mhurhangee/ep-ind-claims huggingface dataset:
A dust cover for a ball joint to be mounted on a ball joint in which a knuckle of pinch bolt type having a knuckle groove is fastened and fixed to a shaft of a ball stud, the dust cover for a ball joint comprising: a dust cover body made of a rubber elastic material; and an annular plate member that is configured to be interposed between the dust cover body and the knuckle, wherein in the dust cover body, a reinforcement ring is disposed in a stud mounting part that is configured to be mounted on an outer peripheral surface of the shaft, and on an inner peripheral side of the reinforcement ring, an annular step is formed having a shape of being cut out at a certain depth from the knuckle side, the plate member includes a plate body and an annular sealing part, the annular sealing part, being made of a rubber elastic material, disposed on an inner peripheral side of the plate body, and is configured to be accommodated in the annular step of the dust cover body, and in an outer periphery of the plate body, a plurality of cut parts are formed, so that outer peripheral petal parts are formed between adjacent cut parts configured to be bent so as to engage with a knuckle groove. a dust cover body made of a rubber elastic material; and an annular plate member that is configured to be interposed between the dust cover body and the knuckle, wherein in the dust cover body, a reinforcement ring is disposed in a stud mounting part that is configured to be mounted on an outer peripheral surface of the shaft, and on an inner peripheral side of the reinforcement ring, an annular step is formed having a shape of being cut out at a certain depth from the knuckle side, the plate member includes a plate body and an annular sealing part, the annular sealing part, being made of a rubber elastic material, disposed on an inner peripheral side of the plate body, and is configured to be accommodated in the annular step of the dust cover body, and in an outer periphery of the plate body, a plurality of cut parts are formed, so that outer peripheral petal parts are formed between adjacent cut parts configured to be bent so as to engage with a knuckle groove.
Process for continuous tempering of a fat-containing, crystallizable mass, such as chocolate mass, nougat mass or creme mass being crystal-free and is pumped as a complete stream to a cooling stage in which it is cooled to above the crystal-creation temperature so that the particular mass is still crystal-free, whereafter the mass is pumped through a crystallization stage in a column comprising of mass chambers and intermediary water chambers arranged in stacked elements, a central drive shaft in engagement with mixing and shearing elements arranged in the mass chambers, so that crystals have been created in the mass when leaving the crystallization stage, characterized in, that when entering the cooling stage the mass is divided into a row of several parallel, plate-like streams of mass, which are simultaneously cooled by a row of intermediary, plate-like streams of cooling water until the mass is being collected again to a complete stream.
A pharmaceutical composition for bacterial infections and wound healing, characterised in that said formulation comprises following components: - a topical antibiotic pharmaceutically active agent; - a biopolymer; - hydrolysed collagen of type I; - an ointment base; wherein all components are mixed homogeneously to form an ointment of pH value between 6.8 and 7.2, wherein said topical antibiotic pharmaceutically active agent is Mupirocin present in an amount between 0.1% (w/w) to 5% (w/w), preferably 2% (w/w), wherein said biopolymer is Chitosan present in an amount between 0.01 % (w/w) to 0.5% (w/w), preferably 0.05% (w/w), and wherein said hydrolyzed collagen of type I is present in an amount of from about 0.01 (w/w) and 0.5% (w/w), preferably 0.05% (w/w). - a topical antibiotic pharmaceutically active agent; - a biopolymer; - hydrolysed collagen of type I; - an ointment base; wherein all components are mixed homogeneously to form an ointment of pH value between 6.8 and 7.2, wherein said topical antibiotic pharmaceutically active agent is Mupirocin present in an amount between 0.1% (w/w) to 5% (w/w), preferably 2% (w/w), wherein said biopolymer is Chitosan present in an amount between 0.01 % (w/w) to 0.5% (w/w), preferably 0.05% (w/w), and wherein said hydrolyzed collagen of type I is present in an amount of from about 0.01 (w/w) and 0.5% (w/w), preferably 0.05% (w/w).
A cable driver (301, 401, 501, 601) for driving a single ended transmission medium comprising a core and a shield, the cable driver (301, 401, 501, 601) comprising a receiver for receiving a signal to be transmitted for driving a differential driver, the receiver having a main ground, the cable driver further comprising said differential driver, the differential driver comprising a first output for putting a first signal to the core of the single ended transmission medium, a second output for putting a second signal to the shield of the single ended transmission medium through a termination resistor having an impedance differing no more than 10% from the characteristic impedance of the single ended transmission medium, and a third output for connecting a local transmit ground supply (GNDT), local to the differential driver and not directly connected to the main ground of the receiver, to the shield of the single ended transmission medium through a first high frequency low impedance path wherein the termination resistor is connected in series between the second output and the shield.
