the corresponding set of RA parameters for the particular carrier group, and the determined transmit power; and receiving, by the UE, an RA response signal, wherein the RA response signal corresponds to the RA preamble signal, and wherein the RA response signal is received on a downlink carrier that indicated the uplink RA resource used for transmitting the RA preamble signal. receiving, by the UE, a set of RA parameters for each of the plurality of carrier groups assigned to the UE, wherein each of the plurality of carrier groups are groups of carriers having a similar propagation metric including an expected path loss and a propagation delay; receiving, by the UE, an order on any of the active downlink carriers in a particular carrier group of the plurality of carrier groups, which instructs the UE to transmit an RA preamble signal, determining a transmit power based on a path loss estimation performed on a downlink carrier in the particular carrier group; transmitting, by the UE, the RA preamble signal on at least one uplink carrier in the particular carrier group using the corresponding set of RA parameters for the particular carrier group, and the determined transmit power; and receiving, by the UE, an RA response signal, wherein the RA response signal corresponds to the RA preamble signal, and wherein the RA response signal is received on a downlink carrier that indicated the uplink RA resource used for transmitting the RA preamble signal.
A fluidized bed reaction chamber, comprising: a tubular waterwall structure, the tubular waterwall structure comprising multiple vertically extending tubular waterwalls (12, 14, 16) defining the fluidized bed reaction chamber, the tubular waterwalls (12, 14, 16) comprising a first wall portion (12, 14) that is a portion of a rear wall or a front wall and a second wall portion that is a side wall, wherein: the first wall portion (12, 14) and the second wall portion are horizontally adjacent forming a corner structure (50, 60) and are constituted by vertical tubes (52, 52', 46) interconnected by fins centrally attached to the tubes (52, 52', 46) and having a first width; the fluidized bed reaction chamber characterized in that: (i) the first wall portion (12, 14) has an outermost tube next to the corner structure (50, 60), an upper portion defining an upper vertical plane in an upper level range (A-A) and a lower portion defining a lower vertical plane in a lower level range (B-B), the lower portion having a refractory lining and each of the tubes (52, 56) of the first wall portion (12, 14) being bent in an intermediate level region between the upper level range (A-A) and the lower level range (B-B) so that the lower vertical plane is shifted outwards from the upper vertical plane, (ii) the second wall portion is vertical and has an outermost tube next to the corner, the tubes (46, 52', 58) of the second wall portion having no thermally insulating refractory lining at the lower level range (B-B), and (iii) the outermost tube of the second wall portion is in the lower level range (B-B) connected to the outermost tube of the first wall portion (12, 14) by a planar lower beveled corner fin having a refractory lining and a width that is larger than the first width. (i) the first wall portion (12, 14) has an outermost tube next to the corner structure (50, 60), an upper portion defining an upper vertical plane in an upper level range (A-A) and a lower portion defining a lower vertical plane in a lower level range (B-B), the lower portion having a refractory lining and each of the tubes (52, 56) of the first wall portion (12, 14) being bent in an intermediate level region between the upper level range (A-A) and the lower level range (B-B) so that the lower vertical plane is shifted outwards from the upper vertical plane, (ii) the second wall portion is vertical and has an outermost tube next to the corner, the tubes (46, 52', 58) of the second wall portion having no thermally insulating refractory lining at the lower level range (B-B), and (iii) the outermost tube of the second wall portion is in the lower level range (B-B) connected to the outermost tube of the first wall portion (12, 14) by a planar lower beveled corner fin having a refractory lining and a width that is larger than the first width.
Device for separating magnetisable parts from bulkable or free-flowing material, wherein the device has a chamber with an inlet for particle-loaded material, and an outlet for the cleaned material, and in the chamber a magnetic component is arranged for filtering the magnetisable parts, and the magnetic component can be set in vibration by a vibration drive to prevent the passageway through the device from being clogged, wherein the occurring accelerations are chosen such that magnetisable parts already adhering to the magnetic component are not torn off, the chamber is surrounded by a housing, and the housing has an opening for inserting the magnetic component, the magnetic component is arranged at or in the housing, can be connected sealingly with the housing and be dismantled for cleaning purposes, wherein the magnetic component as grid is arranged in a frame with grid bars, or the grid bars are supported on one side only, so that a comb like design of the magnetic component results, wherein the grid bars (40, 40') consist of magnetisable material, or the grid bars (40, 40') consist of a material that is as unmagnetisable as possible or only slightly magnetisable, and in the grid bar a magnet insert that can be removed for cleaning, if required, can be inserted, and when the magnet insert has been removed from the grid bar it permits an easy separation of the particles from the grid bar.
