mhurhangee/ep-ind-claims huggingface dataset:
An autonomous vehicle, such as an automated guided vehicle or an autonomous mobile robot, comprising: - a support structure, - a plurality of wheels on which said support structure is carried, - at least one electric motor carried by the support structure, for actuating at least one of said wheels, and - one or more electronic control circuits carried by the support structure, said vehicle being characterized in that: - the support structure has a general double-hull configuration, with two separate hulls (3R, 3L), parallel to each other and transversely spaced apart, and at least two bridge structures (C1, C2, L1, L2; G1, G2) which connect said hulls (3R, 3L) to each other, - said plurality of wheels comprises two front wheels and two rear wheels located near the front and rear ends of the two hulls (3R, 3L), and - said at least two bridge structures (C1, C2, L1, L2; G1, G2) have ends connected to the two hulls by interposition of elastic joints (E1, E2, E3), - in such a way that the two hulls (3R, 3L) are free to perform differentiated oscillating movements so as to allow the two front wheels and the two rear wheels to remain in contact with said surface on which the vehicle moves, even when this surface has irregularities and/or slope variations. - a support structure, - a plurality of wheels on which said support structure is carried, - at least one electric motor carried by the support structure, for actuating at least one of said wheels, and - one or more electronic control circuits carried by the support structure, - the support structure has a general double-hull configuration, with two separate hulls (3R, 3L), parallel to each other and transversely spaced apart, and at least two bridge structures (C1, C2, L1, L2; G1, G2) which connect said hulls (3R, 3L) to each other, - said plurality of wheels comprises two front wheels and two rear wheels located near the front and rear ends of the two hulls (3R, 3L), and - said at least two bridge structures (C1, C2, L1, L2; G1, G2) have ends connected to the two hulls by interposition of elastic joints (E1, E2, E3), - in such a way that the two hulls (3R, 3L) are free to perform differentiated oscillating movements so as to allow the two front wheels and the two rear wheels to remain in contact with said surface on which the vehicle moves, even when this surface has irregularities and/or slope variations.
Control module for a consumable-material cartridge, comprising an integrated electronic circuit for installation on a consumable-material cartridge, at least comprising the functional blocks, which are connected to one another via processor bus lines, of: • a processor core with programmable code memory • a readable and re-writable data memory • a serial bidirectional interface (SPU, I/O) characterized in that • the processor core is formed as a cryptRISC processor core, which has an RISC processor architecture with additional cryptographic commands, and • the bidirectional interface (SPU, I/O) with respect to the circuitry of the contact elements, which constitute the physical inputs and outputs and are provided to come into contact with the printer contact elements of the printer when the consumer-material cartridge is received in a printer, and with respect to the data transmission protocol used is designed so as to be freely programmable, and • the control module comprises a contact plate comprising the contact elements, wherein the code memory and the data memory are designed as non-volatile code, configuration and data memories (NVRAM), wherein the data memory comprises a configuration region and a data region, and wherein programming is stored in the configuration region for the configuration of the bidirectional interface (SPU, I/O) with respect to the circuitry of the contact elements. • a processor core with programmable code memory • a readable and re-writable data memory • a serial bidirectional interface (SPU, I/O) • the processor core is formed as a cryptRISC processor core, which has an RISC processor architecture with additional cryptographic commands, and • the bidirectional interface (SPU, I/O) with respect to the circuitry of the contact elements, which constitute the physical inputs and outputs and are provided to come into contact with the printer contact elements of the printer when the consumer-material cartridge is received in a printer, and with respect to the data transmission protocol used is designed so as to be freely programmable, and • the control module comprises a contact plate comprising the contact elements,
A method of encoding information by a wireless communication device comprising: encoding information into one or more variable length low density parity check codewords; characterised by determining the size of the codewords and, if the codeword size is more than a predetermined size of a default parity check matrix, adjusting a size of the default parity check matrix by selecting one or more columns of the default parity check matrix having a lowest bit weight and deleting the selected columns; and encoding the codewords based on the adjusted parity check matrix. encoding information into one or more variable length low density parity check codewords; characterised by determining the size of the codewords and, if the codeword size is more than a predetermined size of a default parity check matrix, adjusting a size of the default parity check matrix by selecting one or more columns of the default parity check matrix having a lowest bit weight and deleting the selected columns; and encoding the codewords based on the adjusted parity check matrix.
