mhurhangee/ep-ind-claims huggingface dataset:
A suction motor comprising: a rotary shaft; an impeller fixed to one end of the rotary shaft; a bearing assembly installed on one side of the impeller and configured to rotatably support the rotary shaft; a permanent magnet installed on the rotary shaft on one side of the bearing assembly; a weight balance installed at another end of the rotary shaft on one side of the permanent magnet; and a stator assembly installed around the permanent magnet, wherein the weight balance is formed so that the impeller, and the permanent magnet and the weight balance achieve rotational balance based on the bearing assembly when the rotary shaft rotates. a rotary shaft; an impeller fixed to one end of the rotary shaft; a bearing assembly installed on one side of the impeller and configured to rotatably support the rotary shaft; a permanent magnet installed on the rotary shaft on one side of the bearing assembly; a weight balance installed at another end of the rotary shaft on one side of the permanent magnet; and a stator assembly installed around the permanent magnet, wherein the weight balance is formed so that the impeller, and the permanent magnet and the weight balance achieve rotational balance based on the bearing assembly when the rotary shaft rotates.
Ventilator apparatus, comprising at least one differential pressure measurement path and a differential pressure sensor, wherein the differential pressure measurement path has a flow channel with at least two measurement openings which are arranged between an inflow opening and an outflow opening of the flow channel and which are adjoined by measurement lines arranged in measurement nozzles, wherein a respiratory gas is guided from the inflow opening to the outflow opening through the flow channel in a principal flow direction and wherein a volumetric flow rate/differential pressure characteristic is realized by the differential pressure measurement path in conjunction with the differential pressure sensor, said characteristic lying between a linear curve a·X 1.0 + b and a curve describable by a·X 1.5 + b, wherein the coefficient b is approximately equal to 0 depending on the pressure sensor employed, wherein, in the principal flow direction of the respiratory gas through the flow channel, the flow channel has an at least partly ring-shaped embodiment or an embodiment as a ring segment, that the measurement nozzles are flanged onto the flow channel in such a way that the alignment of the measurement lines, at least in the region of the measurement openings, has an essential component that is tangential to the outer delimiting face of the flow channel and/or to the principal flow direction of the respiratory gas in the flow channel and that the alignment of a measurement line, at least in the region of a measurement opening, lies in an angular range of 0° to 60°, as measured from the axis defined by the local tangent in the direction of an axis which is orthogonal thereto and extends in the radial direction.
A video management system, comprising: surveillance data store for storing surveillance data from surveillance cameras (103-1, 103-2, 103-3, 103-4); and a backfill monitor, executing on the video management system, configured to execute a storage process configured to request surveillance data stored on the surveillance cameras and store the surveillance data to the surveillance data store in order to backfill surveillance data that is cached on the surveillance cameras, wherein the backfill monitor is configured to execute a network usage process configured to monitor usage of a network connecting the surveillance cameras to the server system and report a level of network usage to the storage process, and wherein the storage process is configured to decrease or increase a rate at which the surveillance cameras transfer the surveillance data to the surveillance data store based on the level of network usage during the backfill of the surveillance data that was cached on the surveillance cameras. surveillance data store for storing surveillance data from surveillance cameras (103-1, 103-2, 103-3, 103-4); and a backfill monitor, executing on the video management system, configured to execute a storage process configured to request surveillance data stored on the surveillance cameras and store the surveillance data to the surveillance data store in order to backfill surveillance data that is cached on the surveillance cameras, wherein the backfill monitor is configured to execute a network usage process configured to monitor usage of a network connecting the surveillance cameras to the server system and report a level of network usage to the storage process, and wherein the storage process is configured to decrease or increase a rate at which the surveillance cameras transfer the surveillance data to the surveillance data store based on the level of network usage during the backfill of the surveillance data that was cached on the surveillance cameras.
A connecting mechanism, connecting a flexible pipe to an outlet device, comprising a pipe fixing seat fixedly connected to a flexible pipe, an outlet fixing seat fixedly connected to an outlet device and a joint, the joint has a ball joint, water in the flexible pipe is deflected to the outlet device by the pipe fixing seat and the joint; wherein the joint is fixedly connected to the outlet fixing seat and the outlet fixing seat is disposed with a self-lock surface surrounding the ball joint; an end of the pipe fixing seat is concaved with an assembly groove, characterised in that: the groove opening of the assembly groove protrudes inwardly to form an anti-off portion, which connects the ball joint and the pipe fixing seat, the ball joint is assembled in the assembly groove by the elastic deformation of the end portion of the pipe fixing seat, the ball joint and the pipe fixing seat form a universal connection; the self-lock surface further surrounds the end portion of the pipe fixing seat to limit the deformation of the end portion of the pipe fixing seat so as to ensure the connection and prevent disconnection of the ball joint and pipe fixing seat.
