mhurhangee/ep-ind-claims huggingface dataset:
A method for solid free form fabrication, the method comprising: dispensing a support material having an intrinsic support material energy damage level at which exposure to a first amount of energy, exceeding the support material energy damage level, alters the support material and an intrinsic support material energy ablation threshold at which a second amount of energy, which is higher than the first amount of energy and exceeds the support material energy ablation threshold, ablates the support material; dispensing an active material having an intrinsic active material energy damage level at which exposure to a third amount of energy, exceeding the active material energy damage level, alters the active material and an intrinsic active material energy ablation threshold at which a fourth amount of energy, which is higher than the third amount of energy and exceeds the active material energy ablation threshold, ablates the active material, the active material energy damage level being higher than the support material energy ablation threshold; the active material and the support material being deposited so as to form a combined material; and exposing the combined material to a processing amount of energy such that the combined material is modified. dispensing a support material having an intrinsic support material energy damage level at which exposure to a first amount of energy, exceeding the support material energy damage level, alters the support material and an intrinsic support material energy ablation threshold at which a second amount of energy, which is higher than the first amount of energy and exceeds the support material energy ablation threshold, ablates the support material; dispensing an active material having an intrinsic active material energy damage level at which exposure to a third amount of energy, exceeding the active material energy damage level, alters the active material and an intrinsic active material energy ablation threshold at which a fourth amount of energy, which is higher than the third amount of energy and exceeds the active material energy ablation threshold, ablates the active material, the active material energy damage level being higher than the support material energy ablation threshold; the active material and the support material being deposited so as to form a combined material; and exposing the combined material to a processing amount of energy such that the combined material is modified.
Actuator device for a gearbox of a motor vehicle, having several switching shafts (9,10,20,21) which can be displaced respectively in a first direction between several selection positions (13,14,15,16,17,18) and in a second direction between several switching positions and which have respectively one connection element (28,29) which in at least one of the selection positions (13,14,15,16,17,18) are in operational connection with at least one gear shift rail (5,6,7,8) of the gearbox for transmitting a movement of the switching shaft (9,10,20,21) in the second direction onto the gear shift rail (5,6,7,8), characterised in that the switching shafts (9,10,20,21) are supported against one another such that they are movable against one another in the first direction and are mutually fixed in the second direction, wherein the selection positions (13,14,15,16,17,18) of the switching shafts (9,10,20,21) can be set independently by means of several first actuating devices (11,12,22,23), and wherein the switching shafts (9,10,20,21) can be displaced by means of a second actuating device together between the switching positions, such that all switching shafts are present always in the same switching position.
A container, comprising: a bottom, side walls (6, 8, 10, 12) extending upwards from an upper side of the bottom, and at least one support plate spaced from a lower side of the bottom, which is connected to the lower side of the bottom via ribs extending transversely to the bottom and transversely to the at least one support plate, characterized in that at least two projections project laterally from at least one edge portion of the support plate extending along one of the side walls (6, 8, 10, 12), and at least two support indentations are formed in the upper edge portion of the at least one side wall (6, 8) for receiving at least two projections of a support plate of an identically constructed container stacked thereon. a bottom, side walls (6, 8, 10, 12) extending upwards from an upper side of the bottom, and at least one support plate spaced from a lower side of the bottom, which is connected to the lower side of the bottom via ribs extending transversely to the bottom and transversely to the at least one support plate, characterized in that at least two projections project laterally from at least one edge portion of the support plate extending along one of the side walls (6, 8, 10, 12), and at least two support indentations are formed in the upper edge portion of the at least one side wall (6, 8) for receiving at least two projections of a support plate of an identically constructed container stacked thereon.
A method of managing a cellular radio network, the method comprising: an access node (100-A; 500; 1000) controlling switching of a further access node (100-B, 100-C; 700; 1000) to an energy saving mode; the access node (100-A; 500; 1000) monitoring energy consumption of the access node (100-A; 500; 1000); the access node (100-A; 500; 1000) receiving a report from the further access node (100-B, 100-C; 700; 1000), the report indicating energy consumption of the further access node (100-B, 100-C; 700; 1000) while the further access node (100-B, 100-C; 700; 1000) was in the energy saving mode; and based on the monitored energy consumption of the access node (100-A; 500; 1000) and the indicated energy consumption of the further access node (100-B, 100-C; 700; 1000), the access node (100-A; 500; 1000) determining energy saving information representing energy saving associated with said switching of the further access node (100-B, 100-C; 700; 1000) to the energy saving mode. an access node (100-A; 500; 1000) controlling switching of a further access node (100-B, 100-C; 700; 1000) to an energy saving mode; the access node (100-A; 500; 1000) monitoring energy consumption of the access node (100-A; 500; 1000); the access node (100-A; 500; 1000) receiving a report from the further access node (100-B, 100-C; 700; 1000), the report indicating energy consumption of the further access node (100-B, 100-C; 700; 1000) while the further access node (100-B, 100-C; 700; 1000) was in the energy saving mode; and based on the monitored energy consumption of the access node (100-A; 500; 1000) and the indicated energy consumption of the further access node (100-B, 100-C; 700; 1000), the access node (100-A; 500; 1000) determining energy saving information representing energy saving associated with said switching of the further access node (100-B, 100-C; 700; 1000) to the energy saving mode.