A compound having the formula (Ia) or (Ib): wherein R 1 is selected from the group consisting of H and optionally substituted alkyl and aryl; R 2 is selected from the group consisting of H and optionally substituted alkyl and aryl; R 3 is selected from the group consisting of H and optionally substituted alkyl and aryl; X is selected from the group consisting of -N(R 4)C -, -C N(R 4)-, -S 2 N(R 4)-, -N(R 4)S 2 -, where R 4 is selected from the group consisting of H and optionally substituted alkyl and aryl; n is an integer from 5 to 7; or a pharmaceutically acceptable salt, solvate, hydrate, or cocrystal thereof. wherein R 1 is selected from the group consisting of H and optionally substituted alkyl and aryl; R 2 is selected from the group consisting of H and optionally substituted alkyl and aryl; R 3 is selected from the group consisting of H and optionally substituted alkyl and aryl; X is selected from the group consisting of -N(R 4)C -, -C N(R 4)-, -S 2 N(R 4)-, -N(R 4)S 2 -, where R 4 is selected from the group consisting of H and optionally substituted alkyl and aryl; n is an integer from 5 to 7; or a pharmaceutically acceptable salt, solvate, hydrate, or cocrystal thereof.
An apparatus for the quantitative and qualitative analysis of a body fluid, comprising: a body fluid collector for collecting a body fluid discharged from a patient, a cleansing water container for storing cleansing water used for bidet cleansing, a driving unit for moving the body fluid (urine) from the body fluid collector into a urine container and for moving the cleansing water in the cleansing water container into the body fluid collector, and a control unit for controlling the operation of the driving unit; a measuring unit for measuring quantitation and constituents of the body fluid drained into the body fluid collector; and an output unit for outputting a measurement value obtained by the measuring unit, the measuring unit and the output unit being housed in the body of the apparatus, wherein the control unit is adapted to calculate creatinine clearance, Ccr, FE Na +, and Renal Failure Index from the equations: Ccr (mL/min) = (Urine Cr X Volume) / Plasma Cr, FE Na' = Urine (Na /Cr) / Plasma (Na/Cr) and Renal Failure Index = U (Na +)/GFT = Urine Na + / (Urine Cr/Plasma Cr), whereby operation results obtained by equations are used as a basis for evaluation of a disease condition of a patient. a body fluid collector for collecting a body fluid discharged from a patient, a cleansing water container for storing cleansing water used for bidet cleansing, a driving unit for moving the body fluid (urine) from the body fluid collector into a urine container and for moving the cleansing water in the cleansing water container into the body fluid collector, and a control unit for controlling the operation of the driving unit; a measuring unit for measuring quantitation and constituents of the body fluid drained into the body fluid collector; and an output unit for outputting a measurement value obtained by the measuring unit, the measuring unit and the output unit being housed in the body of the apparatus, wherein the control unit is adapted to calculate creatinine clearance, Ccr, FE Na +, and Renal Failure Index from the equations: Ccr (mL/min) = (Urine Cr X Volume) / Plasma Cr, FE Na' = Urine (Na /Cr) / Plasma (Na/Cr) and Renal Failure Index = U (Na +)/GFT = Urine Na + / (Urine Cr/Plasma Cr), whereby operation results obtained by equations are used as a basis for evaluation of a disease condition of a patient.
A pair of laparoscopic scissors, comprising: a pair of blades connected at a pivot, each of the blades having a length, a tip portion, a body portion, a pivot area, an outer surface, an inner surface and a cutting edge, the cutting edge forming an angle with the axes perpendicular to the outer surface along the length of the tip and body portions; characterized in that the angle (α) at the tip portion is greater than the angle (β) at the body portion, such that tension during a cutting operation at the tip portion is about the same as tension at the body portion during the cutting operation. a pair of blades connected at a pivot, each of the blades having a length, a tip portion, a body portion, a pivot area, an outer surface, an inner surface and a cutting edge, the cutting edge forming an angle with the axes perpendicular to the outer surface along the length of the tip and body portions; characterized in that the angle (α) at the tip portion is greater than the angle (β) at the body portion, such that tension during a cutting operation at the tip portion is about the same as tension at the body portion during the cutting operation.