Device for filling in the perimeter of an opening made in a wall to allow the passing of a conduit for evacuation of smoke, said device comprising a flat base having a front face and a rear face, said base having a periphery limited by an external rim and being provided with an internal opening (42, 46) which is limited by an internal rim associated to a gasket, said base being constructed for being put around said conduit with one among its front face and rear face (39, 40) facing one of the bearing surfaces of the wall, said gasket being supported by the external wall of the conduit, and the external rim of said base being conceived for extending beyond the space of said opening of the wall, a sealing means being further provided between said base and said bearing surface of said wall, said base comprising a rigid one-piece plate in which said internal opening is formed, and said gasket of said plate being shaped as a flat plate of an elastic material provided with an opening having dimensions which are smaller than the ones of the internal opening formed in said plate, said elastic plate constituting a gasket being fixed on one of the faces of said plate and its opening being centered or approximately centered with the one of said plate, characterised in that the means for fixing the elastic plate on one of the faces of the plate consists of an added structure one part of which is fixed on said plate and another part of which presses the elastic plate against one of the faces of said plate for obtaining its fixing by clamping.
A portable terminal comprising: a portable terminal main body adapted to display a plurality of functions of the terminal as a function list, collecting means for forming and saving a use log of the functions; and analyzing means for analyzing the use log and forming the function list, wherein said portable terminal further comprises a time zone setting function of setting an externally input time zone, wherein said collecting means is adapted to form and to save a use log of the functions in the time zone set by the time zone setting function, wherein said analyzing means is further adapted to save a plurality of function lists (191, 192,..., 19N), and in response to a function list display instruction, said portable terminal main body is further adapted to select, from the plurality of function lists (191, 192,..., 19N), a function list corresponding to the time zone including the time at which the display instruction is received, and to display the selected function list, wherein, when there is no function list corresponding to the time zone including the time at which the display instruction is received, said portable terminal main body is further adapted to select a function list corresponding to the time zone being closest to the time at which the display instruction is received. a portable terminal main body adapted to display a plurality of functions of the terminal as a function list, collecting means for forming and saving a use log of the functions; and analyzing means for analyzing the use log and forming the function list, wherein said portable terminal further comprises a time zone setting function of setting an externally input time zone, wherein said collecting means is adapted to form and to save a use log of the functions in the time zone set by the time zone setting function, wherein said analyzing means is further adapted to save a plurality of function lists (191, 192,..., 19N), and in response to a function list display instruction, said portable terminal main body is further adapted to select, from the plurality of function lists (191, 192,..., 19N), a function list corresponding to the time zone including the time at which the display instruction is received, and to display the selected function list, wherein, when there is no function list corresponding to the time zone including the time at which the display instruction is received, said portable terminal main body is further adapted to select a function list corresponding to the time zone being closest to the time at which the display instruction is received.
A canister for fluid collection and for use in a negative pressure wound therapy system, the canister having a canister top (836; 1036) and defining a fluid collection chamber (835; 1035), wherein the canister further comprises a sensor comprising: a first electrode including a first portion and a second portion, wherein the first portion of the first electrode is supported by the canister top, and the second portion of the first electrode is configured to extend into the fluid collection chamber; a second electrode including a first portion and a second portion, wherein the first portion of the second electrode is supported by the canister top, and the second portion of the second electrode is configured to extend into the fluid collection chamber; an electric circuit configured to detect an electrical property associated with the first and second electrodes; and characterized in that the canister further comprises an inner chamber disposed within the fluid collection chamber, the inner chamber bounded by the canister top (836; 1036), an inner wall (880; 1050A; 1050B) and a bottom end, wherein the second portion of the first and second electrodes is disposed within the inner chamber. a first electrode including a first portion and a second portion, wherein the first portion of the first electrode is supported by the canister top, and the second portion of the first electrode is configured to extend into the fluid collection chamber; a second electrode including a first portion and a second portion, wherein the first portion of the second electrode is supported by the canister top, and the second portion of the second electrode is configured to extend into the fluid collection chamber; an electric circuit configured to detect an electrical property associated with the first and second electrodes; and characterized in that the canister further comprises an inner chamber disposed within the fluid collection chamber, the inner chamber bounded by the canister top (836; 1036), an inner wall (880; 1050A; 1050B) and a bottom end, wherein the second portion of the first and second electrodes is disposed within the inner chamber.
