mhurhangee/ep-ind-claims huggingface dataset:
A bearing integrated seal (1, 1') comprising: a cylindrical bearing member; an annular ring-shaped outer member covering at least an outer periphery and the one axial direction end of the bearing member; an annular ring-shaped seal member provided such that one surface thereof covers the other axial direction end of the bearing member in an inner surface side of the outer member; and an inner member covering the other surface of the seal member in an opposite side to the one surface to fit the seal member to the bearing member in the inner surface side of the outer member, wherein the inner member is fixed to the outer member to fix the bearing member and the seal member and the inner member has an annular ring-shaped and an L shaped cross section, an axial direction flat surface of the inner member covers the other surface of the seal member, and an outer peripheral flat surface of the inner member is in contact with an inner peripheral flat surface of the outer member. a cylindrical bearing member; an annular ring-shaped outer member covering at least an outer periphery and the one axial direction end of the bearing member; an annular ring-shaped seal member provided such that one surface thereof covers the other axial direction end of the bearing member in an inner surface side of the outer member; and an inner member covering the other surface of the seal member in an opposite side to the one surface to fit the seal member to the bearing member in the inner surface side of the outer member, wherein the inner member is fixed to the outer member to fix the bearing member and the seal member and the inner member has an annular ring-shaped and an L shaped cross section, an axial direction flat surface of the inner member covers the other surface of the seal member, and an outer peripheral flat surface of the inner member is in contact with an inner peripheral flat surface of the outer member.
A firefighting aircraft, the aircraft comprising: a storage tank (300; 400) for firefighting fluid; a probe (210; 212) carrying a conduit in fluid communication with the storage tank (300; 400), the conduit being operative to receive water from a body of water overflown by the aircraft, characterized by the aircraft being adapted for use in an unmanned aircraft system; the storage tank (300; 400) having a plurality of filling ports spaced from one another; and the aircraft furthermore comprising: a filling system for controlling the flow of water to and from the storage tank (300; 400), the filing system comprising a remotely and automatically operable valve (314a, 314b, 314c; 440) respectively associated with each filling port; and a control system in communication with each valve (314a, 314b, 314c; 440), and operative to command the position of each valve (314a, 314b, 314c; 440) to regulate the flow of fluid through each filling port. a storage tank (300; 400) for firefighting fluid; a probe (210; 212) carrying a conduit in fluid communication with the storage tank (300; 400), the conduit being operative to receive water from a body of water overflown by the aircraft, a filling system for controlling the flow of water to and from the storage tank (300; 400), the filing system comprising a remotely and automatically operable valve (314a, 314b, 314c; 440) respectively associated with each filling port; and a control system in communication with each valve (314a, 314b, 314c; 440), and operative to command the position of each valve (314a, 314b, 314c; 440) to regulate the flow of fluid through each filling port.
An adaptive power on reset signal generator, comprising: a ramp voltage selector configured to monitor a supply voltage provided by a power supply and generate a ramp voltage based, at least in part, on the monitored supply voltage; and a logic device configured to: detect a first supply voltage ramp traversal across a first threshold ramp voltage based, at least in part, on the ramp voltage provided by the ramp voltage selector; detect a second supply voltage ramp traversal across a second threshold ramp voltage, wherein the second threshold ramp voltage is higher than the first threshold ramp voltage and the first and second threshold ramp voltages are lower than a nominal operating voltage associated with the power supply and/or the supply voltage; determine a time at which to generate a POR signal based, at least in part, on an amount of time between the first supply voltage ramp traversal and the second supply voltage ramp traversal; and generate the POR signal based on the determined time. a ramp voltage selector configured to monitor a supply voltage provided by a power supply and generate a ramp voltage based, at least in part, on the monitored supply voltage; and a logic device configured to: detect a first supply voltage ramp traversal across a first threshold ramp voltage based, at least in part, on the ramp voltage provided by the ramp voltage selector; detect a second supply voltage ramp traversal across a second threshold ramp voltage, wherein the second threshold ramp voltage is higher than the first threshold ramp voltage and the first and second threshold ramp voltages are lower than a nominal operating voltage associated with the power supply and/or the supply voltage; determine a time at which to generate a POR signal based, at least in part, on an amount of time between the first supply voltage ramp traversal and the second supply voltage ramp traversal; and generate the POR signal based on the determined time. detect a first supply voltage ramp traversal across a first threshold ramp voltage based, at least in part, on the ramp voltage provided by the ramp voltage selector; detect a second supply voltage ramp traversal across a second threshold ramp voltage, wherein the second threshold ramp voltage is higher than the first threshold ramp voltage and the first and second threshold ramp voltages are lower than a nominal operating voltage associated with the power supply and/or the supply voltage; determine a time at which to generate a POR signal based, at least in part, on an amount of time between the first supply voltage ramp traversal and the second supply voltage ramp traversal; and generate the POR signal based on the determined time.