Sodium thiosulfate pentahydrate which contains no greater than 10 ppm of non-purgable organic carbon, contains no greater than 0.01% by weight of carbonate, contains no greater than 0.05 ppm of mercury, contains no greater than 2 ppm of aluminum; contains no greater than 0.003% by weight of selenium, contains no less than 99% by weight and no greater than 100.5% by weight of sodium thiosulfate on an anhydrous basis measured by colorimetric assay or no less than 98% by weight and no greater than 102% by weight of sodium thiosulfate on an anhydrous basis measured by ion chromatography, has a water content between 32% and 37% by weight, has a heavy metal content of no greater than 10 ppm, contains no greater than 200 ppm of chloride, contains no greater than 0.001% by weight of sulfide, contains no greater than 0.002% by weight of iron, contains no greater than 0.01% by weight of calcium, contains no greater than 0.005% by weight of potassium, contains no greater than 0.1% of sulfite, contains no greater than 0.5% of sulfate, contains no greater than 3 ppm of arsenic, contains no greater than 0.001% by weight of lead, has total aerobic count of microbial load of no greater than 100 CFU/g, has total yeast and mold count of no greater than 20 CFU/g, contains no greater than 0.02 EU/mg of bacterial endotoxins, contains no greater than 0.002% by weight of nitrogen compounds, contains no greater than 0.005% by weight of insoluble matter, has a positive identification test for sodium, has a positive identification test for thiosulfate, does not cause turbitidy when exposed to ammonium oxalate, contains no greater than 0.01 % by weight of residual anti-caking agent, and contains no greater than ICH Q3C limits of organic volatile impurities, wherein a 10% solution of the sodium thiosulfate pentahydrate at 25 °C is colorless and has a pH between 6.0 and 8.0, and wherein the sodium thiosulfate pentahydrate is odorless crystals or has the appearance of colorless crystals.
A travel control apparatus to control travel of a work vehicle capable of conducting work travel by automatic driving, characterized by comprising: a display capable of displaying a position of the work vehicle in a work field where the work travel is conducted; a guide-index display portion to cause the display to display a guide index corresponding to an automatic-travel permitted area which is an area defined in the work field; and a position determination portion to determine whether or not the work vehicle is located in the automatic-travel permitted area, wherein transition to an automatic-travel mode is allowed when the position determination portion determines that the work vehicle is located in the automatic-travel permitted area. a display capable of displaying a position of the work vehicle in a work field where the work travel is conducted; a guide-index display portion to cause the display to display a guide index corresponding to an automatic-travel permitted area which is an area defined in the work field; and a position determination portion to determine whether or not the work vehicle is located in the automatic-travel permitted area, wherein transition to an automatic-travel mode is allowed when the position determination portion determines that the work vehicle is located in the automatic-travel permitted area.
An impact resistant propeller system, said impact resistant propeller system comprising: a propeller, said propeller having a primary spin direction along a first spin axis to provide positive thrust, said propeller comprising: a central hub, said central hub comprising a first spin axis; a plurality of propeller blades, each of said plurality of propeller blades pivotally attached along a first pivot axis to said central hub, wherein each of said propeller blades comprises a pivot pin for hingedly attaching each propeller blade to said central hub, said pivot pin extending from a leading edge of said propeller blade and wherein said pivot pin comprises a first end at the leading edge of said propeller blade and a second end away from said leading edge of said propeller blade, and wherein said first end is forward of said second end along said first spin axis, wherein said first pivot axis of each of the plurality of propeller blades is angled to a plane normal to the first spin axis, characterised in that the first pivot axis is angled such that each of the propeller blades is configured to rotate counter to said primary spin direction, when pivoted backwards along said first spin axis. a central hub, said central hub comprising a first spin axis; a plurality of propeller blades, each of said plurality of propeller blades pivotally attached along a first pivot axis to said central hub, wherein each of said propeller blades comprises a pivot pin for hingedly attaching each propeller blade to said central hub, said pivot pin extending from a leading edge of said propeller blade and wherein said pivot pin comprises a first end at the leading edge of said propeller blade and a second end away from said leading edge of said propeller blade, and wherein said first end is forward of said second end along said first spin axis, wherein said first pivot axis of each of the plurality of propeller blades is angled to a plane normal to the first spin axis, characterised in that the first pivot axis is angled such that each of the propeller blades is configured to rotate counter to said primary spin direction, when pivoted backwards along said first spin axis.
