mhurhangee/ep-ind-claims huggingface dataset:
A mechanical device lubrication level control system, comprising: a differential axle housing, with a sump cavity having an axle gear set disposed therein, capable of containing a lubricant therein; a lubricant director comprising a lube tank capable of containing the lubricant therein, wherein the lubricant director is disposed at the bottom of the differential axle housing, wherein the lube tank is separate from the sump cavity; characterized in that the mechanical device lubrication level system further comprises a reversible pump disposed within the lube tank that is in hydraulic communication with the sump cavity, by way of a pump tube that is connected to the reversible pump, which in turn is in hydraulic communication with a pick-up/return tube; wherein, at a time of a removal of lubricant from the sump cavity, the reversible pump communicates lubricant from the sump cavity, through the pump tube, into the pump, through the pick-up tube, and return to the lube tank, where heat from the lubricant is in thermal conduction with the differential axle housing, by way of the lube tank; and wherein control of the lubricant does not directly rely upon the gear set itself. a differential axle housing, with a sump cavity having an axle gear set disposed therein, capable of containing a lubricant therein; a lubricant director comprising a lube tank capable of containing the lubricant therein, wherein the lubricant director is disposed at the bottom of the differential axle housing, wherein the lube tank is separate from the sump cavity; characterized in that the mechanical device lubrication level system further comprises a reversible pump disposed within the lube tank that is in hydraulic communication with the sump cavity, by way of a pump tube that is connected to the reversible pump, which in turn is in hydraulic communication with a pick-up/return tube; wherein, at a time of a removal of lubricant from the sump cavity, the reversible pump communicates lubricant from the sump cavity, through the pump tube, into the pump, through the pick-up tube, and return to the lube tank, where heat from the lubricant is in thermal conduction with the differential axle housing, by way of the lube tank; and wherein control of the lubricant does not directly rely upon the gear set itself.
A fluidic device comprising: a fluidic die (102, 202a-c, 302); a support element (108, 208, 308, 408) coupled to the fluidic die (102, 202a-c, 302); a fluid channel (110, 122, 310, 322, 410) within the support element (108, 208, 308, 408) and defining a fluid path (114, 314a-c) through the support element (108, 208, 308, 408) and a fluid aperture (104, 304) of the fluidic die (102, 202a-c, 302); characterised in that a conductive element (112, 312, 412) arranged in the fluid path (114, 314a-c), the conductive element (112, 312, 412) electrically coupled to a ground (106, 306, 328, 334) of the fluidic die (102, 202a-c, 302), and a material and size of the conductive element (112, 312, 412) to engender galvanic effect at an approximately (10, 30, 50, 650) zero potential. a fluidic die (102, 202a-c, 302); a support element (108, 208, 308, 408) coupled to the fluidic die (102, 202a-c, 302); a fluid channel (110, 122, 310, 322, 410) within the support element (108, 208, 308, 408) and defining a fluid path (114, 314a-c) through the support element (108, 208, 308, 408) and a fluid aperture (104, 304) of the fluidic die (102, 202a-c, 302);
A composition which comprises a myelin basic protein peptide selected from the following: MBP 30-44, consisting of SEQ ID NO:1; MBP 83-99, consisting of SEQ ID NO:2; MBP 131-145, consisting of SEQ ID NO:3; and MBP 140-154, consisting of SEQ ID NO:4 for use in treating or preventing uveitis in a subject. MBP 30-44, consisting of SEQ ID NO:1; MBP 83-99, consisting of SEQ ID NO:2; MBP 131-145, consisting of SEQ ID NO:3; and MBP 140-154, consisting of SEQ ID NO:4
An apparatus comprising: an aircraft with a cargo area; a tray system having a tray comprising a plurality of segment trays (612, 614, 616) with each segment tray positioned between a plurality of floor beams located underneath a surface of the cargo area; and a plurality of rollers in the tray system configured to allow an object to be moved across the cargo area, wherein the tray system has a first side and a second side, and wherein the tray comprises a plurality of slots on the second side of the tray system in which: the plurality of slots are configured to receive the plurality of floor beams in the cargo area; and each segment tray of the plurality of segment trays (612, 614, 616) is connected by a portion of the segment tray extending across a slot of the plurality of slots to another segment tray of the plurality of segment trays (612, 614, 616). an aircraft with a cargo area; a tray system having a tray comprising a plurality of segment trays (612, 614, 616) with each segment tray positioned between a plurality of floor beams located underneath a surface of the cargo area; and a plurality of rollers in the tray system configured to allow an object to be moved across the cargo area, the plurality of slots are configured to receive the plurality of floor beams in the cargo area; and each segment tray of the plurality of segment trays (612, 614, 616) is connected by a portion of the segment tray extending across a slot of the plurality of slots to another segment tray of the plurality of segment trays (612, 614, 616).
