mhurhangee/ep-ind-claims huggingface dataset:
A composite sandwich panel comprising: a lower facing sheet; a first core layer attached to the lower facing sheet; a first structural ply attached to the first core layer opposite the lower facing sheet; a perforated heating element bonded to the first structural ply opposite the first core layer; a second structural ply bonded to the perforated heating element opposite the first structural ply; a second core layer attached to the second structural ply opposite the heating element; and an upper facing sheet attached to the second core layer opposite the second structural ply. a lower facing sheet; a first core layer attached to the lower facing sheet; a first structural ply attached to the first core layer opposite the lower facing sheet; a perforated heating element bonded to the first structural ply opposite the first core layer; a second structural ply bonded to the perforated heating element opposite the first structural ply; a second core layer attached to the second structural ply opposite the heating element; and an upper facing sheet attached to the second core layer opposite the second structural ply.
A bead having end point attached mannose and end point attached heparin made according to the following method, the method comprising: contacting an aminated bead with an aqueous solution containing a mannose and heparin to form a Schiff base intermediate; and contacting the Schiff base with a reducing agent to attach said mannose and heparin. contacting an aminated bead with an aqueous solution containing a mannose and heparin to form a Schiff base intermediate; and contacting the Schiff base with a reducing agent to attach said mannose and heparin.
An information processing apparatus (20, 40) comprising: a base station position estimating means (224, 424) adapted to estimate position information of a base station based on signal strength measurement information collected from wireless signals transmitted from a plurality of base stations, wherein the apparatus is characterized by further comprising an estimation result evaluating means (228, 428) adapted to determine a determined index corresponding to reliability of an estimated position information for the base station; and an information management means (232, 234, 434) configured to update a stored base station position information using the estimated position information when the determined index indicates a higher reliability than a stored index for the base station. a base station position estimating means (224, 424) adapted to estimate position information of a base station based on signal strength measurement information collected from wireless signals transmitted from a plurality of base stations, wherein the apparatus is characterized by further comprising an estimation result evaluating means (228, 428) adapted to determine a determined index corresponding to reliability of an estimated position information for the base station; and an information management means (232, 234, 434) configured to update a stored base station position information using the estimated position information when the determined index indicates a higher reliability than a stored index for the base station.
A collimating system for collimating radiation received under different angles for performing tomography, the collimating system comprising a static collimator comprising a plurality of collimating apertures, shutters for selectively and temporarily shutting at least two of said collimating apertures, wherein the shutters having a shutting element for closing said at least two collimating apertures, characterised in that the collimating system further comprises at least one collimating element distinct from the shutting element for collimating radiation passing through non-shutted collimating apertures in a direction so as to control overlap between radiation stemming from different non-shutted collimating apertures.
A method for extending a surface penetrating radar, SPR, footprint for performing localization of a vehicle equipped with an SPR system, the method comprising: transmitting at least one SPR signal from at least one SPR transmit element; receiving a response signal via at least two SPR receive elements, the response signal including, at least in part, a reflection of the SPR signal from an object; determining that the object is in a region of interest and is not underneath an SPR antenna array including determining a distance from the object based on a difference in phase at which the response signal is received at the at least two SPR receive elements; and creating or expanding a subsurface map associated with performing localization of the vehicle using the SPR system based at least in part on the object. transmitting at least one SPR signal from at least one SPR transmit element; receiving a response signal via at least two SPR receive elements, the response signal including, at least in part, a reflection of the SPR signal from an object; determining that the object is in a region of interest and is not underneath an SPR antenna array including determining a distance from the object based on a difference in phase at which the response signal is received at the at least two SPR receive elements; and creating or expanding a subsurface map associated with performing localization of the vehicle using the SPR system based at least in part on the object.
A pharmaceutical composition for use in amelioration, prevention or treatment of an inflammatory condition in a mucous membrane or skin of a subject, wherein the pharmaceutical composition comprises from 0.001 to 2 % (w/v) of propane-1,2-diol and at least one bioadhesive polymer; and the pharmaceutical composition lacks any anti-inflammatory agent besides propane-1,2-diol. the pharmaceutical composition comprises from 0.001 to 2 % (w/v) of propane-1,2-diol and at least one bioadhesive polymer; and the pharmaceutical composition lacks any anti-inflammatory agent besides propane-1,2-diol.