A system for processing carbonaceous in-feed material, the system comprising; an indirect fired rotary kiln for pyrolysis of the carbonaceous in-feed material, the indirect fired rotary kiln configured to operate in a slow pyrolysis process in which the in-feed material is pyrolysed in a rotating tube in the kiln for a period of minutes in order to produce primarily a gaseous output fraction, wherein the pyrolysing temperature of the indirect fired rotary kiln is in the range 600 degrees Celsius to 950 degrees Celsius; a steam reformer positioned downstream of the kiln to which out-feed gasses from the pyrolyzer kiln are fed; a water scrubber positioned gas flow-wise downstream of the steam reformer a methanation stage connected to the water scrubber, the methanation stage configured to produce a gas-stream; a CO2 scrubbing stage configured to remove carbon dioxide from the gas-stream to generate an off-gas; wherein the system includes means for splitting the off-gas generated by the CO2 scrubbing stage and directing a portion of the split off-gas back to the pyrolyzer kiln. an indirect fired rotary kiln for pyrolysis of the carbonaceous in-feed material, the indirect fired rotary kiln configured to operate in a slow pyrolysis process in which the in-feed material is pyrolysed in a rotating tube in the kiln for a period of minutes in order to produce primarily a gaseous output fraction, wherein the pyrolysing temperature of the indirect fired rotary kiln is in the range 600 degrees Celsius to 950 degrees Celsius; a steam reformer positioned downstream of the kiln to which out-feed gasses from the pyrolyzer kiln are fed; a water scrubber positioned gas flow-wise downstream of the steam reformer a methanation stage connected to the water scrubber, the methanation stage configured to produce a gas-stream; a CO2 scrubbing stage configured to remove carbon dioxide from the gas-stream to generate an off-gas; wherein the system includes means for splitting the off-gas generated by the CO2 scrubbing stage and directing a portion of the split off-gas back to the pyrolyzer kiln.
An aptamer-based electrochemical sensor for detecting a target molecule, comprising an electrode, wherein an aptamer is covalently bonded to or chemisorbed on said electrode, said aptamer forming a complex with said target molecule, characterized in that said complex is encapsulated by a gelatine B matrix.
An ion source for a time-of-flight mass spectrometer comprising: an electron gun configured to emit an electron beam; a push-out electrode, a pull-out electrode and a pull-in electrode that are arranged in this order, wherein the electron beam emitted from the electron gun is introduced into an ion generation area between the push out electrode and the pull out electrode in which ions are to be generated, wherein the push electrode is formed in a cup-like shape, the pull-out electrode has a mesh-like form and holes through which ions are to pass, and the pull-in electrode has a pinhole through which the ions are to pass, and wherein the push-out electrode and the pull-out electrode are formed in a shape having a depression curved in an opposite direction to a travelling direction of the ions; a means configured to initially apply in the ion source, voltages of the same potential to the push-out electrode and the pull-out electrode, this potential being different from the potential of the pull-in electrode and after that a potential difference between each two of the push-out electrode, the pull-out electrode, and the pull-in electrode, so that the ions generated in the ion generation area are pulled toward an acceleration area between the pull out electrode and the pull in electrode by the electrical field formed by the push-out electrode and the pull-out electrode and are accelerated in the acceleration area, and pass through the pull-in electrode so that ions that have different initial location converge temporally and spatially. an electron gun configured to emit an electron beam; a push-out electrode, a pull-out electrode and a pull-in electrode that are arranged in this order, wherein the electron beam emitted from the electron gun is introduced into an ion generation area between the push out electrode and the pull out electrode in which ions are to be generated, wherein the push electrode is formed in a cup-like shape, the pull-out electrode has a mesh-like form and holes through which ions are to pass, and the pull-in electrode has a pinhole through which the ions are to pass, and wherein the push-out electrode and the pull-out electrode are formed in a shape having a depression curved in an opposite direction to a travelling direction of the ions; a means configured to initially apply in the ion source, voltages of the same potential to the push-out electrode and the pull-out electrode, this potential being different from the potential of the pull-in electrode and after that a potential difference between each two of the push-out electrode, the pull-out electrode, and the pull-in electrode, so that the ions generated in the ion generation area are pulled toward an acceleration area between the pull out electrode and the pull in electrode by the electrical field formed by the push-out electrode and the pull-out electrode and are accelerated in the acceleration area, and pass through the pull-in electrode so that ions that have different initial location converge temporally and spatially.