A method of identifying proximate devices (1, 2), the method comprising the steps of: • providing a sensory identifier capable of being detected by human senses, the sensory identifier being a sound, an image or a smell • a first device detecting the sensory identifier and sending a first request message comprising a first representation of the sensory identifier to a matching unit, • a second device detecting the sensory identifier and sending a second request message comprising a second representation of the sensory identifier to the matching unit, • the matching unit comparing the first representation and the second representation and sending an acknowledgement message (AC1, AC2) to each the first device and the second device if a match is made, characterised in that each request message (RQ1, RQ2) contains at least one property (PR1, PR2) of the respective device (1, 2) or at least one pointer to a property (PR1, PR2) of the respective device (1, 2), wherein the property (PR1, PR2) of the respective device (1, 2) is a device type, software property of the device or an access property of the device, and in that the matching unit applies matching rules to the properties (PR1, PR2) to limit the number of possible matches. • providing a sensory identifier capable of being detected by human senses, the sensory identifier being a sound, an image or a smell • a first device detecting the sensory identifier and sending a first request message comprising a first representation of the sensory identifier to a matching unit, • a second device detecting the sensory identifier and sending a second request message comprising a second representation of the sensory identifier to the matching unit, • the matching unit comparing the first representation and the second representation and sending an acknowledgement message (AC1, AC2) to each the first device and the second device if a match is made,
A foodstuff grinding attachment for connection to a rotary drive outlet (102, 152) presented by a host device (100, 150); the attachment comprising a main body part having a generally tubular hollowed portion for attachment to the host device (100, 150); a rotatable scroll-type extruding tool capable of rotating within a cavity formed in said tubular portion of the main body part and provided with means to couple (218, 222) with said rotary drive outlet (102, 152) when the main body part is attached to the host device (100, 150); means permitting foodstuff to be introduced into the cavity of said tubular body portion and into engagement with the extruding tool for grinding and transport towards an outlet port of the attachment; wherein said main body part comprises first and second separable components configured to be secured together for operation of the attachment and wherein said components are adapted to be separable from one another to provide access to said cavity for cleaning; wherein abutting edges of the first and second components (330, 340) are formed with connection means whereby the two components are latched securely together, and wherein joints between the first and second components (330, 340) are provided with flexible sealing means adapted to resist the expulsion of liquids therethrough.
An electric motor comprising: a first linear actuator including a first coil; a second linear actuator including a second coil; a rotational shaft; a cam assembly (135/105) mounted on said rotational shaft for translating linear movement of the first and second linear actuators to rotational movement of the rotational shaft, the cam assembling (135/105) comprising two or a higher even number of rotationally offset cams; a controller programmed to generate during operation a first drive signal for the first coil and a second drive signal for the second coil, wherein the first drive signal causes the first linear actuator, through interaction with the cam assembly, to generate a first torque on the rotational shaft that varies periodically over a complete rotation of the shaft and the second drive signal causes the second linear actuator, through interaction with the cam assembly, to generate a second torque on the rotational shaft that varies periodically over the complete rotation of the shaft, and wherein an appropriate drive signal is applied to the coils to generate first and second torques, the sum of which torques produces a total torque that is substantially ripple free throughout the complete rotation of the shaft. a first linear actuator including a first coil; a second linear actuator including a second coil; a rotational shaft; a cam assembly (135/105) mounted on said rotational shaft for translating linear movement of the first and second linear actuators to rotational movement of the rotational shaft, the cam assembling (135/105) comprising two or a higher even number of rotationally offset cams; a controller programmed to generate during operation a first drive signal for the first coil and a second drive signal for the second coil, wherein the first drive signal causes the first linear actuator, through interaction with the cam assembly, to generate a first torque on the rotational shaft that varies periodically over a complete rotation of the shaft and the second drive signal causes the second linear actuator, through interaction with the cam assembly, to generate a second torque on the rotational shaft that varies periodically over the complete rotation of the shaft, and wherein an appropriate drive signal is applied to the coils to generate first and second torques, the sum of which torques produces a total torque that is substantially ripple free throughout the complete rotation of the shaft.
Process for preparing a phenol ortho-substituted by an electron-donating group and protected in the form of a sulphonic ester, characterized in that it comprises reacting a phenol ortho-substituted by an electron-donating group with a sulphonylating agent in the presence of an effective amount of a Lewis acid catalyst, the amount of Lewis acid catalyst being from 0.01% to 20% by mass relative to the ortho-substituted phenol employed.