A method for preparing an organosilicon compound of the following general formula: wherein R 1 is an unsubstituted or substituted alkyl group having 1 to 10 carbon atoms or an unsubstituted or substituted aryl group having 6 to 10 carbon atoms, R 4 is independently an unsubstituted or substituted alkyl group having 1 to 20 carbon atoms, an unsubstituted or substituted aryl group having 6 to 10 carbon atoms, an unsubstituted or substituted aralkyl group having 7 to 10 carbon atoms, an unsubstituted or substituted alkenyl group having 2 to 10 carbon atoms or an unsubstituted or substituted organoxy group having 1 to 20 carbon atoms, R 5 is an unsubstituted or substituted alkyl group having 1 to 20 carbon atoms, an unsubstituted or substituted aryl group having 6 to 10 carbon atoms, an unsubstituted or substituted aralkyl group having 7 to 10 carbon atoms or an unsubstituted or substituted alkenyl group having 2 to 10 carbon atoms, Me is a methyl group, and n is an integer of 1 to 3, the method comprising reacting, in the presence of transition metal catalyst RhCl(PPh 3) 3 or Lewis acid catalyst (pentafluorophenyl)boric acid/borate, an organosilicon compound of the following general formula (i') having a mercapto group with an organosilicon compound of the following general formula (ii') having an Si-H bond to form a sulfur-silicon bond: wherein R 1, R 4, R 5, Me and n have the same meanings as defined above.
A method for installing a security system, comprising at least one main station M1 and one or plural sub stations (S1, S2, Sn) wherein a communication by radio transmission is performed between a main station and sub stations (S1, S2, Sn) associated with the main station and the communication is performed at least in one frequency range, characterized in that a) plural main stations (M1, M2, Mn) are provided, b) a first main station transmits a presence signal to all other main stations (M2 - Mn) after the first main station is turned on, c) the first main station rejects the registration mode until no additional main station (M2 - Mn) reports the registration mode any more, d) the first main station covers at least one frequency range which is still vacant and uninterfered, e) the first main station switches into the registration mode. a) plural main stations (M1, M2, Mn) are provided, b) a first main station transmits a presence signal to all other main stations (M2 - Mn) after the first main station is turned on, c) the first main station rejects the registration mode until no additional main station (M2 - Mn) reports the registration mode any more, d) the first main station covers at least one frequency range which is still vacant and uninterfered, e) the first main station switches into the registration mode.
A process analysis unit for the determination of an analyte in water, comprising a base module and an exchangeable cartridge module, wherein the base module comprises no liquid fluidic system, the base module comprising a pump drive (16', 17'; 178) and an analyte sensor without a fluidic measuring section, and the cartridge module comprises the entire liquid fluidic system, the cartridge module comprising a liquid reservoir tank (126, 156, 134), a sample collection device, a drive-less pump mechanism (36'; 122, 154, 128) pumping the liquid from the reservoir tank (126, 156, 134), and the fluidic measuring section for the analyte sensor, wherein, when the cartridge module is in place in the base module, the pump mechanism (36'; 122, 154, 128) is connected to the pump drive (16'; 178) and is driven by the pump drive (16'; 178), and the fluidic measuring section is connected to the analyte sensor, the pump mechanism (36'; 122, 154, 128) is configured as a peristaltic membrane pump and is driven pneumatically, the pump chambers of the membrane pump are covered by a flexible liquid-tight pump membrane, the base module comprises a plurality of independent pump drives (16', 17'; 178) associated to a plurality of independent pump mechanisms (36', 37'; 123, 154, 128) in the cartridge module, and the cartridge module comprises a plastic material plate with groove-like microfluidic channels for connecting the reservoir tank (126, 156, 134), the pump mechanisms (123, 154, 128) and the measuring section, the section of the channels being less than 5 mm 2.
A fixing device for fixing a bony structure to a support member, the fixing device comprising: a first connecting member which comprises: a main body provided with a first passage configured for receiving the support member, and with a first opening configured for passing a flexible member therethrough, and a rod fixed to or monobloc with the main body and protruding therefrom, the fixing device further comprising a first flexible member passing through the first opening of the main body and extending beyond the main body for attachment to the bony structure, wherein the first passage passes through the main body in a first direction and wherein the rod extends in a second direction substantially parallel to and laterally offset from the first direction. a first connecting member which comprises: a main body provided with a first passage configured for receiving the support member, and with a first opening configured for passing a flexible member therethrough, and a rod fixed to or monobloc with the main body and protruding therefrom, the fixing device further comprising a first flexible member passing through the first opening of the main body and extending beyond the main body for attachment to the bony structure, wherein the first passage passes through the main body in a first direction and wherein the rod extends in a second direction substantially parallel to and laterally offset from the first direction. a main body provided with a first passage configured for receiving the support member, and with a first opening configured for passing a flexible member therethrough, and a rod fixed to or monobloc with the main body and protruding therefrom, the fixing device further comprising a first flexible member passing through the first opening of the main body and extending beyond the main body for attachment to the bony structure, wherein the first passage passes through the main body in a first direction and wherein the rod extends in a second direction substantially parallel to and laterally offset from the first direction.