A SECDED (Single bit Error Correct and Double bit Error Detect)error detecting/correcting code generating circuit comprising: [log 2 (n+1)] first Exclusive-OR operation circuits, where [log 2 (n+1)] is a natural number given by rounding up log 2 (n+1); and m second Exclusive-OR operation circuits, wherein in response to an input of m bytes of an information portion, wherein each byte has n bits, [log2(n+1)] bits of a first redundant portion of the SECDED code are generated by the [log2(n+1)] first Exclusive-OR operation circuits each outputting one bit, and m bits of a second redundant portion of the SECDED code are generated by the m second Exclusive-OR operation circuits each outputting one bit and inputting k bits (k≧1) output from the [log2(n+1)] first Exclusive-OR operation circuits and one parity bit of a one-bit-error detection code, and, the SECDED code is generated to include the mn bits of the information portion, the [log 2 (n+1)] bits of the first redundant portion, and the m bits of the second redundant portion. [log 2 (n+1)] first Exclusive-OR operation circuits, where [log 2 (n+1)] is a natural number given by rounding up log 2 (n+1); and m second Exclusive-OR operation circuits, wherein in response to an input of m bytes of an information portion, wherein each byte has n bits, [log2(n+1)] bits of a first redundant portion of the SECDED code are generated by the [log2(n+1)] first Exclusive-OR operation circuits each outputting one bit, and m bits of a second redundant portion of the SECDED code are generated by the m second Exclusive-OR operation circuits each outputting one bit and inputting k bits (k≧1) output from the [log2(n+1)] first Exclusive-OR operation circuits and one parity bit of a one-bit-error detection code, and, the SECDED code is generated to include the mn bits of the information portion, the [log 2 (n+1)] bits of the first redundant portion, and the m bits of the second redundant portion.
A slam-shut safety device comprising: a valve body, the valve body having an inlet, an outlet, and defining a flow path extending between the inlet and the outlet, the valve body including a valve seat surrounding an orifice disposed between the inlet and the outlet; a valve disc support shiftably mounted within the valve body; a valve disc mounted to the valve disc support; the valve disc support and the valve disc shiftably disposed within the valve body and movable in unison between an open first position in which the valve disc is spaced away from the valve seat, and a closed second position in which the valve disc is seated against the valve seat; anda reset pin operatively coupled to the valve disc support and shiftable relative to the valve body between an untripped position placing the valve disc in the open first position and a tripped position placing the valve disc in the closed second position, the reset pin arranged to respond to an actuator to shift the reset pin from the untripped position toward the tripped position; characterised in that, the slam-shut safety device having an anti-rotation assembly, the valve disc and the valve disc support meeting along an interface, the interface comprising a protrusion and a receiving area, the protrusion and the receiving area cooperating to prevent rotation between the valve disc and the valve disc support when the protrusion is seated adjacent the receiving area. a valve body, the valve body having an inlet, an outlet, and defining a flow path extending between the inlet and the outlet, the valve body including a valve seat surrounding an orifice disposed between the inlet and the outlet; a valve disc support shiftably mounted within the valve body; a valve disc mounted to the valve disc support; the valve disc support and the valve disc shiftably disposed within the valve body and movable in unison between an open first position in which the valve disc is spaced away from the valve seat, and a closed second position in which the valve disc is seated against the valve seat; anda reset pin operatively coupled to the valve disc support and shiftable relative to the valve body between an untripped position placing the valve disc in the open first position and a tripped position placing the valve disc in the closed second position, the reset pin arranged to respond to an actuator to shift the reset pin from the untripped position toward the tripped position; characterised in that, the slam-shut safety device having an anti-rotation assembly, the valve disc and the valve disc support meeting along an interface, the interface comprising a protrusion and a receiving area, the protrusion and the receiving area cooperating to prevent rotation between the valve disc and the valve disc support when the protrusion is seated adjacent the receiving area.
Aircraft turbojet fan comprising a plurality of fan blades as well as a disc defining at its periphery a plurality of cells, which each blade comprising an aerodynamic vane, a blade root housed in one of said cells, as well as a shank inserted between the vane and the root, with said shank comprising a rear portion including a first surface located on the side of the bottom surface of the vane and a second surface located on the side of the upper surface of this vane, and the fan disc comprising, between the cells, fastening clamps protruding radially outwards in such a way that the first surface and the second surface (13a, 13b) are located respectively facing two of the fastening clamps (26, 26), characterised in that for at least one of said blades, the fan comprises a wear-resistant part mounted on the blade in such a way as to form a protective film (32a, 32b) on each one of the first and second surfaces (13a, 13b) of the shank, preventing contact between each surface (13a, 13b) and the fastening clamp (26, 26) being located facing, and in that the wear-resistant part has two clips each one having the form of a U-shaped elastic tab of which the base extends substantially axially and of which the two side branches are substantially oriented radially outwards, with the two branches of the U clamping a protuberance of the platform, which extends radially inwards.
