mhurhangee/ep-ind-claims huggingface dataset:
Escape door for separating a tube of a traffic tunnel from an escape route subject to a positive air pressure comprising: - a door leaf that can close the opening between the tunnel tube and the escape route, - a first pivot bearing that is connected to the door leaf and that forms a first axis of rotation about which the door leaf can rotate between an open position and a closed position and - a door frame that frames the opening and on which the first pivot bearing is placed, wherein - the first pivot bearing is displaceable in a guideway that is formed along the door frame above the opening and is connected to the door leaf at a distance from the long sides (31, 33) on the upper side of thereof, - two lever arms (23a, 23b) are connected to the door leaf by second pivot bearings (21a, 21b) that form a second axis of rotation and that are fixed to the door frame by third pivot bearings (27a, 27b) that form a third axis of rotation and - the first, second and third axis of rotation are oriented parallel and the positive air pressure can act on both sides of the first axis of rotation onto the door leaf surface oriented to the escape route, characterized in that the first axis of rotation is positioned at an off-center distance from the long sides (31, 33) of the door leaf so that the positive air pressure can cause a torque for opening the door leaf that is in the escape route independently from the prevailing positive air pressure. - a door leaf that can close the opening between the tunnel tube and the escape route, - a first pivot bearing that is connected to the door leaf and that forms a first axis of rotation about which the door leaf can rotate between an open position and a closed position and - a door frame that frames the opening and on which the first pivot bearing is placed, wherein - the first pivot bearing is displaceable in a guideway that is formed along the door frame above the opening and is connected to the door leaf at a distance from the long sides (31, 33) on the upper side of thereof, - two lever arms (23a, 23b) are connected to the door leaf by second pivot bearings (21a, 21b) that form a second axis of rotation and that are fixed to the door frame by third pivot bearings (27a, 27b) that form a third axis of rotation and - the first, second and third axis of rotation are oriented parallel and the positive air pressure can act on both sides of the first axis of rotation onto the door leaf surface oriented to the escape route,
A toner sealing material, which is formed of a polyurethane foam produced by foaming a composition for polyurethane foam, wherein the composition for polyurethane foam is produced by blending a polyol comprising a polyester polyol and a polyether polyol, tolylene diisocyanate, a foaming agent, and a foam stabilizer, wherein the polyester polyol comprises a phthalate ester polyol, and the tolylene diisocyanate has a compositional mass ratio (2,4-tolylene diisocyanate/2,6-tolylene diisocyanate) of (65/35) to (70/30), wherein the composition for polyurethane foam has a mass ratio of the polyester polyol to the polyether polyol (polyester polyol/polyether polyol) of (70/30) to (30/70).
A carrier recovery system for a coherent receiver for receiving a phase-modulated signal, S(t), by means of an N -PSK modulation of said carrier where N is an even number, characterised in that it comprises: a signal pre-conditioning circuit to provide a pre-conditioned signal having an unmodulated component at a harmonic Nf c of the carrier frequency, f c, said unmodulated component at Nf c being obtained by multiplying the phase modulated signal and K = N 2 − 1 delayed versions of this signal by respective delays k T c N, with k = 1,..., K, each delay being defined within an integer multiple T c 2, where T c = 1 / f c the result of said multiplication being subjected to a quadratic function; a carrier regeneration circuit to generate a sinusoidal wave signal at the carrier frequency by phase locking to said harmonic. a signal pre-conditioning circuit to provide a pre-conditioned signal having an unmodulated component at a harmonic Nf c of the carrier frequency, f c, said unmodulated component at Nf c being obtained by multiplying the phase modulated signal and K = N 2 − 1 delayed versions of this signal by respective delays k T c N, with k = 1,..., K, each delay being defined within an integer multiple T c 2, where T c = 1 / f c the result of said multiplication being subjected to a quadratic function; a carrier regeneration circuit to generate a sinusoidal wave signal at the carrier frequency by phase locking to said harmonic.
Spiral staircase including steps held by a central core and an external stairwell, characterized in that the spiral staircase is printed in sections, each section including a flight of steps and an external stairwell which are produced by 3D printing from a material, and these sections being assembled with one another, the sections being of complete section around the longitudinal axis of the staircase.
