mhurhangee/ep-ind-claims huggingface dataset:
A method of preparing a compound represented by the following formula: wherein R 1 is methyl; and R 2 is methyl, the method comprising: a) reacting maytansinol with an N -carboxyanhydride in a reaction mixture additionally comprising a base and a Lewis acid selected from the group consisting of zinc triflate, zinc chloride, magnesium bromide, magnesium triflate, copper triflate, copper bromide, copper chloride, and magnesium chloride, wherein the N-carboxyanhydride is represented by the following formula: thereby forming the compound of Formula (Ia); b) reacting unreacted N -carboxyanhydride from the reaction mixture in step a) with a nucleophilic reagent, which is an alcohol selected from methanol, ethanol, n-propanol, isopropanol and tert-butanol. a) reacting maytansinol with an N -carboxyanhydride in a reaction mixture additionally comprising a base and a Lewis acid selected from the group consisting of zinc triflate, zinc chloride, magnesium bromide, magnesium triflate, copper triflate, copper bromide, copper chloride, and magnesium chloride, wherein the N-carboxyanhydride is represented by the following formula: thereby forming the compound of Formula (Ia); b) reacting unreacted N -carboxyanhydride from the reaction mixture in step a) with a nucleophilic reagent, which is an alcohol selected from methanol, ethanol, n-propanol, isopropanol and tert-butanol.
A vascular implant for implanting into a blood vessel of a patient, the vascular implant comprising a hollow-cylindrical main body with a proximal end and a distal end, a main body lumen and a longitudinal axis, and at least one hollow-cylindrical side body that branches off from the main body and comprises a side body lumen, the side body lumen being in fluid communication with the main body lumen, wherein the hollow-cylindrical main body and the at least one hollow-cylindrical side body are formed in one piece from one single planar sheet of graft material, characterized in that the vascular implant further comprises a dart extending from the distal end of the side body opening in the main body along a portion of the proximal end of the side body.
A cathode material for lithium batteries comprising: a first active component comprising one or more salts of lithium metal phosphate having the general formula Li 1+X M Y PO 4, wherein: - 0.1 ≤ X ≤ 0.2, 0.9 ≤ Y ≤ 1.1; M includes one or more members of iron, titanium, cobalt, chromium, nickel, vanadium and manganese; a binder component; and a second active component, wherein the second active component is formed in that one or more salt(s) of lithium metal phosphate encapsulate(s) one or more lithium transition metal oxide(s). a first active component comprising one or more salts of lithium metal phosphate having the general formula Li 1+X M Y PO 4, wherein: - 0.1 ≤ X ≤ 0.2, 0.9 ≤ Y ≤ 1.1; M includes one or more members of iron, titanium, cobalt, chromium, nickel, vanadium and manganese; a binder component; and a second active component, wherein the second active component is formed in that one or more salt(s) of lithium metal phosphate encapsulate(s) one or more lithium transition metal oxide(s).
A method for use in a medical system, the method comprising: receiving analog signals from one or more components of the medical system over an input/output (I/O) interface; converting the analog signals into digital signals to form processed signals; monitoring a system bus for one or more packets received over a first interface, wherein the one or more packets comprise the processed signals from the one or more components of the medical system; identifying an origin of the one or more packets; monitoring time intervals between the one or more packets to determine a connection status of the one or more components; parsing each of the one or more packets into a packet header and data; inspecting the data for errors; transmitting an indication of the connection status and an indication of errors to a display over a second interface. receiving analog signals from one or more components of the medical system over an input/output (I/O) interface; converting the analog signals into digital signals to form processed signals; monitoring a system bus for one or more packets received over a first interface, wherein the one or more packets comprise the processed signals from the one or more components of the medical system; identifying an origin of the one or more packets; monitoring time intervals between the one or more packets to determine a connection status of the one or more components; parsing each of the one or more packets into a packet header and data; inspecting the data for errors; transmitting an indication of the connection status and an indication of errors to a display over a second interface.
Use, for the preparation of an aqueous dispersion solution for drilling, of a polylactic acid composition of a dispersion structure, the polylactic acid composition using, as a matrix, a lowly crystalline or amorphous polylactic acid having a crystallinity of not more than 40%, the matrix containing, as a pulverization promotor dispersed therein, an organically modified polysaccharide or a lamellar silicate that is swollen or that is treated to be swollen.
Motor junction box comprising a lower part and an upper part, a step being formed in the upper part, the step comprising two plateau surfaces and an end face (20, 22, 43) connecting the plateau surfaces, and openings for cable bushings being formed in the end face of the step, characterised in that an upper edge is formed on the lower part and extends obliquely from a higher end to a lower end, the slope of the upper edge of the lower part and the step in the upper part both having a decreasing height in the same direction.