A wire harness manufacturing system, comprising: a display unit; a wire cutting machine that draws an electric wire from a wire feed reel and cuts the electric wire to a predetermined length; a control unit that directs the display unit to display a wire laying image and wire work identification information for identifying a work regarding each electric wire, the wire laying image including a plurality of wire images (21a - 21c) showing the plurality of electric wires in the laid state and the wire work identification information being displayed in the vicinity of the corresponding wire image (21a - 21c); and a memory unit that stores the wire laying image and work instruction information so as to correspond to the wire work identification information, the work instruction information including cut length of the electric wire, wherein the control unit acquires the cut length information corresponding to the wire work identification information from the memory unit when the wire work identification information displayed on the display unit is read by an optical code reading machine (8a, 8b) and is received as a signal instructing to read the work instruction information including the cut length information, and sends the cut length information to the wire cutting machine so that the wire cutting machine cuts the electric wire to a length corresponding to the cut length corresponding to the wire work identification information. a display unit; a wire cutting machine that draws an electric wire from a wire feed reel and cuts the electric wire to a predetermined length; a control unit that directs the display unit to display a wire laying image and wire work identification information for identifying a work regarding each electric wire, the wire laying image including a plurality of wire images (21a - 21c) showing the plurality of electric wires in the laid state and the wire work identification information being displayed in the vicinity of the corresponding wire image (21a - 21c); and a memory unit that stores the wire laying image and work instruction information so as to correspond to the wire work identification information, the work instruction information including cut length of the electric wire,
A substrate chuck for a self-assembly process of semiconductor light-emitting diodes on a substrate, the substrate chuck comprising: a substrate support part (210, 220, 230) configured to support the substrate; an electrode connection part provided on the substrate support part (210, 220, 230) for applying power to an assembly electrode of the substrate; and a rotating part including a rotating shaft and configured to rotate the substrate support part (210, 220, 230) around the rotating shaft to turn over the substrate toward an upward direction and a downward direction, wherein the rotating shaft is spaced apart from a center of the substrate support part by a predetermined distance; and wherein the rotating shaft is arranged parallel to one side of the substrate supported by the substrate support part (210, 220, 230). a substrate support part (210, 220, 230) configured to support the substrate; an electrode connection part provided on the substrate support part (210, 220, 230) for applying power to an assembly electrode of the substrate; and a rotating part including a rotating shaft and configured to rotate the substrate support part (210, 220, 230) around the rotating shaft to turn over the substrate toward an upward direction and a downward direction, wherein the rotating shaft is spaced apart from a center of the substrate support part by a predetermined distance; and wherein the rotating shaft is arranged parallel to one side of the substrate supported by the substrate support part (210, 220, 230).
Leaf spring assembly having a first bearing device, having a second bearing device, and having a leaf spring element (1, 1', 1", 1"') having at least one leaf spring portion (2, 13), wherein a first end region of a first leaf spring portion is mounted in a torque-proof manner in a first bearing device, and wherein a second end region, opposite the first end region, of the first leaf spring portion or a second end region of a second leaf spring portion which is operatively connected to the first leaf spring portion is mounted in a torque-proof manner in a second bearing device, wherein opposite end regions (3, 4, 18, 19) of the at least one leaf spring portion (2, 13) are oriented parallel to one another in an unloaded state of the leaf spring element and, when a force is applied, opposite end regions (3, 4, 18, 19) mounted in a torque-proof manner are displaceable in parallel and deflectable relative to one another, wherein the direction of the parallel displacement corresponds to the force application direction and the relative deflection of the end regions (3, 4, 18, 19) is brought about by a change in length of the leaf spring portion (2, 13) resiliently deformed by the action of force and therefore points in the direction of extension of the leaf spring portion (2, 13), and wherein the end regions (3, 4, 18, 19) of the at least one leaf spring portion (2, 13) are not resiliently deformable by the action of force on the leaf spring element and do not have an appreciable influence on the spring effect of the leaf spring portion, and that the at least one leaf spring portion (2, 13) is formed between the end regions (3, 4, 18, 19) such that this region between the opposite end regions (3, 4, 18, 19) is resiliently deformed under the action of force, characterised in that a relative deflection of the end regions (3, 4, 18, 19) relative to one another in the case of a load-related extension or enlargement of a distance between the end regions (3, 4, 18, 19) is made possible by mounting the end regions (3, 4, 18, 19) in the first bearing device and in the second bearing device in such a manner that they are displaceable in the longitudinal direction.