A method of operating an unmanned aerial vehicle, UAV, said method comprising: determining a location of the UAV; identifying a plurality of geo-fencing devices (3110a, 3110b, 3110c) associated with the location of the UAV, wherein each geo-fencing device (3110a, 3110b, 3110c) is indicative of a set of flight regulations for the UAV in an area that is associated with the geo-fencing device (3110a, 3110b, 3110c); prioritizing, with aid of one or more processors, a master set of flight regulations the UAV is to follow, selected from the sets of flight regulations of the plurality of geo-fencing devices (3110a, 3110b, 3110c); and operating the UAV in accordance with the master set of flight regulations. determining a location of the UAV; identifying a plurality of geo-fencing devices (3110a, 3110b, 3110c) associated with the location of the UAV, wherein each geo-fencing device (3110a, 3110b, 3110c) is indicative of a set of flight regulations for the UAV in an area that is associated with the geo-fencing device (3110a, 3110b, 3110c); prioritizing, with aid of one or more processors, a master set of flight regulations the UAV is to follow, selected from the sets of flight regulations of the plurality of geo-fencing devices (3110a, 3110b, 3110c); and operating the UAV in accordance with the master set of flight regulations.
A mobile robot, comprising: a body; a left spin mop which is rotatably installed at the body and supports the body; a right spin mop which is rotatably installed at the body and supports the body; a left mop motor which configured to provide a driving force to the left spin mop and is installed at the body: a right mop motor which configured to provide a driving force to the right spin mop and is installed at the body; and a sensing module which is disposed at a lower surface of the body, and configured to obtain at least any one data of a moving distance or a moving speed during a predetermined period of time by detecting a traveling surface, wherein the sensing module is disposed between a virtual front horizontal line, formed by connecting a front end of the left spin mop and a front end of the right spin mop, and a virtual rear horizontal line formed by connecting a rear end of the left spin mop and a rear end of the right spin mop. a body; a left spin mop which is rotatably installed at the body and supports the body; a right spin mop which is rotatably installed at the body and supports the body; a left mop motor which configured to provide a driving force to the left spin mop and is installed at the body: a right mop motor which configured to provide a driving force to the right spin mop and is installed at the body; and a sensing module which is disposed at a lower surface of the body, and configured to obtain at least any one data of a moving distance or a moving speed during a predetermined period of time by detecting a traveling surface, wherein the sensing module is disposed between a virtual front horizontal line, formed by connecting a front end of the left spin mop and a front end of the right spin mop, and a virtual rear horizontal line formed by connecting a rear end of the left spin mop and a rear end of the right spin mop. a right mop motor which configured to provide a driving force to the right spin mop and is installed at the body; and a sensing module which is disposed at a lower surface of the body, and configured to obtain at least any one data of a moving distance or a moving speed during a predetermined period of time by detecting a traveling surface, wherein the sensing module is disposed between a virtual front horizontal line, formed by connecting a front end of the left spin mop and a front end of the right spin mop, and a virtual rear horizontal line formed by connecting a rear end of the left spin mop and a rear end of the right spin mop.
A kit, comprising: an aqueous composition having a pH of 6.0 to 7.2, the composition comprising effective amounts of a polyol, a buffer reagent, a protein, and ATP-diphosphohydrolase, wherein the ATP-diphosphohydrolase is present in the aqueous composition at a concentration of about 250 Units per liter to about 2500 Units per liter.
Device (1, 2, 3), comprising a source for emitting ultraviolet light, an inlet for letting in fluid to the device (1, 2, 3), an outlet for letting out fluid from the device (1, 2, 3), and means (51, 52) for performing a straightening action on a flow of fluid through the device (1, 2, 3), wherein the flow straightening means block ultraviolet light and are arranged in a fluid path from the inlet to the outlet, and wherein the flow straightening means comprise at least one element (51, 52) having inlet openings for letting in fluid at one side and outlet openings for letting out fluid at another side, wherein each inlet opening is in communication with a plurality of outlet openings, wherein the element (51, 52) comprises a maze of randomly arranged, interconnected holes for realizing a plurality of random fluid passages through the element (51, 52), and wherein the element (51, 52) is arranged for performing a flow straightening action at one of an inlet area and an outlet area of the device (1, 2, 3), and wherein the flow straightening element (51, 52) is arranged at a position for shielding at least one area (13, 14) of the device (1, 2, 3) from the ultraviolet light that is emitted by the ultraviolet source during operation of the device (1, 2, 3).
A coating with lubricating and anti-scratch properties, characterized in that it comprises glycidoxypropyltrimethoxysilane and phenyltriethoxysilane.