A pan support (15A, 15B) for a gas stove, comprising a plurality of support fingers for supporting a pan by means of a support surface, wherein at least one support finger comprises a magnet element and a container for receiving the magnet element, wherein the container comprises a bottom for resting on a top sheet of the gas stove, characterised in that Z the container is plugged into the at least one support finger along a height direction (h) thereof, wherein the height direction (h) is oriented from the bottom towards the support surface, and wherein the magnet element rests on the bottom.
A sliding component (100, 200) comprising a substrate (110, 120, 210) and an electrical component; the substrate (110, 120, 210) having a front surface and a rear surface and comprising an electrically-insulating substrate portion (130, 530) extending through a metallic substrate portion (110, 120), and an electrical connector extending through the electrically-insulating portion (130, 530) between the front surface and the rear surface; wherein the electrical component being arranged at the front surface of the substrate (110, 120, 210) and electrically connected to the connector, wherein the substrate (110, 120, 210) comprises a groove which extends over a portion of the front surface and coincides with the electrically-insulating substrate portion (130, 530), such that the electrically-insulating substrate portion (130, 530) extends between the groove and the rear surface of the substrate (110, 120, 210), the substrate (110, 120, 210) is semi-cylindrical, and in which the groove is arranged to extend circumferentially around a portion of the substrate (110, 120, 210); characterised in that, the angular position of the groove on the substrate (110, 120, 210) is such that a first end of the groove is at least 8 degrees, or at least 10 degrees, or at least 15 degrees away from a first joint face of the sliding component (100, 200) and a second end of the groove is less than 80 degrees, or less than 70 degrees, or less than 60 degrees away from the first joint face. the substrate (110, 120, 210) having a front surface and a rear surface and comprising an electrically-insulating substrate portion (130, 530) extending through a metallic substrate portion (110, 120), and an electrical connector extending through the electrically-insulating portion (130, 530) between the front surface and the rear surface; wherein the electrical component being arranged at the front surface of the substrate (110, 120, 210) and electrically connected to the connector, wherein the substrate (110, 120, 210) comprises a groove which extends over a portion of the front surface and coincides with the electrically-insulating substrate portion (130, 530), such that the electrically-insulating substrate portion (130, 530) extends between the groove and the rear surface of the substrate (110, 120, 210), the substrate (110, 120, 210) is semi-cylindrical, and in which the groove is arranged to extend circumferentially around a portion of the substrate (110, 120, 210); characterised in that, the angular position of the groove on the substrate (110, 120, 210) is such that a first end of the groove is at least 8 degrees, or at least 10 degrees, or at least 15 degrees away from a first joint face of the sliding component (100, 200) and a second end of the groove is less than 80 degrees, or less than 70 degrees, or less than 60 degrees away from the first joint face.
A method for centralised management of a set of network nodes, characterized in that the method comprises supporting, in a centralised management entity (410, 700, 901), operations of at least one predefined management interface, wherein said predefined management interface is specific to said centralised management entity, implementing, at least partially, at least one of said predefined management interfaces in the network nodes (401-403, 800, 902) of said set, providing, to the centralised management entity, information about a management interface implementation of certain network node, examining (511, 611) in the centralised management entity said information so that operations implemented in the management interface implementation of said certain network node are discovered, and controlling (5-12 - 5-15, 6-12, 6-13), via said centralised management entity, said certain network node via said discovered operations of the management interface implementation relating to said node.
A heating device that includes a heater configured to heat an item to be heated, a temperature detection unit configured to detect a temperature of the item to be heated, and a temperature adjustment unit configured to control the heater on the basis of a detected value of the temperature detection unit and a target temperature so that the temperature of the item to be heated reaches the target temperature, the heating device comprising: a system gain change rate calculation unit configured to obtain a temperature increase value of the item to be heated from the detected value of the temperature detection unit, obtain a system gain, which is a ratio of the temperature increase value of the item to be heated with respect to electric power inputted to the heater, and obtain, as a system gain change rate, a rate of change from an initial value of the system gain; a heater resistance value change rate calculation unit configured to obtain a resistance value of the heater from a voltage and a current applied to the heater and obtain, as a heater resistance value change rate "c", a rate of change from an initial value of the resistance value; a heater voltage change rate calculation unit configured to obtain, as a heater voltage change rate "b", a rate of change from an initial value of a voltage applied to the heater; and a heat-retaining property change rate calculation unit configured to obtain a rate of change rate "a" in heat-retaining properties of the item to be heated from the system gain change rate "d", the heater resistance value change rate "c", and the heater voltage change rate "b", wherein the rate of change "a" in heat-retaining properties is obtained using the following equation: a=cd/b 2. a system gain change rate calculation unit configured to obtain a temperature increase value of the item to be heated from the detected value of the temperature detection unit, obtain a system gain, which is a ratio of the temperature increase value of the item to be heated with respect to electric power inputted to the heater, and obtain, as a system gain change rate, a rate of change from an initial value of the system gain; a heater resistance value change rate calculation unit configured to obtain a resistance value of the heater from a voltage and a current applied to the heater and obtain, as a heater resistance value change rate "c", a rate of change from an initial value of the resistance value; a heater voltage change rate calculation unit configured to obtain, as a heater voltage change rate "b", a rate of change from an initial value of a voltage applied to the heater; and a heat-retaining property change rate calculation unit configured to obtain a rate of change rate "a" in heat-retaining properties of the item to be heated from the system gain change rate "d", the heater resistance value change rate "c", and the heater voltage change rate "b", wherein the rate of change "a" in heat-retaining properties is obtained using the following equation: a=cd/b 2.