A hair conditioning composition comprising: (a) a cationic surfactant, wherein the cationic surfactant is selected from the group consisting of a mono-long alkyl quaternized ammonium salt; a combination of a mono-long alkyl quaternized ammonium salt and a di-long alkyl quaternized ammonium salt; a mono-long alkyl amine including a mono-long alkyl amidoamine; a combination of mono-long alkyl amine and di-long alkyl quaternized ammonium salt; (b) a high melting point fatty compound having a melting point of 25°C or higher; (c) a monoalkyl glyceryl ether, wherein the monoalkyl glyceryl ether comprises 1-monostearyl glyceryl ether, wherein the total amount of monoalkyl glyceryl ether ranges from 0.5% to 1% by weight of the composition; (d) an aqueous carrier; and wherein the composition further comprises niacinamide, wherein the composition comprises from 1% to 2% of niacinamide, by weight of the composition. (a) a cationic surfactant, wherein the cationic surfactant is selected from the group consisting of a mono-long alkyl quaternized ammonium salt; a combination of a mono-long alkyl quaternized ammonium salt and a di-long alkyl quaternized ammonium salt; a mono-long alkyl amine including a mono-long alkyl amidoamine; a combination of mono-long alkyl amine and di-long alkyl quaternized ammonium salt; (b) a high melting point fatty compound having a melting point of 25°C or higher; (c) a monoalkyl glyceryl ether, wherein the monoalkyl glyceryl ether comprises 1-monostearyl glyceryl ether, wherein the total amount of monoalkyl glyceryl ether ranges from 0.5% to 1% by weight of the composition; (d) an aqueous carrier; and
A method to improve the display management of images, the method comprising: receiving first information data for input video data, the first information data comprising a minimum luminance level, a maximum luminance level, and an average luminance level for the input video data, wherein the average luminance level is received as part of metadata of the input video data; accessing second information data for a target display, the second information data comprising a black point level, a white point level, and a mid-point level for the target display; determining a transfer function to map pixel values of the input video data to corresponding pixel values of output image data using the first and second information data, wherein the transfer function comprises three anchor points, wherein the first anchor point is determined using the minimum luminance level of the input video data and the black point level of the target display, the second anchor point is determined using the maximum luminance level of the input video data and the white point level of the target display, and the third anchor point is determined using the average luminance level for the input video data and the mid-point level of the target display; and mapping the input video data to the output image data using the determined transfer function. receiving first information data for input video data, the first information data comprising a minimum luminance level, a maximum luminance level, and an average luminance level for the input video data, wherein the average luminance level is received as part of metadata of the input video data; accessing second information data for a target display, the second information data comprising a black point level, a white point level, and a mid-point level for the target display; determining a transfer function to map pixel values of the input video data to corresponding pixel values of output image data using the first and second information data, wherein the transfer function comprises three anchor points, wherein the first anchor point is determined using the minimum luminance level of the input video data and the black point level of the target display, the second anchor point is determined using the maximum luminance level of the input video data and the white point level of the target display, and the third anchor point is determined using the average luminance level for the input video data and the mid-point level of the target display; and mapping the input video data to the output image data using the determined transfer function.