A method for making metal nanoparticles, the method including steps for making coral-shaped metal nanoparticles, the method comprising: ablating a metal surface to create an ejecta plume containing metal nanoparticles moving away from the surface of metal surface; providing at least one electromagnetic field in front of the metal surface being ablated at a distance of 1.5 mm to 5 mm, or 2 mm to 4 nm, or 2.5 to 3.5 mm from the metal surface being ablated, and at an energy density that provides a manipulation force but does not cause ionization of particles within the ablation plume, so as to cause the ejecta plume to form coral-shaped metal nanoparticles; manipulating, using the at least one electromagnetic field, the ejecta plume moving away from the metal surface so as to form coral-shaped metal nanoparticles; and collecting the coral-shaped metal nanoparticles, wherein the coral-shaped metal nanoparticles each have a non-uniform cross section and a globular structure formed by multiple, non-linear strands of varying diameter, some of which form closed loop structures, the strands being joined together in a non-uniform, asymmetric fashion without right angles, and the coral-shaped nanoparticles having no external bond angles, the coral-shaped metal nanoparticles have a length in a range of 15 nm to 100 nm, preferably 25 nm to 95 nm, or 40 nm to 90 nm, or 60 nm to 85 nm, or 70 nm to 80 nm, the length being determined by transmission electron microscopy. ablating a metal surface to create an ejecta plume containing metal nanoparticles moving away from the surface of metal surface; providing at least one electromagnetic field in front of the metal surface being ablated at a distance of 1.5 mm to 5 mm, or 2 mm to 4 nm, or 2.5 to 3.5 mm from the metal surface being ablated, and at an energy density that provides a manipulation force but does not cause ionization of particles within the ablation plume, so as to cause the ejecta plume to form coral-shaped metal nanoparticles; manipulating, using the at least one electromagnetic field, the ejecta plume moving away from the metal surface so as to form coral-shaped metal nanoparticles; and collecting the coral-shaped metal nanoparticles, wherein the coral-shaped metal nanoparticles each have a non-uniform cross section and a globular structure formed by multiple, non-linear strands of varying diameter, some of which form closed loop structures, the strands being joined together in a non-uniform, asymmetric fashion without right angles, and the coral-shaped nanoparticles having no external bond angles, the coral-shaped metal nanoparticles have a length in a range of 15 nm to 100 nm, preferably 25 nm to 95 nm, or 40 nm to 90 nm, or 60 nm to 85 nm, or 70 nm to 80 nm, the length being determined by transmission electron microscopy.
Buffer device for temporarily receiving products from a product flow in the case of a fault downstream of the product flow and for delivering the received products after the malfunction has been remedied, comprising an endless flat-top chain which passes through a plurality of loops (5, 8, 11; 13, 14, 15) that are formed in an upper and a lower plane by horizontal deflectors (6, 7, 9, 10, 12; 16, 17, 18, 19, 20), the deflectors being arranged so as to be alternately stationary and horizontally movable, such that the loop lengths can be changed, characterized in that the movable horizontal deflectors in the upper and the lower plane are arranged on respective horizontally movable carriages (21, 22), and the two carriages are coupled to one another in such a way that the horizontal movements are in opposite directions.
A method for improving detection accuracy of cognitive dysfunction diseases comprising: measuring simultaneously or separately the following biomarkers (a), (b), and (c) for detecting cognitive dysfunction diseases in a biological sample from a subject: (a) a biomarker for detecting cognitive dysfunction diseases consisting of an intact protein of apolipoprotein A1 comprising the amino acid sequence represented by SEQ ID NO: 1 or a partial peptide thereof; (b) a biomarker for detecting cognitive dysfunction diseases consisting of an intact protein of transthyretin comprising the amino acid sequence represented by SEQ ID NO: 2 or a partial peptide thereof; and (c) a biomarker for detecting cognitive dysfunction diseases consisting of an intact protein of complement C3 comprising the amino acid sequence represented by SEQ ID NO: 3 or a partial peptide thereof; wherein the method comprises: measuring the (c) biomarker and the (a) biomarker when the cognitive dysfunction disease is mild cognitive impairment, or measuring the (c) biomarker and the (b) biomarker when the cognitive dysfunction disease is Alzheimer's disease. (a) a biomarker for detecting cognitive dysfunction diseases consisting of an intact protein of apolipoprotein A1 comprising the amino acid sequence represented by SEQ ID NO: 1 or a partial peptide thereof; (b) a biomarker for detecting cognitive dysfunction diseases consisting of an intact protein of transthyretin comprising the amino acid sequence represented by SEQ ID NO: 2 or a partial peptide thereof; and (c) a biomarker for detecting cognitive dysfunction diseases consisting of an intact protein of complement C3 comprising the amino acid sequence represented by SEQ ID NO: 3 or a partial peptide thereof; wherein the method comprises: measuring the (c) biomarker and the (a) biomarker when the cognitive dysfunction disease is mild cognitive impairment, or measuring the (c) biomarker and the (b) biomarker when the cognitive dysfunction disease is Alzheimer's disease. measuring the (c) biomarker and the (a) biomarker when the cognitive dysfunction disease is mild cognitive impairment, or measuring the (c) biomarker and the (b) biomarker when the cognitive dysfunction disease is Alzheimer's disease.