A balloon catheter comprising: a catheter shaft having flexibility with a lumen formed inside; a balloon that is disposed at the distal end side of the catheter shaft and in communication with the lumen; a fluid regulating portion that passes a fluid that is supplied from a fluid supply source to the balloon and, simultaneous with the supply from the fluid supply source being stopped, prevents backflow of the fluid that is supplied to the balloon to the fluid supply source side; a fluid releasing portion that releases the fluid that is supplied to the balloon to outside of the balloon, a valve portion that includes a connection opening connected to the distal end side of the catheter shaft, an attachment opening connected to the fluid supply source which supplies the fluid for expanding the balloon, and a release opening connected to an atmosphere, characterized in that the fluid releasing portion is disposed in the valve portion as a plug portion which selects either a first pipeline which communicates the connection opening with the attachment opening and a second pipeline which branches from the first pipeline and communicates the connection opening with the release opening, and the fluid regulating portion is disposed in a position between a position where the fluid releasing portion is disposed and the attachment opening at the first pipeline. a catheter shaft having flexibility with a lumen formed inside; a balloon that is disposed at the distal end side of the catheter shaft and in communication with the lumen; a fluid regulating portion that passes a fluid that is supplied from a fluid supply source to the balloon and, simultaneous with the supply from the fluid supply source being stopped, prevents backflow of the fluid that is supplied to the balloon to the fluid supply source side; a fluid releasing portion that releases the fluid that is supplied to the balloon to outside of the balloon, a valve portion that includes a connection opening connected to the distal end side of the catheter shaft, an attachment opening connected to the fluid supply source which supplies the fluid for expanding the balloon, and a release opening connected to an atmosphere, characterized in that the fluid releasing portion is disposed in the valve portion as a plug portion which selects either a first pipeline which communicates the connection opening with the attachment opening and a second pipeline which branches from the first pipeline and communicates the connection opening with the release opening, and the fluid regulating portion is disposed in a position between a position where the fluid releasing portion is disposed and the attachment opening at the first pipeline.
A method of non-destructively obtaining a genotype of a plant cell, the method comprising: (a) providing a plant cell sample comprising a plurality of plant cells; (b) isolating a single plant cell using an integrated microfluidic device, wherein the integrated microfluidic device comprises a microfluidic channel having an inlet through which the plurality of plant cells are introduced into the device, wherein the integrated microfluidic device further comprises an obstacle array configured to focus the sample of plant cells to a sidewall of the microfluidic channel, an electrode array configured to transport the focused cells to a trapping region located downstream from the electrode array, wherein the trapping region further comprises a microwell array configured as a single-cell trapping array to capture the single plant cell in the microwell of the microwell array; (c) extracting mRNA from the plant cell by contacting the plant cell with an external micro-manipulating instrument and by attracting mRNA from loci of interest to the micro-manipulating instrument using a dielectrophoresis force under the alternating current field applied to the micro-manipulating instrument, wherein the plant cell remains viable after extracting mRNA from the plant cell; and (d) determining the genotype of the plant cell from cDNA obtained from the extracted mRNA or analyzing the mRNA. (a) providing a plant cell sample comprising a plurality of plant cells; (b) isolating a single plant cell using an integrated microfluidic device, wherein the integrated microfluidic device comprises a microfluidic channel having an inlet through which the plurality of plant cells are introduced into the device, wherein the integrated microfluidic device further comprises an obstacle array configured to focus the sample of plant cells to a sidewall of the microfluidic channel, an electrode array configured to transport the focused cells to a trapping region located downstream from the electrode array, wherein the trapping region further comprises a microwell array configured as a single-cell trapping array to capture the single plant cell in the microwell of the microwell array; (c) extracting mRNA from the plant cell by contacting the plant cell with an external micro-manipulating instrument and by attracting mRNA from loci of interest to the micro-manipulating instrument using a dielectrophoresis force under the alternating current field applied to the micro-manipulating instrument, wherein the plant cell remains viable after extracting mRNA from the plant cell; and (d) determining the genotype of the plant cell from cDNA obtained from the extracted mRNA or analyzing the mRNA.
Method of pulling a single crystal by the FC method, in which a rod of polycrystalline semiconductor material is melted by means of a electromagnetic melting device and subsequently crystallized out as a single crystal, wherein an uneven distribution of the temperature of the single crystal occurring in the circumferential direction (R U) of the single crystal is at least partially compensated by means of an additional heating device, characterized in that the single crystal is additionally heated selectively at colder positions of its circumference by means of the additional heating device.
A print product production device comprising: a continuous paper supply unit; a digital printing unit; a section formation unit; a section block formation unit; a section block folding-in-two unit; and a sheet formation integration unit, the print product production device being configured to guide the continuous paper of the continuous paper supply unit to the units via a continuous paper guide path and process the continuous paper, one continuous paper guide path is induced to the section formation unit, and the section block formation unit and the section block folding-in-two unit are disposed at a downstream side of the section formation unit, characterised in that the continuous paper guide path having gone through the digital printing unit from the continuous paper supply unit is installed to be branched at a downstream side of the digital printing unit and in that the other continuous paper guide path is installed to be induced to the sheet formation integration unit.