An oligonucleotide structure having a structure represented by the following Structural Formula or Structural Formula. Q-(A m -J) n -X-R-Y-B Structural Formula Q-(J-A m) n -X-R-Y-B Structural Formula wherein A is a hydrophilic material monomer, B is a hydrophobic material, J is a linker for connecting between m hydrophilic material monomers, or a linker for connecting between m hydrophilic material monomers with oligonucleotides, X and Y are each independently a simple covalent bond or a linker-mediated covalent bond, R is single-stranded or double-stranded oligonucleotide, m is an integer of 1 to 15, and n is an integer of 1 to 10, Q is (L i -Z j) or P-J 1 -J 2, L is a ligand specifically bonded to a receptor that promotes target cell internalization through receptor-mediated endocytosis, Z is a linker that mediates a simple covalent bond or a bond between the hydrophilic material monomer in a hydrophilic material block and the ligand, i represents an integer from 0 to 5, preferably, an integer of 0 to 3, and j means 0 or 1, provided that when i is 0, j is necessarily 0, P means an amine group or a polyhistidine group, and J 1 and J 2 are independently linkers that mediate a simple covalent bond, or a bond between the amine group or the polyhistidine group with the hydrophilic material. wherein A is a hydrophilic material monomer, B is a hydrophobic material, J is a linker for connecting between m hydrophilic material monomers, or a linker for connecting between m hydrophilic material monomers with oligonucleotides, X and Y are each independently a simple covalent bond or a linker-mediated covalent bond, R is single-stranded or double-stranded oligonucleotide, m is an integer of 1 to 15, and n is an integer of 1 to 10, Q is (L i -Z j) or P-J 1 -J 2, L is a ligand specifically bonded to a receptor that promotes target cell internalization through receptor-mediated endocytosis, Z is a linker that mediates a simple covalent bond or a bond between the hydrophilic material monomer in a hydrophilic material block and the ligand, i represents an integer from 0 to 5, preferably, an integer of 0 to 3, and j means 0 or 1, provided that when i is 0, j is necessarily 0, P means an amine group or a polyhistidine group, and J 1 and J 2 are independently linkers that mediate a simple covalent bond, or a bond between the amine group or the polyhistidine group with the hydrophilic material.
A mandrel (701, 801, 901, 1001, 1101) configured as an internal form for making a tube member of a composite core, the mandrel (701, 801, 901, 1001, 1101) comprising: a body portion (705, 805, 905, 1005, 1105) having an outer surface (707, 807, 907, 1007, 1107), the outer surface (707, 807, 907, 1007, 1107) defining an ultimate shape of a tube member of the composite core, and wherein the outer surface (707, 807, 907, 1007, 1107) of the body portion (705, 805, 905, 1005, 1105) has one of a hexagonal shape, a rectangular shape or a triangular shape; and characterized in a hollow portion (703, 803, 903, 1003, 1103) having a tailored geometric size and geometric shape which define an internal surface of the body portion (705 805, 905, 1005, 1105), the internal surface being arranged such that the mandrel can expand in response to an increase in temperature of the mandrel to exert a relatively constant external pressure on the tube member for a predetermined period during a cure cycle as the temperature increases, and wherein the geometric shape of the hollow portion (703, 803, 903, 1003, 1103) is star shaped or circular. a body portion (705, 805, 905, 1005, 1105) having an outer surface (707, 807, 907, 1007, 1107), the outer surface (707, 807, 907, 1007, 1107) defining an ultimate shape of a tube member of the composite core, and wherein the outer surface (707, 807, 907, 1007, 1107) of the body portion (705, 805, 905, 1005, 1105) has one of a hexagonal shape, a rectangular shape or a triangular shape; and characterized in a hollow portion (703, 803, 903, 1003, 1103) having a tailored geometric size and geometric shape which define an internal surface of the body portion (705 805, 905, 1005, 1105), the internal surface being arranged such that the mandrel can expand in response to an increase in temperature of the mandrel to exert a relatively constant external pressure on the tube member for a predetermined period during a cure cycle as the temperature increases, and wherein the geometric shape of the hollow portion (703, 803, 903, 1003, 1103) is star shaped or circular.
A sanitary installation system, comprising: a) a flushing cistern; b) a mounting frame; and c) a modular functional system, comprising i) a communication device, ii) a power supply device (105, 108), and iii) a first functional module; wherein the cistern or the modular functional system or both are adapted to be supported by the mounting frame; wherein the power supply device (105, 108) is adapted to supply power to the communication device; wherein the communication device is adapted to receive data; wherein the first functional module a. is connected to the communication device in a power-supplying and data-transmitting manner, and b. is designed to at least partially provide a first additional function for a sanitary device, characterised in that the first functional module c. includes a connection for a power-supplying and data-transmitting connection of at least one second functional module, wherein the modular functional system includes at least the second functional module, wherein the second functional module a. is connected to the first function module in a power-supplying and data-transmitting manner, b. is designed to at least partially provide a second additional function for the sanitary device, and c. includes a second connection for a power-supplying and data-transmitting connection of at least a third functional module. a) a flushing cistern; b) a mounting frame; and c) a modular functional system, comprising i) a communication device, ii) a power supply device (105, 108), and iii) a first functional module; i) a communication device, ii) a power supply device (105, 108), and iii) a first functional module; a. is connected to the communication device in a power-supplying and data-transmitting manner, and b. is designed to at least partially provide a first additional function for a sanitary device, characterised in that the first functional module c. includes a connection for a power-supplying and data-transmitting connection of at least one second functional module, a. is connected to the first function module in a power-supplying and data-transmitting manner, b. is designed to at least partially provide a second additional function for the sanitary device, and c. includes a second connection for a power-supplying and data-transmitting connection of at least a third functional module.