A turbo pump vent assembly (10A, 10B, 10C), comprising: a primary manual actuator (70A, 70B, 70C) operable to deliver an initial volume of air (90A, 90B1, 90B2, 90C) to a turbo pump; and a secondary manual actuator (190A, 210B, 70C) operable to deliver a secondary volume of air to said turbo pump, wherein said secondary volume of air is greater than said initial volume of air, wherein said primary manual actuator has a vent position where said initial volume of air is delivered to said turbo pump and a decoupled position where said initial volume of air is prevented from being delivered to said turbo pump, and wherein a source of said initial volume of air (90A, 90B1, 90B2, 90C) comprises a reservoir operable to retain a stored volume of air when in said decoupled position and to deliver said stored volume of air as said initial volume of air to said turbo pump when in said vent position. a primary manual actuator (70A, 70B, 70C) operable to deliver an initial volume of air (90A, 90B1, 90B2, 90C) to a turbo pump; and a secondary manual actuator (190A, 210B, 70C) operable to deliver a secondary volume of air to said turbo pump, wherein said secondary volume of air is greater than said initial volume of air, wherein said primary manual actuator has a vent position where said initial volume of air is delivered to said turbo pump and a decoupled position where said initial volume of air is prevented from being delivered to said turbo pump, and wherein a source of said initial volume of air (90A, 90B1, 90B2, 90C) comprises a reservoir operable to retain a stored volume of air when in said decoupled position and to deliver said stored volume of air as said initial volume of air to said turbo pump when in said vent position.
Method for operating a user interface in a vehicle, wherein the user interface can be used to operate at least one function by means of an operating gesture, in which a gesture performed by means of an operating element is captured in a capture area (6, 18) which is a volume in front of a display surface assigned to the user interface, a confidence measure (K e) which indicates the certainty that the gesture corresponds to the operating gesture is determined, if it is determined that the determined confidence measure (K e) is below a stipulated confidence value (K o), the gesture is not recognized as the operating gesture, and system feedback is generated, wherein the system feedback comprises an indication of correct performance of the operating gesture, characterized in that the capture area is subdivided into a plurality of sectors (18.1-18.7), wherein at least one first sector (18.1) constitutes an optimum region for capturing gestures in which a correctly performed gesture is unequivocally recognized, and at least one second sector (18.2-18.7) constitutes a non-optimum region for capturing gestures in which, although a gesture is captured, it is not unequivocally recognized, and it is captured whether the gesture is performed in the optimum region of the capture area, and the confidence measure (K e) is below the stipulated confidence value (K o) if it is determined that the gesture was at least partially performed outside the optimum region.
An active matrix substrate, comprising an insulating substrate, switching elements and pixel electrodes on the insulating substrate, the pixel electrodes being connected to the switching elements, the pixel electrodes being provided in a matrix manner in a display area of the insulating substrate, a frame area being provided so as to surround the display area, the frame area having a drive circuit for driving the switching elements, the drive circuit including a plurality of circuit sections having respective drive elements, the frame area having a first line (41a, 41b, 44) and a second line, which are provided on the insulating substrate, the first and second lines (41a, 41b, 44; 43) supplying signals to the drive elements, the frame area having a first insulating layer being provided between the first line (41a, 41 b, 44) and the second line, the frame area having a second insulating layer being provided so as to cover the first insulating layer, the first line (41a, 41b, 44) and the second line, in a connecting section in which the first line (41a, 41b, 44) and the second line are connected to each other; the second insulating layer has a first contact hole, and both of the sides of either one of the first line (41a, 41b, 44) and the second line are disposed in the first contact hole in the planar view normal to a main surface of the insulating substrate, the sides specifying the width of the one of the first line (41a, 41b, 44) and the second line, and wherein the first insulating layer has a second contact hole (61A; 61C) formed in the first contact hole and the first line (41a, 41b, 44) and the second line are electrically connected to each other via a connecting conductor disposed in the first and second contact holes (61A, 61C), and wherein the first line, the first insulating layer, the second line, the second insulating layer, and the connecting conductor are sequentially laminated on the insulating substrate and characterized in that and characterized in that the first line (41a, 41b, 44) and the second line overlap with each over in the first contact hole (51, 61) in the planar view.