An intraoral scanning system, comprising: an intraoral scanner, comprising: one or more structured light projectors, each structured light projector configured to project a pattern on an intraoral three-dimensional surface; and one or more cameras, configured to capture a series of images, each image including at least a portion of the projected pattern; and a processor, configured to: compare the series of images captured by the one or more cameras; determine which of the portions of the projected pattern can be tracked across the series of images based on the comparison of the series of images; and construct a three-dimensional model of the intraoral three-dimensional surface based at least in part on the comparison of the series of images. an intraoral scanner, comprising: one or more structured light projectors, each structured light projector configured to project a pattern on an intraoral three-dimensional surface; and one or more cameras, configured to capture a series of images, each image including at least a portion of the projected pattern; and one or more structured light projectors, each structured light projector configured to project a pattern on an intraoral three-dimensional surface; and one or more cameras, configured to capture a series of images, each image including at least a portion of the projected pattern; and a processor, configured to: compare the series of images captured by the one or more cameras; determine which of the portions of the projected pattern can be tracked across the series of images based on the comparison of the series of images; and construct a three-dimensional model of the intraoral three-dimensional surface based at least in part on the comparison of the series of images. compare the series of images captured by the one or more cameras; determine which of the portions of the projected pattern can be tracked across the series of images based on the comparison of the series of images; and construct a three-dimensional model of the intraoral three-dimensional surface based at least in part on the comparison of the series of images.
A glass furnace (41, 1) comprising a burner producing a flame, said burner comprising an air feed (3,31) and a dual fuel pressure injector placed in one of the walls of the furnace, characterized in that said injector comprises two separate fuel ducts, each of which is supplied with different fuel pressures, a first so-called high-pressure duct comprising at least two fuel emission orifices (23, 24) at its tip, the axes of said two orifices diverging by at least 16°, and a second so-called low-pressure duct, the second duct surrounding the first, the pressure in the high-pressure duct being higher than the pressure in the low-pressure duct.
Method for controlling a pneumatically actuated disc brake with an application device which comprises a self-energising device and to which a control unit for controlling a brake pressure (p) is assigned, the method comprising the following steps: the reception of a braking target value (Z Soll1); the determination of a required target pressure (p soll) from the braking target value (Z Soll1); the determination of a current friction coefficient (μ) between the brake pads (4, 4') and a brake disc of the disc brake and the formation of a friction coefficient deviation (Δμ) of the current friction coefficient (μ) from a nominal friction coefficient; the adaptation of the required target pressure (p soll) by means of the friction coefficient deviation (Δμ); and the control of the disc brake by controlling the brake pressure (p) using the thus adapted target pressure (p soll), wherein the current friction coefficient (μ) is determined from at least one braking operation or evaluated several times at a single braking operation, wherein the current friction coefficient (μ) is determined by comparing a current sensor signal (u tats) of a clamping force (F N) of the disc brake to a sensor signal (u o.SV) of the clamping force of the disc brake without self-energising, wherein the sensor signal (u o.SV) is determined by means of at least one stored characteristic of the disc brake, wherein the at least one stored characteristic of the disc brake forms a correlation between the sensor signal (u o.SV) of the clamping force of the disc brake without self-energising and a brake pressure without self-energising, wherein the at least one stored characteristic furthermore has a dependence of the sensor signal (u o.SV) from a stiffness (c Sattel) of the brake calliper and a stiffness (c Beläge) and wear (x) of brake pads (4, 4') of the disc brake, wherein the sensor signal (u o.SV) is furthermore adapted by means of current values of stiffness (c Beläge) and wear (x) of the brake pads (4, 4') of the disc brake, wherein the sensor signal (u o.SV) is furthermore adapted by means of current values of a temperature (θ) of the brake pads (4, 4') of the disc brake. the reception of a braking target value (Z Soll1); the determination of a required target pressure (p soll) from the braking target value (Z Soll1); the determination of a current friction coefficient (μ) between the brake pads (4, 4') and a brake disc of the disc brake and the formation of a friction coefficient deviation (Δμ) of the current friction coefficient (μ) from a nominal friction coefficient; the adaptation of the required target pressure (p soll) by means of the friction coefficient deviation (Δμ); and the control of the disc brake by controlling the brake pressure (p) using the thus adapted target pressure (p soll),