A method of controlling a heating apparatus that controls the start/stop operation of the heating apparatus on the basis of a room tem-perature (T_ set) set by a user, wherein for a given cycle a heating-off temperature, at which the operation of the heating apparatus is stopped, is set as a temperature that is obtained by subtracting a compensation value determined according to the temperature overshoot that has occurred in the cycle immediately preceding the current cycle from the heating-off temperature from the said preceding cycle, wherein for a given cycle a heating-on temperature, at which the operation of the heating apparatus is started, is set as a temperature that is obtained by adding a compensation value determined according to the temperature undershoot that has occurred in the cycle immediately preceding the current cycle to the heating-on temperature from the said preceding cycle, whereby a difference between the measured room temperature (T_ set) and the room temperature set by the user is minimized, characterized in that i) a minimum heating-off temperature (T_ off _ min) is set as a temperature that is a predetermined temperature higher than the room temperature (T_ set) set by the user, whereby the heating-off temperature that is compensated by the compensa-tion value determined according to overshoot is controlled not to be less than the minimum heating-off temperature (T_ off _ min) and ii) a maximum heating-on temperature (T_ on _ max) is set as a temperature that is a predetermined temperature lower than the room temperature (T_ set) set by the user, whereby the heating-on temperature that is compensated by the compensation value determined according to undershoot is controlled not to be higher than the maximum-on temperature (T_ on _ max). i) a minimum heating-off temperature (T_ off _ min) is set as a temperature that is a predetermined temperature higher than the room temperature (T_ set) set by the user, whereby the heating-off temperature that is compensated by the compensa-tion value determined according to overshoot is controlled not to be less than the minimum heating-off temperature (T_ off _ min) and ii) a maximum heating-on temperature (T_ on _ max) is set as a temperature that is a predetermined temperature lower than the room temperature (T_ set) set by the user, whereby the heating-on temperature that is compensated by the compensation value determined according to undershoot is controlled not to be higher than the maximum-on temperature (T_ on _ max).
A system for forming a flexible mat having a sheet of open mesh embedded in and interconnecting a plurality of blocks of a hardened paste comprising: a rotatable drum having a plurality of mold cavities about an outer periphery thereof that receives a hardenable paste; a sheet of open mesh that is fed over the mold cavities so that the sheet of open mesh is embedded in the hardenable paste deposited in the mold cavities; and a flexible sheet that is placed against the outer periphery of the drum over the mold cavities containing the hardenable paste and the sheet of open mesh of the rotating drum to cover the mold cavities and thereby retain the hardenable paste within the mold cavities and retain the sheet of open mesh embedded in the hardenable paste as the hardenable paste solidifies to form the flexible mat, wherein the flexible sheet is sufficiently wide to extend the entire width of the drum and a width approximately equal to the width of the drum, characterized in that the flexible sheet is a plastic sheet having a non-stick surface facing the mold cavities. a rotatable drum having a plurality of mold cavities about an outer periphery thereof that receives a hardenable paste; a sheet of open mesh that is fed over the mold cavities so that the sheet of open mesh is embedded in the hardenable paste deposited in the mold cavities; and a flexible sheet that is placed against the outer periphery of the drum over the mold cavities containing the hardenable paste and the sheet of open mesh of the rotating drum to cover the mold cavities and thereby retain the hardenable paste within the mold cavities and retain the sheet of open mesh embedded in the hardenable paste as the hardenable paste solidifies to form the flexible mat, wherein the flexible sheet is sufficiently wide to extend the entire width of the drum and a width approximately equal to the width of the drum, characterized in that the flexible sheet is a plastic sheet having a non-stick surface facing the mold cavities.
A conductor pad (102-1 to 102-n; 102a to 102e) comprising: a first contact region (125; 125-1); a second contact region (130; 130-1); and a body portion configured to establish a conductive path between the first contact region (125; 125-1) and the second contact region (130; 130-1); wherein the first contact region (125; 125-1) and the second contact region (130; 130-1) are intersected by a horizontal axis of the conductor pad (102-1 to 102-n; 102a to 102e) or are vertically spaced from each other relative to the horizontal axis; the body portion comprising conductive material having a perimeter edge, the perimeter edge comprising on each side of the horizontal axis: a first convex segment; a second convex segment; and a first non-convex segment (NC-1) disposed between the first convex segment and the second convex segment. a first contact region (125; 125-1); a second contact region (130; 130-1); and a body portion configured to establish a conductive path between the first contact region (125; 125-1) and the second contact region (130; 130-1); wherein the first contact region (125; 125-1) and the second contact region (130; 130-1) are intersected by a horizontal axis of the conductor pad (102-1 to 102-n; 102a to 102e) or are vertically spaced from each other relative to the horizontal axis; the body portion comprising conductive material having a perimeter edge, the perimeter edge comprising on each side of the horizontal axis: a first convex segment; a second convex segment; and a first non-convex segment (NC-1) disposed between the first convex segment and the second convex segment. a first convex segment; a second convex segment; and a first non-convex segment (NC-1) disposed between the first convex segment and the second convex segment.