A septum comprising: a tube portion having an internal cavity therein; and a plug portion coupled to a distal end of the tube portion having a non-collapsed state and a collapsed state, the plug portion having a slit extending therethrough, the slit having a slit length extending between a distal end of the plug portion and a proximal end of the plug portion, the plug portion being offset from the tube portion such that when the septum is in the non-collapsed state some of the length of the slit extends distally from the distal end of the tube portion, when the septum transitions to the collapsed state the plug portion is moved proximally into the internal cavity such that less of the length of the slit extends distally from the distal end of the tube portion, characterized in that the plug portion is offset from the tube portion such that, when in the collapsed state, the tube portion applies an inward radial force against the plug portion to thereby seal the slit to prevent a fluid from passing through the slit. a tube portion having an internal cavity therein; and a plug portion coupled to a distal end of the tube portion having a non-collapsed state and a collapsed state, the plug portion having a slit extending therethrough, the slit having a slit length extending between a distal end of the plug portion and a proximal end of the plug portion, the plug portion being offset from the tube portion such that when the septum is in the non-collapsed state some of the length of the slit extends distally from the distal end of the tube portion, when the septum transitions to the collapsed state the plug portion is moved proximally into the internal cavity such that less of the length of the slit extends distally from the distal end of the tube portion, characterized in that the plug portion is offset from the tube portion such that, when in the collapsed state, the tube portion applies an inward radial force against the plug portion to thereby seal the slit to prevent a fluid from passing through the slit.
A solar heat collection system having a plurality of heat medium channels for heating a heat medium by virtue of solar heat and allowing the heat medium to flow, said solar heat collection system being capable of discharging the heat medium from the plurality of heat medium channels through the same discharge route, by introducing a gas into the heat medium channels from vents provided respectively on the heat medium channels, characterised in that the solar heat collection system includes a header which is a pipe connecting a plurality of the vents, the vents being configured to introduce the gas into the heat medium channels through the header.
A method for representing spatial audio, the spatial audio being a combination of directional sound and diffuse sound, the method comprising: creating a single- or multi-channel downmix audio signal by downmixing input audio signals from a plurality of microphones (m1, m2, m3) in an audio capture unit capturing the spatial audio; determining first metadata parameters associated with the downmix audio signal, wherein the first metadata parameters are indicative of one or more of: a relative time delay value, a gain value, and a phase value associated with each input audio signal; and combining the created downmix audio signal and the first metadata parameters into a representation of the spatial audio; characterized in that the downmixing to create a single- or multi-channel downmix audio signal x is described by: x = D ⋅ m wherein: D is a downmix matrix containing downmix coefficients defining weights for each input audio signal from the plurality of microphones, and m is a matrix representing the input audio signals from the plurality of microphones; wherein the downmix coefficients are chosen to select the input audio signal of the microphone currently having the best signal to noise ratio with respect to the directional sound, and to discard signal input audio signals from any other microphones. creating a single- or multi-channel downmix audio signal by downmixing input audio signals from a plurality of microphones (m1, m2, m3) in an audio capture unit capturing the spatial audio; determining first metadata parameters associated with the downmix audio signal, wherein the first metadata parameters are indicative of one or more of: a relative time delay value, a gain value, and a phase value associated with each input audio signal; and combining the created downmix audio signal and the first metadata parameters into a representation of the spatial audio; characterized in that the downmixing to create a single- or multi-channel downmix audio signal x is described by: x = D ⋅ m wherein: D is a downmix matrix containing downmix coefficients defining weights for each input audio signal from the plurality of microphones, and m is a matrix representing the input audio signals from the plurality of microphones; wherein the downmix coefficients are chosen to select the input audio signal of the microphone currently having the best signal to noise ratio with respect to the directional sound, and to discard signal input audio signals from any other microphones. D is a downmix matrix containing downmix coefficients defining weights for each input audio signal from the plurality of microphones, and m is a matrix representing the input audio signals from the plurality of microphones; wherein the downmix coefficients are chosen to select the input audio signal of the microphone currently having the best signal to noise ratio with respect to the directional sound, and to discard signal input audio signals from any other microphones.
A glazing comprising - a sheet of transparent glass or plastic with a first main face, a second main face and a rim; - a flat waveguide with a first main face, a second main face, an injection rim and a beveled rim, opposite the injection rim; - a light source positioned facing the injection rim of the flat waveguide and having sufficient power to inject therein a light flux of at least 35 lumens (lm), the flat waveguide being fixed via its second main face to the first main face of the sheet of glass, and the bevel of the waveguide is such that an angle (a) which corresponds to the angle formed by the rim with the first main face of the waveguide is an acute angle and is between 10° and 80°. - a sheet of transparent glass or plastic with a first main face, a second main face and a rim; - a flat waveguide with a first main face, a second main face, an injection rim and a beveled rim, opposite the injection rim; - a light source positioned facing the injection rim of the flat waveguide and having sufficient power to inject therein a light flux of at least 35 lumens (lm), the flat waveguide being fixed via its second main face to the first main face of the sheet of glass, and the bevel of the waveguide is such that an angle (a) which corresponds to the angle formed by the rim with the first main face of the waveguide is an acute angle and is between 10° and 80°.