Air-permeable closure element for closed units comprising a filter disk, a covering element covering the filter disk and a seal composed of an elastomer, wherein the covering element has an opening which is closed on one side by a cover side and which forms an inner face of the covering element, wherein the covering element consists of a hydrophobic material and the filter disk is arranged separately from the seal, in that the inner face of the covering element together with the outer face thereof forms an edge, in that the filter disk is connected peripherally to the edge at a distance from the cover side, forming a compensating space, characterized in that the filter disk is connected to the covering element, in that in the covering element a compensating opening is incorporated, which extends from the compensating space toward the outer face and in that the seal is arranged on the edge.
An apparatus (6102; 6127) for cutting into mammalian bone, the apparatus comprising a frame (6120; 6139) having a space within and an outside region without, a top portion and a bottom portion, the top portion including a plurality of cutting elements (6107,6108; 6130,6131) disposed within the frame and a drive member (6105; 6137) externally accessible from outside of the frame, the drive member operably coupled to drive the cutting elements; characterised by at least one guide element (6103; 6129) operably coupled to the top portion, wherein the at least one guide element is adapted to be slidably received in a guide surface in a bone.
Disinfectant concentrate for the preparation of a disinfectant for the disinfection of inanimate surfaces, characterized in that the disinfectant concentrate consists of - 15-45% by weight of at least two organic acids selected from acetic acid, propionic acid, lactic acid or a combination thereof, - 6-13% by weight sodium benzoate, - auxiliaries comprising solubilizers selected from propylene glycol, monoethylene glycol, butylcarbitol, hexylcarbitol or a combination of propylene glycol and hexylcarbitol, and - water, where the components add up to 100 % by weight and wherein the disinfectant concentrate contains the following combinations of organic acids as the antimicrobial active ingredient, with no other organic acids being present: Combination A: Propionic acid, lactic acid, sodium benzoate, Combination D: Acetic acid, lactic acid, sodium benzoate, Combination E: Propionic acid, lactic acid, acetic acid, sodium benzoate. the disinfectant concentrate consists of - 15-45% by weight of at least two organic acids selected from acetic acid, propionic acid, lactic acid or a combination thereof, - 6-13% by weight sodium benzoate, - auxiliaries comprising solubilizers selected from propylene glycol, monoethylene glycol, butylcarbitol, hexylcarbitol or a combination of propylene glycol and hexylcarbitol, and - water, - 15-45% by weight of at least two organic acids selected from acetic acid, propionic acid, lactic acid or a combination thereof, - 6-13% by weight sodium benzoate, - auxiliaries comprising solubilizers selected from propylene glycol, monoethylene glycol, butylcarbitol, hexylcarbitol or a combination of propylene glycol and hexylcarbitol, and - water, where the components add up to 100 % by weight and wherein the disinfectant concentrate contains the following combinations of organic acids as the antimicrobial active ingredient, with no other organic acids being present: Combination A: Propionic acid, lactic acid, sodium benzoate, Combination D: Acetic acid, lactic acid, sodium benzoate, Combination E: Propionic acid, lactic acid, acetic acid, sodium benzoate. Combination A: Propionic acid, lactic acid, sodium benzoate, Combination D: Acetic acid, lactic acid, sodium benzoate, Combination E: Propionic acid, lactic acid, acetic acid, sodium benzoate.
A method for producing a conductive pattern comprising applying a resin composition for forming a receiving layer onto part of or an entire surface of a support, the resin composition containing a urethane resin having an alicyclic structure in an amount of 2,000 to 5,500 mmol/kg relative to the total amount of the urethane resin, and a hydrophilic group, a vinyl polymer, and an aqueous medium, and drying the resin composition for forming a receiving layer under a condition in which the resin composition does not undergo a cross-linking reaction to form a receiving layer for receiving a fluid containing a conductive substance; then performing printing on a surface of the receiving layer with the fluid to form a printed portion composed of the conductive substance contained in the fluid; then heating the receiving layer, on which the printing has been performed, to form a cross-linked structure; and then plating the printed portion formed on the surface of the receiving layer to produce a conductive pattern.