A method, comprising: receiving, by a computer-implemented data collector via a network, a first noise-injected one-bit value from each of a plurality of first computing devices having a first software application, each first noise-injected one-bit value being representative of a measured value that corresponds to usage of a resource of the first computing device from which it was received; receiving, by the computer-implemented data collector via the network, a second noise-injected one-bit value from each of a plurality of second computing devices having a second software application, each second noise-injected one-bit value being representative of a measured value that corresponds to usage of a resource of the second computing device from which it was received, the first software applications being different with respect to the second software applications in terms of at least one user or at least one feature; calculating, by a computer-implemented data analyzer, a binomial distribution mean of the first noise-injected one-bit values; calculating, by the computer-implemented data analyzer, a binomial distribution mean of the second noise-injected one-bit values; and determining, by the computer-implemented data analyzer, an effect of the difference between the first software applications and the second software applications by performing an analysis based on the binomial distribution mean of the first noise-injected one-bit values and the binomial distribution mean of the second noise-injected one-bit values. receiving, by a computer-implemented data collector via a network, a first noise-injected one-bit value from each of a plurality of first computing devices having a first software application, each first noise-injected one-bit value being representative of a measured value that corresponds to usage of a resource of the first computing device from which it was received; receiving, by the computer-implemented data collector via the network, a second noise-injected one-bit value from each of a plurality of second computing devices having a second software application, each second noise-injected one-bit value being representative of a measured value that corresponds to usage of a resource of the second computing device from which it was received, the first software applications being different with respect to the second software applications in terms of at least one user or at least one feature; calculating, by a computer-implemented data analyzer, a binomial distribution mean of the first noise-injected one-bit values; calculating, by the computer-implemented data analyzer, a binomial distribution mean of the second noise-injected one-bit values; and determining, by the computer-implemented data analyzer, an effect of the difference between the first software applications and the second software applications by performing an analysis based on the binomial distribution mean of the first noise-injected one-bit values and the binomial distribution mean of the second noise-injected one-bit values.
Vehicle seat, in particular a motor vehicle seat comprising a backrest which can be pivoted about a backrest pivot axis, at least one seat rail pair for longitudinal seat adjustment of the vehicle seat, a locking device for locking the at least one seat rail pair, at least one lockable fitting being provided for the articulation of the backrest with respect to a seat part, and the backrest being pivotable into an easy entry position which can be assumed for easier accessibility to a seat row, the vehicle seat comprising an easy entry mechanism which comprises a latch arranged on a rotating ring, which latch can be caught by an easy entry stop arranged on the backrest during the pivoting of the backrest into the easy entry position and driven therewith following the movement of the backrest, it being possible, by means of an easy entry actuation element, to bring the latch from an easy entry stop starting position into an easy entry stop actuation position in which the latch can be caught by the easy entry stop, the easy entry actuation element ensuring, during actuation of an easy entry triggering element operatively connected to the easy entry actuation element via a first Bowden cable, a movement of the easy entry actuation element, the easy entry actuation element comprising a Bowden holder for the end of the first Bowden cable that is arranged in the easy entry mechanism, which Bowden cable is connected by its other end to the easy entry triggering element, such that the easy entry actuation element brings the latch, in its actuation position, into the easy entry stop actuation position by means of an operative connection between the latch and the easy entry actuation element, characterized in that the latch is rotatably mounted in a rotating ring, which is rotatably mounted on the backrest rotational axis, on a latch pivot axis arranged in parallel with the backrest pivot axis, a pulling element being fixedly arranged on the rotating ring.
A nanostructure comprising a nanocrystal core, the nanocrystal core comprising InP, a first thin shell and a second thin shell, wherein the first thin shell comprises ZnSe and has a thickness between about 0.25 nm and about 0.8 nm, and wherein the second thin shell comprises ZnS and has a thickness between about 0.09 nm and about 0.3 nm, and wherein the nanostructure exhibits an optical density at 450 nm on a per mass basis of between about 0.30 cm 2 /mg and about 0.50 cm 2 /mg.