An acetabular cup (200; 230) having a convex outer surface (202; 232) and a concave inner surface (204; 234), the cup having a lip which defines a rim in a peripheral region and which extends between the outer and inner surfaces, in which the inner surface has: (a) a spherical cap portion (206; 236) having a centre of curvature (210; 240), and (b) a toroidal portion (212; 242) defined by the outer surface of a torus defined by the rotation of two circles (214, 216; 244, 246), having respective centres (218, 220; 248, 250), in which the lip of the cup extends between the convex outer surface and the toroidal portion of the inner surface, characterised in that the centre (210; 240) of curvature of the spherical cap portio (206; 236) is located between the inner surface of the cup and an axis (222; 232) which is defined by the centres (218, 220; 248, 250) of the circles which define the torus when the circles are rotated. (a) a spherical cap portion (206; 236) having a centre of curvature (210; 240), and (b) a toroidal portion (212; 242) defined by the outer surface of a torus defined by the rotation of two circles (214, 216; 244, 246), having respective centres (218, 220; 248, 250),
Method for the production of a binder, comprising the following steps: a) providing a starting material made from raw materials that has a Ca/Si molar ratio of 1.5 to 2.5, in the determination of which the components that act in an inert manner during the hydrothermal treatment in the autoclave remain unconsidered, b) mixing the raw materials, c) hydrothermal treatment of the starting material mixture produced in step b) in the autoclave at a temperature of 100 to 300°C and a retention time of 0.1 to 24h, wherein the water/solids proportion is 0.1 to 100, d) annealing the intermediate product obtained in step c) at 350 to 495°C, wherein the heating rate is 10 - 6000 °C/min and the retention time is 0.01 - 600 minutes, characterised in that, during the mixing b) and/or in the following steps, 0.1 to 30% b.w. of additional elements and/or oxides are added. a) providing a starting material made from raw materials that has a Ca/Si molar ratio of 1.5 to 2.5, in the determination of which the components that act in an inert manner during the hydrothermal treatment in the autoclave remain unconsidered, b) mixing the raw materials, c) hydrothermal treatment of the starting material mixture produced in step b) in the autoclave at a temperature of 100 to 300°C and a retention time of 0.1 to 24h, wherein the water/solids proportion is 0.1 to 100, d) annealing the intermediate product obtained in step c) at 350 to 495°C, wherein the heating rate is 10 - 6000 °C/min and the retention time is 0.01 - 600 minutes, characterised in that, during the mixing b) and/or in the following steps, 0.1 to 30% b.w. of additional elements and/or oxides are added.
Washing machine for a railway vehicle, characterised in that it includes: - a water texturing system, mixing appropriate particles with water to produce textured water having super-hydrophoby properties; - a textured water spraying system, fed by the water texturing system and using at least one appropriate spraying device to spray the textured water on a surface of a railway vehicle to be cleaned. - a water texturing system, mixing appropriate particles with water to produce textured water having super-hydrophoby properties; - a textured water spraying system, fed by the water texturing system and using at least one appropriate spraying device to spray the textured water on a surface of a railway vehicle to be cleaned.