A vectored data communication method, comprising: determining error information (e) based on received predefined training signals, and determining noise information (n) characterizing temporary noise including impulse noise affecting said error information (e), wherein said noise information (n) is to identify an error signal as being likely to be corrupted, and transmitting said error information (e) as said error signal and said noise information (n). determining error information (e) based on received predefined training signals, and determining noise information (n) characterizing temporary noise including impulse noise affecting said error information (e), wherein said noise information (n) is to identify an error signal as being likely to be corrupted, and transmitting said error information (e) as said error signal and said noise information (n).
A process for modifying a layered double hydroxide, the process comprising, a. providing a material comprising a layered double hydroxide of formula: [M z+ 1-x M' y+ x 2] q+ (X n-) q/n.bH 2 O wherein M and M' are metal cations, z is 1 or 2, x is 0.1 to 1, b is 0 to 5, y is 3 or 4, X is an anion, n is 1 to 3 and q is determined by x, y and z, b. optionally washing the material at least once with a mixture of water and a mixing solvent miscible with water, c. washing the material obtained in step a or b at least once with at least one first solvent, the first solvent being miscible with water and having a solvent polarity P' in the range of 3.8 to 9 to obtain a modified layered double hydroxide, and d. dispersing the modified layered double hydroxide obtained in step c in a second, hydrocarbon solvent to form a hydrocarbon-dispersed layered double hydroxide. a. providing a material comprising a layered double hydroxide of formula: [M z+ 1-x M' y+ x 2] q+ (X n-) q/n.bH 2 O wherein M and M' are metal cations, z is 1 or 2, x is 0.1 to 1, b is 0 to 5, y is 3 or 4, X is an anion, n is 1 to 3 and q is determined by x, y and z, b. optionally washing the material at least once with a mixture of water and a mixing solvent miscible with water, c. washing the material obtained in step a or b at least once with at least one first solvent, the first solvent being miscible with water and having a solvent polarity P' in the range of 3.8 to 9 to obtain a modified layered double hydroxide, and d. dispersing the modified layered double hydroxide obtained in step c in a second, hydrocarbon solvent to form a hydrocarbon-dispersed layered double hydroxide.
A method of streaming a first and a second encoded video stream, each of the streams being an independent representation of a common source encoded at a different resolution from the other stream, and wherein each stream is encoded as a series of pictures predictively encoded in dependence on the previous pictures in the stream, the method including generating linking pictures (221, 222, 231, 232, 241, 242), being pictures of the second stream predictively encoded in dependence on previous pictures in the first stream, whereby a receiver (40, 50, 60) receiving the first stream may then receive a linking picture (221, 222, 231, 232, 241, 242) followed by pictures of the second stream, each linking picture (221, 222, 231, 232, 241, 242) being coded by (a) quantising the picture that is to be coded; (b) quantising the picture that is to be used as prediction; (c) subtracting the quantised prediction from the quantised picture to be coded to obtain a prediction error signal that is transmitted without further quantisation; wherein pictures interspersed at predetermined points in the second data stream contemporary with the linking pictures (221, 222, 231, 232, 241, 242) are access pictures (216a, 217a, 216b, 217b) to which is applied a quantisation that matches that applied to the corresponding linking picture (221, 222, 231, 232, 241, 242), such that a receiver (40, 50, 60) can reconstruct a linking picture (221 222, 231, 232, 241, 242) identically to the simultaneous access picture (216a, 217a, 216b, 217b); characterised by testing an access picture (216a, 217a, 216b, 217b) to identify any area of the picture (216a, 217a, 216b, 217b) for which the prediction is a good representation such that no data needs to be transmitted and, in respect of such area, setting said quantisations in the access picture (216a, 217a, 216b, 217b) and in the associated linking picture (221, 222, 231, 232, 241, 242) to a finer quantisation and, in respect of such identified area of an access picture (216a, 217a, 216b, 217b), setting any prediction error to zero. (a) quantising the picture that is to be coded; (b) quantising the picture that is to be used as prediction; (c) subtracting the quantised prediction from the quantised picture to be coded to obtain a prediction error signal that is transmitted without further quantisation;