An optical microscope comprising: a first stage manufactured from a flat material for supporting a sample; and a second stage manufactured from a flat material and engaged with the first stage and movable relative to the first stage, the second stage including an optic comprising one or more lenses for imaging the sample, the optic having a distance, in use, of less than about 3 mm from the sample to the opposite side of the optic; characterized in that the optical microscope further comprises an illumination stage manufactured from a flat material and comprising a light source, the illumination stage engaged with the first stage and second stage, the illumination stage movable with the second stage, the light source positioned adjacent to the first stage to facilitate viewing the sample using the optic; the optical microscope having bright field and filter field viewing capabilities wherein a user shifts from bright field to filter field by lateral movement of the second stage and the light source that cooperate to provide either the bright field or the filter field. a first stage manufactured from a flat material for supporting a sample; and a second stage manufactured from a flat material and engaged with the first stage and movable relative to the first stage, the second stage including an optic comprising one or more lenses for imaging the sample, the optic having a distance, in use, of less than about 3 mm from the sample to the opposite side of the optic; characterized in that the optical microscope further comprises an illumination stage manufactured from a flat material and comprising a light source, the illumination stage engaged with the first stage and second stage, the illumination stage movable with the second stage, the light source positioned adjacent to the first stage to facilitate viewing the sample using the optic; the optical microscope having bright field and filter field viewing capabilities wherein a user shifts from bright field to filter field by lateral movement of the second stage and the light source that cooperate to provide either the bright field or the filter field.
Composition comprising Nabilone and randomly methylated ß cyclodextrin (RAMEB) in the weight ratio (dry weight to dry weight) of 1:60 - 1:140, preferably in the weight ratio of 1:90 - 1:110 and wherein Nabilone and RAMEB are comprised as an aqueous soluble complex.
A switch, comprising: a tunnel management module configured to operate the switch as a tunnel gateway capable of terminating an overlay tunnel for receiving data packets; a packet processor coupled to the tunnel management module and configured to identify, in a received data packet, a virtual Internet Protocol address associated with a virtual tunnel gateway, wherein the virtual tunnel gateway is associated with the switch, and wherein the received data packet is associated with the overlay tunnel; wherein the switch is configured to recognise the virtual IP address of the data packet as a local address, and in response to such recognition, to extract an inner packet of the received data packet; and a forwarding module configured to determine an output port for the inner packet based on a destination address of the inner packet. a tunnel management module configured to operate the switch as a tunnel gateway capable of terminating an overlay tunnel for receiving data packets; a packet processor coupled to the tunnel management module and configured to identify, in a received data packet, a virtual Internet Protocol address associated with a virtual tunnel gateway, wherein the virtual tunnel gateway is associated with the switch, and wherein the received data packet is associated with the overlay tunnel; wherein the switch is configured to recognise the virtual IP address of the data packet as a local address, and in response to such recognition, to extract an inner packet of the received data packet; and a forwarding module configured to determine an output port for the inner packet based on a destination address of the inner packet.
A mouth-opening measuring instrument used for measuring the amount of mouth-opening between an upper jaw and a lower jaw, comprising: an engagement part to be engaged with a first reference tooth in one of the jaws; a measuring surface on which a second reference tooth in the other of the jaws is to abut while the engagement part is engaged with the first reference tooth; first scale marks given on the measuring surface and indicating a distance from the engagement part; and second scale marks given on the measuring surface and indicating a position in a direction perpendicular to a direction where the first scale marks are given, wherein the mouth-opening measuring instrument has a columnar shape with a curved part in cross section; and wherein the measuring surface includes a curved surface along which the measuring surface between the engagement part and a position on the measuring surface separated from the engagement part bulges out from a plane connecting the engagement part and the position on the measuring surface. an engagement part to be engaged with a first reference tooth in one of the jaws; a measuring surface on which a second reference tooth in the other of the jaws is to abut while the engagement part is engaged with the first reference tooth; first scale marks given on the measuring surface and indicating a distance from the engagement part; and second scale marks given on the measuring surface and indicating a position in a direction perpendicular to a direction where the first scale marks are given, wherein the mouth-opening measuring instrument has a columnar shape with a curved part in cross section; and wherein the measuring surface includes a curved surface along which the measuring surface between the engagement part and a position on the measuring surface separated from the engagement part bulges out from a plane connecting the engagement part and the position on the measuring surface.