A vane (62; 162; 262; 362; 462) for a gas turbine engine (10; 20) comprising: first and second endwalls (66, 64) each including a radially facing surface (70, 72) that bounds a gas path; and an airfoil section extending in a radial direction between the first and second endwalls (66, 64), extending in an axial direction between an airfoil leading edge and an airfoil trailing edge, and extending in a circumferential direction between pressure and suction sides (62P, 62S), wherein the radially facing surface (70, 72) of each of the first and second endwalls (66, 64) is axially sloped such that the gas path converges in the axial direction between the airfoil leading and trailing edges (62LE, 62TE), and the first endwall (66, 64) includes an axisymmetric contour extending in the circumferential direction between the pressure and suction sides (62PS, 62SS), wherein the first endwall (66, 64) extends in the circumferential direction between opposed mate faces, characterised in that: the axisymmetric contour is swept in the circumferential direction between the pressure and suction sides (62PS, 62SS) and respective ones of the opposed mate faces; and the axisymmetric contour has a sinusoidal cross sectional geometry. first and second endwalls (66, 64) each including a radially facing surface (70, 72) that bounds a gas path; and an airfoil section extending in a radial direction between the first and second endwalls (66, 64), extending in an axial direction between an airfoil leading edge and an airfoil trailing edge, and extending in a circumferential direction between pressure and suction sides (62P, 62S), wherein the radially facing surface (70, 72) of each of the first and second endwalls (66, 64) is axially sloped such that the gas path converges in the axial direction between the airfoil leading and trailing edges (62LE, 62TE), and the first endwall (66, 64) includes an axisymmetric contour extending in the circumferential direction between the pressure and suction sides (62PS, 62SS), wherein the first endwall (66, 64) extends in the circumferential direction between opposed mate faces, the axisymmetric contour is swept in the circumferential direction between the pressure and suction sides (62PS, 62SS) and respective ones of the opposed mate faces; and the axisymmetric contour has a sinusoidal cross sectional geometry.
A method of coupling a boot toe body (106, 178, 196, 272, 308, 404, 646, 662, 672, 680, 682, 692, 708) to a fin apparatus comprising a fin body (102, 174, 307) coupled to a boot coupling body (104, 176, 216, 226, 252, 302, 304, 306, 402, 408, 410, 600, 602, 604, 628, 648, 664, 668, 674, 684), the method comprising: connecting a first boot connector (138, 158, 330, 332, 430, 431, 606, 608) on a top portion (128, 254, 412, 610) of the boot coupling body to a first complementary boot connector (148, 160, 334, 432) on a top side (142, 274) of the boot toe body; and connecting a second boot connector (140, 162, 180, 258, 268, 270, 286, 288, 346, 418, 624, 654, 722) on a bottom portion (130, 256, 414, 612) of the boot coupling body to a second complementary boot connector (150, 164, 278, 280, 356, 434) on a bottom side (144, 276) of the boot toe body, wherein: the second complementary boot connector comprises a boot toe retaining surface (164, 280, 356, 434); the second boot connector comprises a boot retaining surface (162, 270, 288, 346) on a top side of the bottom portion of the boot coupling body; and connecting the second boot connector to the second complementary boot connector comprises: contacting the boot retaining surface and the boot toe retaining surface; and retaining the second boot connector against movement in a direction towards the fin body. connecting a first boot connector (138, 158, 330, 332, 430, 431, 606, 608) on a top portion (128, 254, 412, 610) of the boot coupling body to a first complementary boot connector (148, 160, 334, 432) on a top side (142, 274) of the boot toe body; and connecting a second boot connector (140, 162, 180, 258, 268, 270, 286, 288, 346, 418, 624, 654, 722) on a bottom portion (130, 256, 414, 612) of the boot coupling body to a second complementary boot connector (150, 164, 278, 280, 356, 434) on a bottom side (144, 276) of the boot toe body, wherein: the second complementary boot connector comprises a boot toe retaining surface (164, 280, 356, 434); the second boot connector comprises a boot retaining surface (162, 270, 288, 346) on a top side of the bottom portion of the boot coupling body; and connecting the second boot connector to the second complementary boot connector comprises: contacting the boot retaining surface and the boot toe retaining surface; and retaining the second boot connector against movement in a direction towards the fin body. the second complementary boot connector comprises a boot toe retaining surface (164, 280, 356, 434); the second boot connector comprises a boot retaining surface (162, 270, 288, 346) on a top side of the bottom portion of the boot coupling body; and connecting the second boot connector to the second complementary boot connector comprises: contacting the boot retaining surface and the boot toe retaining surface; and retaining the second boot connector against movement in a direction towards the fin body. contacting the boot retaining surface and the boot toe retaining surface; and retaining the second boot connector against movement in a direction towards the fin body.