Process for the preparation of a calcium sulphonate complex grease comprising at least the following steps: a) preparing, in a reactor, a calcium sulphonate complex soap comprising calcium carbonate, the calcium carbonate being presented in the form of calcite, b) closing the reactor, c) raising the temperature in the reactor to a temperature of at least 130°C under a pressure of at least 400 kPa, d) depressurizing and removing the water contained in the reactor, e) cooling the reactor, said process not comprising the addition of boric acid. a) preparing, in a reactor, a calcium sulphonate complex soap comprising calcium carbonate, the calcium carbonate being presented in the form of calcite, b) closing the reactor, c) raising the temperature in the reactor to a temperature of at least 130°C under a pressure of at least 400 kPa, d) depressurizing and removing the water contained in the reactor, e) cooling the reactor,
Turbine wheel, in particular in a supercharging device for an internal combustion engine, the turbine wheel having a plurality of blades on a hub forming a rear wall, adjacent blades forming an inlet surface arranged circumferentially radially on the outside and having two leading edges and an outlet surface arranged substantially axially on the inside and having two trailing edges, a surface of a blade being formed by a plurality of curves (30,...) lying next to one another between the leading edge and the trailing edge..., 38) lying next to one another between the leading edge and the trailing edge, from an angle and a length, characterized in that the angle from the leading edge initially increases or remains constant as the length increases for each of the curves (30,...., 38) initially increases or remains constant and then decreases so that a maximum (40, 40', 40") is formed, the angle being formed as a polar angle and the length being formed along an axis of rotation about a direction of rotation, a zero point of the angle along the leading edge is selected to increase in the direction of the direction of rotation, and the length is normalised along the axis of rotation.
A power chuck with clamping or base jaws inserted in a movable arrangement in a chuck body in radially aligned guide grooves, in which the clamping or base jaws can be actuated via wedge hooks or wedge rods by means of an adjustment piston connected for example to an axially moveable pull road, in which a circumferential accommodating groove (11, 22) is provided in the chuck body of the power chuck in the area of the guide grooves or in the clamping or base jaws in the areas adjacent to the guide grooves in each case and each of the accommodating grooves (11, 22) has an endless seal (12, 22) inserted in it, in such a way that it encloses an accommodating space, characterized in that, each of the accommodating grooves (11, 21) is composed of two subsections running parallel to the guide grooves, a connecting piece (11") connecting them together and arranged approximately perpendicular to the guide grooves and at the same height as the subsections following on from the inner end area of the guide grooves as well as another connecting piece (11"') provided in the entrance area of the guide grooves configured in a U shape and adapted to the shape of the guide groove or to the clamping or base jaws, in which the connecting piece running approximately perpendicular to the subsections and connecting them is worked into the chuck body or the clamping or base jaws.
A numerically controlled machine tool, in which a first post member is installed on a main body (10, 20) so as to be slidable in a left/right direction, the numerically controlled machine tool comprising: first and second horizontal rails (80, 81) lengthily installed on the main body (10, 20) in the sliding direction of the first post member so as to be vertically spaced apart from each other, the first and second horizontal rails being respectively coupled to one side of the first post member to guide the sliding of the first post member; a first driving screw lengthily installed in the sliding direction of the first post member at a center of a line connecting driving centers of the first and second horizontal rails (80, 81) to each other between the first and second horizontal rails (80, 81), the first driving screw being coupled to the first post member to allow the first post member to be slid; and a third horizontal rail lengthily installed on the main body (10, 20) in the sliding direction of the first post member, the third horizontal rail being disposed on a line that is perpendicular to the center of the line connecting the driving centers of the first and second horizontal rails (80, 81) to each other and being coupled to the opposite side of the first post member to guide the sliding of the first post member, wherein a line connecting the driving centers of the first and third horizontal rails (80, 82) to each other and a line connecting the driving centers of the second and third horizontal rails (81, 82) to each other have the same length. first and second horizontal rails (80, 81) lengthily installed on the main body (10, 20) in the sliding direction of the first post member so as to be vertically spaced apart from each other, the first and second horizontal rails being respectively coupled to one side of the first post member to guide the sliding of the first post member; a first driving screw lengthily installed in the sliding direction of the first post member at a center of a line connecting driving centers of the first and second horizontal rails (80, 81) to each other between the first and second horizontal rails (80, 81), the first driving screw being coupled to the first post member to allow the first post member to be slid; and a third horizontal rail lengthily installed on the main body (10, 20) in the sliding direction of the first post member, the third horizontal rail being disposed on a line that is perpendicular to the center of the line connecting the driving centers of the first and second horizontal rails (80, 81) to each other and being coupled to the opposite side of the first post member to guide the sliding of the first post member, wherein a line connecting the driving centers of the first and third horizontal rails (80, 82) to each other and a line connecting the driving centers of the second and third horizontal rails (81, 82) to each other have the same length.