Wing-rotor assembly having a rotor, wherein the rotor has an inlet opening which is closable by a closure means and an outlet opening which is closable by a further closure means, characterized in that the rotor is disposed in a wing in such a manner that the thrust direction of the rotor is directed perpendicularly to the direction of incident flow of the wing, wherein the closure means in the closed state are partly permeable to air.
A pharmaceutical composition comprising at least one compound selected from a group consisting of: or a stereoisomer or a pharmaceutically acceptable salt thereof.
A steam turbine, comprising: a rotor shaft which includes a shaft core portion which rotates about an axis (Ar) and a disk portion which is fixed to the shaft core portion and expands toward a radially outer side in the shaft core portion; a plurality of rotor blade rows which are fixed to an outer periphery of the disk portion and are arranged in an axial direction in which the shaft core portion extends; and a stator vane row which is adjacent to an upstream side of the rotor blade row in the axial direction for each of the plurality of rotor blade rows, characterized by a gap flow passage (100A, 100B), which extends toward a radially inner side from a steam main flow passage which extends in the axial direction and through which steam flows, is formed in a gap between the stator vane row and the rotor blade row configuring a speed governing stage disposed on the most upstream side among a plurality of stages configured by combinations of the rotor blade rows and the stator vane rows disposed to be adjacent to upstream sides of the rotor blade row, and by a communication passage includes a first end which communicates with the gap flow passage (100A, 100B) and a second end which communicates with a space in which steam having a higher pressure than a pressure of the steam inside the gap flow passage (100A, 100B) exists, and the communication passage is formed in the disk portion to which the rotor blade row of the speed governing stage is fixed. a rotor shaft which includes a shaft core portion which rotates about an axis (Ar) and a disk portion which is fixed to the shaft core portion and expands toward a radially outer side in the shaft core portion; a plurality of rotor blade rows which are fixed to an outer periphery of the disk portion and are arranged in an axial direction in which the shaft core portion extends; and a stator vane row which is adjacent to an upstream side of the rotor blade row in the axial direction for each of the plurality of rotor blade rows, characterized by a gap flow passage (100A, 100B), which extends toward a radially inner side from a steam main flow passage which extends in the axial direction and through which steam flows, is formed in a gap between the stator vane row and the rotor blade row configuring a speed governing stage disposed on the most upstream side among a plurality of stages configured by combinations of the rotor blade rows and the stator vane rows disposed to be adjacent to upstream sides of the rotor blade row, and by a communication passage includes a first end which communicates with the gap flow passage (100A, 100B) and a second end which communicates with a space in which steam having a higher pressure than a pressure of the steam inside the gap flow passage (100A, 100B) exists, and the communication passage is formed in the disk portion to which the rotor blade row of the speed governing stage is fixed.
A surgical robotic system, comprising a module and a manipulator, wherein the module comprises a mounting base (10, 20, 30), a support component (11, 21, 31) connected to the mounting base (10, 20, 30), and a orienting platform (12, 42, 52, 62, 72) connected to the support component (11, 21, 31); wherein the manipulator is connected to the orienting platform (12, 42, 52, 62, 72) of the module; the manipulator comprises a robotic arm and a surgical instrument connected to the robotic arm, and the manipulator is an active remote-center-of-motion manipulator, wherein the robotic arm supporting the surgical instrument has a spatial configuration of at least four degrees of freedom, enabling the surgical instrument to move around a certain point in the space through algorithm control, wherein the orienting platform (12, 42, 52, 62, 72) comprises a top tray part (120, 420, 520, 620, 720) and a suspension arm, wherein at least one mounting part (121, 421, 621, 721) is distributed on the top tray part (120, 420, 520, 620, 720) to directly or indirectly connect the manipulator, and characterised in that the top tray part (120, 420, 520, 620, 720) is secured to the suspension arm (122, 722), and the suspension arm (122, 722) is rotatably connected to the support component (11, 21, 31).