A call error prevention method, said method comprising the steps of: receiving a call number input by a user; checking whether the input number comprises a call service code at a beginning portion thereof, if a key input for initiating a call is detected; determining whether the input number contains the same number of digits as the call service code, if the input number comprises a call service code at the beginning portion thereof; and generating an input error warning if there is a mismatch in the number of digits of the input number and the number of digits of the call service code. receiving a call number input by a user; checking whether the input number comprises a call service code at a beginning portion thereof, if a key input for initiating a call is detected; determining whether the input number contains the same number of digits as the call service code, if the input number comprises a call service code at the beginning portion thereof; and generating an input error warning if there is a mismatch in the number of digits of the input number and the number of digits of the call service code.
An abrasive article (200, 500, 600) comprising: a base having an annular shape defining a central opening, and having a central axis; a mounting assembly removably attached to the base; and a grinding segment comprising a grinding segment body coupled to a sector, wherein the mounting assembly exerts a clamping force on the sector, characterized in that the grinding segment is angled radially outward relative to the central axis, and the sector has a trapezoidal cross-sectional shape, wherein the sector comprises an upper surface and a lower surface, and wherein the upper surface and lower surface are substantially parallel to each other, wherein the trapezoidal cross-sectional shape is a quadrilateral shape wherein at least two sides are parallel to each other and a pair of sides define surfaces that are non-parallel to each other. a base having an annular shape defining a central opening, and having a central axis; a mounting assembly removably attached to the base; and a grinding segment comprising a grinding segment body coupled to a sector, wherein the mounting assembly exerts a clamping force on the sector, characterized in that the grinding segment is angled radially outward relative to the central axis, and the sector has a trapezoidal cross-sectional shape, wherein the sector comprises an upper surface and a lower surface, and wherein the upper surface and lower surface are substantially parallel to each other, wherein the trapezoidal cross-sectional shape is a quadrilateral shape wherein at least two sides are parallel to each other and a pair of sides define surfaces that are non-parallel to each other.
An optical system for routing a beam of electromagnetic energy, comprising: a telescope barrel having a first and second end, and a longitudinal axis defining a telescope; characterized in that it further comprises: at least one pass-through aperture located on the telescope barrel configured to permit a first beam of electromagnetic energy to enter the telescope barrel along a second axis, travel laterally across the telescope barrel, and exit the telescope barrel; a first mirror proximate the pass-through aperture and configured to reflect the first beam of electromagnetic energy from the second axis to a third axis; a second mirror proximate the first mirror, the second mirror configured to reflect the first beam of electromagnetic energy from the third axis to a fourth axis; and, an optical sensor proximate the second mirror, the optical sensor configured to receive and direct the first beam of electromagnetic energy from the fourth axis through an end of the telescope barrel along the longitudinal axis. a telescope barrel having a first and second end, and a longitudinal axis defining a telescope; characterized in that it further comprises: at least one pass-through aperture located on the telescope barrel configured to permit a first beam of electromagnetic energy to enter the telescope barrel along a second axis, travel laterally across the telescope barrel, and exit the telescope barrel; a first mirror proximate the pass-through aperture and configured to reflect the first beam of electromagnetic energy from the second axis to a third axis; a second mirror proximate the first mirror, the second mirror configured to reflect the first beam of electromagnetic energy from the third axis to a fourth axis; and, an optical sensor proximate the second mirror, the optical sensor configured to receive and direct the first beam of electromagnetic energy from the fourth axis through an end of the telescope barrel along the longitudinal axis. at least one pass-through aperture located on the telescope barrel configured to permit a first beam of electromagnetic energy to enter the telescope barrel along a second axis, travel laterally across the telescope barrel, and exit the telescope barrel; a first mirror proximate the pass-through aperture and configured to reflect the first beam of electromagnetic energy from the second axis to a third axis; a second mirror proximate the first mirror, the second mirror configured to reflect the first beam of electromagnetic energy from the third axis to a fourth axis; and, an optical sensor proximate the second mirror, the optical sensor configured to receive and direct the first beam of electromagnetic energy from the fourth axis through an end of the telescope barrel along the longitudinal axis.