Use of fastening parts (4, 14) for attaching planks (1, 11, 2) to a substructure, whereby each fastening part (4, 14) has a connecting web (4.2, 14.2), a bottom part (4.3, 14.3), and a stop ridge (4.1) protruding from the connecting web on both sides, whereby: - the connecting web (4.2, 14.2) extends into a gap between adjacent planks (1, 11, 2), - the bottom part (4.3, 14.3) extends into a gap between adjacent planks (1, 11, 2) on the one side and the substructure on the other, - the stop ridge (4.1) extends into a respective groove (1.1, 2.1) on the mutually facing longitudinal side faces of the adjacent planks (1, 2) - whereby each fastening part (4, 14) is anchored at the substructure by means of a screw which passes through the connecting web (4.2, 14.2) in the gap between the adjacent planks (1, 11, 2) and which is in threaded engagement with the substructure, characterised in that - a connection point is located between a fastening part (4, 14) and one of the two planks (1, 11, 2) on which the fastening part (4, 14) abuts with the underside of said plank whereby - relative movement between the plank (1, 11) and the fastening part (4, 14) is blocked at this connection point parallel to the ground plane and transversely to the longitudinal direction of the plank (1, 11) - whereby there is no connecting point between said fastening part (4, 14) and the other of the two planks (1, 11, 2) on the underside of said plank. - the connecting web (4.2, 14.2) extends into a gap between adjacent planks (1, 11, 2), - the bottom part (4.3, 14.3) extends into a gap between adjacent planks (1, 11, 2) on the one side and the substructure on the other, - the stop ridge (4.1) extends into a respective groove (1.1, 2.1) on the mutually facing longitudinal side faces of the adjacent planks (1, 2) - whereby each fastening part (4, 14) is anchored at the substructure by means of a screw which passes through the connecting web (4.2, 14.2) in the gap between the adjacent planks (1, 11, 2) and which is in threaded engagement with the substructure, - a connection point is located between a fastening part (4, 14) and one of the two planks (1, 11, 2) on which the fastening part (4, 14) abuts with the underside of said plank whereby - relative movement between the plank (1, 11) and the fastening part (4, 14) is blocked at this connection point parallel to the ground plane and transversely to the longitudinal direction of the plank (1, 11) - whereby there is no connecting point between said fastening part (4, 14) and the other of the two planks (1, 11, 2) on the underside of said plank.
Portion capsule for producing a beverage, having a capsule body with a capsule base and a cover, wherein a cavity in which a particulate beverage or foodstuff base is provided is located between the capsule base and the cover, said beverage or foodstuff base comprising a carrier substance, specifically coffee powder, and a soluble component, specifically instant coffee, characterized in that the Dv 50 of the carrier substance is 375 - 575 μm and is greater than the Dv 50 of the soluble component.
A navigation system for dental and cranio-maxillofacial surgery, comprising: - a surgical handpiece, - an imaging unit which is movably attached to the surgical handpiece, and - a marker member (6; 44, 46) which is attachable to a cranial bone, a facial bone, a tooth or teeth of a patient, wherein the marker member (6; 44, 46) comprises a plurality of marker elements (8, 10; 46) which are detectable by the imaging unit, characterised in that the navigation system further comprises a sensor and/or detector unit for sensing or detecting the position of the imaging unit relative to the surgical handpiece. - a surgical handpiece, - an imaging unit which is movably attached to the surgical handpiece, and - a marker member (6; 44, 46) which is attachable to a cranial bone, a facial bone, a tooth or teeth of a patient, wherein
A bottom element for an additive manufacturing system, in particular for a 3D printer, the bottom element comprising at least one funnel, wherein at least one sieve is arranged in the area of the funnel, characterized in that a plate element is arranged opposite the sieve on the funnel, which is arranged on the funnel by means of one or more struts in such a way that it covers a part of the funnel inlet.
A gas barrier film, comprising: an organic-inorganic hybrid coating layer; an inorganic layer; and a protective coating layer including inorganic nano particles surface-modified with organic silane, which are sequentially stacked on one or both surface of a base, wherein the protective coating layer including inorganic nano particles surface-treated with organic silane is manufactured by mixing a sol-type hydrolyzing solution including organic silane and a solution including inorganic nano particles surface-treated with organic silane, and coating the mixed solution on the inorganic layer, wherein the organic silane in the sol-type hydrolyzing solution is used in an amount of 5 to 35 parts by weight with respect to 100 parts by weight of the total sol-type hydrolyzing solution, and wherein the organic silane in the solution including surface-modified inorganic nano particles is used in an amount of 10 to 500 parts by weight with respect to 100 parts by weight of the inorganic nano particles. an organic-inorganic hybrid coating layer; an inorganic layer; and a protective coating layer including inorganic nano particles surface-modified with organic silane, which are sequentially stacked on one or both surface of a base, wherein the protective coating layer including inorganic nano particles surface-treated with organic silane is manufactured by mixing a sol-type hydrolyzing solution including organic silane and a solution including inorganic nano particles surface-treated with organic silane, and coating the mixed solution on the inorganic layer, wherein the organic silane in the sol-type hydrolyzing solution is used in an amount of 5 to 35 parts by weight with respect to 100 parts by weight of the total sol-type hydrolyzing solution, and wherein the organic silane in the solution including surface-modified inorganic nano particles is used in an amount of 10 to 500 parts by weight with respect to 100 parts by weight of the inorganic nano particles.