Barbecue appliance comprising a lower housing, a cooking surface located in the lower housing, a hood positionable over the lower housing to define a cooking cavity, and a catalytic filter assembly, wherein the hood comprises a fixed part and a movable part, the movable part being configured to be opened and closed during operation of the barbecue appliance and the catalytic filter assembly being positioned in the fixed part of the hood, characterized in that only the movable part takes part in opening/closing operations of the hood.
A forklift truck with a carriage comprising: a frame; a first sideplate secured to the frame, the first sideplate comprising an upper portion, an intermediate portion, and a lower portion with a guide attached to the upper portion and a guide attached to the lower portion; a second sideplate secured to the frame, the second sideplate comprising an upper portion, an intermediate portion, and a lower portion with a guide attached to the upper portion and a guide attached to the lower portion; wherein the first and second sideplates (30, 35) are constructed and shaped such that when the first and second sideplates (30, 35) are secured to the frame a distance "D" between the intermediate portions (90, 95) of the first and second sideplates (30, 35) is greater than a distance "d" between the upper portions (80, 85) of the first and second sideplates (30, 35); wherein the first and second sideplates (30, 35) are constructed and shaped such that when the guides attached to the upper portions (80, 85) and lower portions (100, 105) of the first and second sideplates (30, 35) are within vertical channels of a mast (70, 75) the intermediate portions (90, 95) of the first and second sideplates (30, 35) are within the vertical channels of the mast (70, 75) and characterized in that the upper portions (80, 85) and the lower portions (100, 105) of the first and second sideplates (30, 35) are held externally of the vertical channels of the mast (70, 75). a frame; a first sideplate secured to the frame, the first sideplate comprising an upper portion, an intermediate portion, and a lower portion with a guide attached to the upper portion and a guide attached to the lower portion; a second sideplate secured to the frame, the second sideplate comprising an upper portion, an intermediate portion, and a lower portion with a guide attached to the upper portion and a guide attached to the lower portion; wherein the first and second sideplates (30, 35) are constructed and shaped such that when the first and second sideplates (30, 35) are secured to the frame a distance "D" between the intermediate portions (90, 95) of the first and second sideplates (30, 35) is greater than a distance "d" between the upper portions (80, 85) of the first and second sideplates (30, 35); wherein the first and second sideplates (30, 35) are constructed and shaped such that when the guides attached to the upper portions (80, 85) and lower portions (100, 105) of the first and second sideplates (30, 35) are within vertical channels of a mast (70, 75) the intermediate portions (90, 95) of the first and second sideplates (30, 35) are within the vertical channels of the mast (70, 75) and characterized in that the upper portions (80, 85) and the lower portions (100, 105) of the first and second sideplates (30, 35) are held externally of the vertical channels of the mast (70, 75).
A sweeping blade assembly comprising: a blade support comprising: a first blade support adapted to be removably attached to a vehicle; a second blade support; and a plurality of sweeping blade devices, each one of the sweeping blade devices comprising: a blade portion comprising two bushing holes, and a lower edge for sweeping a ground; a resilient material layer on said blade portion; and a resilient material bushing provided in each bushing hole and comprising a bushing for receiving a fastener for attaching the sweeping blade device to the first blade support and/or the second blade support; wherein the first blade support and the second blade support are configured to receive the sweeping blade devices therebetween and the second blade support being removably attachable to the sweeping blade devices, characterised in that the resilient material bushing comprises a ventilation hole for improved absorption of vibration and movement of the sweeping blade with respect to the first blade support and the second blade support. a blade support comprising: a first blade support adapted to be removably attached to a vehicle; a second blade support; and a first blade support adapted to be removably attached to a vehicle; a second blade support; and a plurality of sweeping blade devices, each one of the sweeping blade devices comprising: a blade portion comprising two bushing holes, and a lower edge for sweeping a ground; a resilient material layer on said blade portion; and a resilient material bushing provided in each bushing hole and comprising a bushing for receiving a fastener for attaching the sweeping blade device to the first blade support and/or the second blade support; a blade portion comprising two bushing holes, and a lower edge for sweeping a ground; a resilient material layer on said blade portion; and a resilient material bushing provided in each bushing hole and comprising a bushing for receiving a fastener for attaching the sweeping blade device to the first blade support and/or the second blade support;