mhurhangee/ep-ind-claims huggingface dataset:
A white light emitting diode, LED, package, comprising a single or multiple color LED chip array generating greater than 800 lumens at less than 3000 K, said LED chip array being arranged on a single planar substrate with a single overmolded lens; the package further comprising integrated thermal spreading structures, wherein said integrated thermal spreading structures comprise: a heat spreading layer internal to said substrate; a plurality of vias extending partially through said substrate; and an electrically neutral thermally conductive pad on an external surface of said substrate opposite said LED chip array and external to said plurality of vias such that said plurality of vias extend between said heat spreading layer and said conductive pad, wherein said plurality of vias are thermally connected to said conductive pad. a heat spreading layer internal to said substrate; a plurality of vias extending partially through said substrate; and an electrically neutral thermally conductive pad on an external surface of said substrate opposite said LED chip array and external to said plurality of vias such that said plurality of vias extend between said heat spreading layer and said conductive pad, wherein said plurality of vias are thermally connected to said conductive pad.
Non-intrinsically safely supplied measurement device comprising a connecting means for connecting of the measurement device to a feed connection to supply the measurement device with electricity, the connecting means having an "increased safety (Ex-e)" type of protection, an electronic means which contains electronic components of the measurement device, a display means, a sensor that is provided with one of an "increased safety (Ex-e)" and an "intrinsic safety (Ex-i)" type of protection, and at least one output circuit made without at least an "intrinsic safety (Ex-i)" type of protection, characterized in that the electronic means has an "encapsulation (Ex-m)" type of protection, the display means has an "intrinsic safety (Ex-i)" type of protection, and the display means, the sensor, and the output circuit are connected to the electronic means via connections which have an "increased safety (Ex-e)" type of protection.
An advanced oxidation assembly for generating free radicals comprising: a first discharge device; a second discharge device; and a convergent-divergent nozzle assembly comprising a convergent nozzle that is fluidly coupled to a divergent nozzle at a throat, wherein a reactor exit of the first discharge device and a reactor exit of the second discharge device are fluidly coupled to the convergent-divergent nozzle assembly at the throat of the convergent-divergent nozzle assembly, and wherein the assembly is configured such that when fluid passes from the convergent nozzle to the divergent nozzle a suction pressure is created at the throat of the convergent-divergent nozzle assembly that draws fluid from the reactor exit of the first discharge device and the reactor exit of the second discharge device. a first discharge device; a second discharge device; and a convergent-divergent nozzle assembly comprising a convergent nozzle that is fluidly coupled to a divergent nozzle at a throat, wherein a reactor exit of the first discharge device and a reactor exit of the second discharge device are fluidly coupled to the convergent-divergent nozzle assembly at the throat of the convergent-divergent nozzle assembly, and wherein the assembly is configured such that when fluid passes from the convergent nozzle to the divergent nozzle a suction pressure is created at the throat of the convergent-divergent nozzle assembly that draws fluid from the reactor exit of the first discharge device and the reactor exit of the second discharge device.
A method for fabricating a multilayered metal nanowire array, said method comprising: stacking a plurality of porous templates so that a gap forms between each adjacent pair of templates; depositing a metal in the pores of the templates so that the metal produces nanowires in the templates and lateral interposers in the gaps between the templates; and dissolving the templates so as to produce the multilayered nanowire array including the lateral interposers. stacking a plurality of porous templates so that a gap forms between each adjacent pair of templates; depositing a metal in the pores of the templates so that the metal produces nanowires in the templates and lateral interposers in the gaps between the templates; and dissolving the templates so as to produce the multilayered nanowire array including the lateral interposers.
A method of performing a drilling operation in an earth formation, the method comprising: drilling a borehole (72, 92) within the earth formation; receiving data acquired within the borehole (72, 92) in the earth formation; analyzing the data to locate a plurality of data structures formed by the data, the plurality of data structures including a first structure at a first location and a second structure at a second location; characterised by projecting the first structure as a first geological projection intersecting the first location, and projecting the second structure as a second geological projection intersecting the second location; classifying the first geological projection and the second geological projection based on a hierarchy of geological feature types to generate a hierarchical classification (104, 106); and adjusting one or more of the first geological projection and the second geological projection based on the hierarchical classification (104, 106), wherein analyzing the data includes estimating an orientation of the first geological projection and the second geological projection based on the data. drilling a borehole (72, 92) within the earth formation; receiving data acquired within the borehole (72, 92) in the earth formation; analyzing the data to locate a plurality of data structures formed by the data, the plurality of data structures including a first structure at a first location and a second structure at a second location; characterised by projecting the first structure as a first geological projection intersecting the first location, and projecting the second structure as a second geological projection intersecting the second location; classifying the first geological projection and the second geological projection based on a hierarchy of geological feature types to generate a hierarchical classification (104, 106); and adjusting one or more of the first geological projection and the second geological projection based on the hierarchical classification (104, 106), wherein analyzing the data includes estimating an orientation of the first geological projection and the second geological projection based on the data.
A composition, which is an acrylic rubber composition comprising an acrylic rubber and a perfluororesin, wherein the perfluororesin is a TFE/HFP/PAVE copolymer, the acrylic rubber composition has a ratio of the acrylic rubber to the perfluororesin (acrylic rubber /perfluororesin) of 97/3 to 55/45 (v/v), and the melting point (measured with ASTM D-4591) of the perfluororesin is equal to or higher than the cross-linking temperature of the acrylic rubber.
Lithium silicate glass ceramic which comprises hexavalent metal oxide selected from MoO 3, WO 3 and mixtures thereof and 12.0 to 20.0 wt.-% Li 2 O and comprises less than 2.0 wt.-% K 2 O.
A method of controlling a load wrapping apparatus of the type configured to wrap a load on a load support with packaging material dispensed from a packaging material dispenser through relative rotation between the packaging material dispenser and the load support, characterized in that the method comprises: causing a graphical depiction of at least a portion of a load to be wrapped to be displayed on an operator interface; causing a selected number of layers of packaging material to be used when wrapping the load to be displayed graphically using non-alphanumeric information in the graphical depiction; causing a selected wrap force to be used when wrapping the load to be displayed graphically using non-alphanumeric information in the graphical depiction; calculating, based upon the selected wrap force, the selected number of layers of packaging material, and a packaging material attribute for the packaging material, a projected containment force to be used when wrapping the load with packaging material; causing the projected containment force to be displayed on the operator interface; and in response to input data that alters the selected wrap force or the selected number of layers, recalculating the projected containment force and causing the recalculated projected containment force to be displayed on the operator interface. causing a graphical depiction of at least a portion of a load to be wrapped to be displayed on an operator interface; causing a selected number of layers of packaging material to be used when wrapping the load to be displayed graphically using non-alphanumeric information in the graphical depiction; causing a selected wrap force to be used when wrapping the load to be displayed graphically using non-alphanumeric information in the graphical depiction; calculating, based upon the selected wrap force, the selected number of layers of packaging material, and a packaging material attribute for the packaging material, a projected containment force to be used when wrapping the load with packaging material; causing the projected containment force to be displayed on the operator interface; and in response to input data that alters the selected wrap force or the selected number of layers, recalculating the projected containment force and causing the recalculated projected containment force to be displayed on the operator interface.
A topical instillate comprising: (a) 0.1 mg/ml to 40 mg/ml of one or more cannabinoids; (b) 25 mg/ml to 1000 mg/ml of one or more terpenes; (c) 10 mg/ml to 500 mg/ml of one or more flavonoids; and (d) a liquid carrier selected for instillation of the instillate onto an integumentary wound. (a) 0.1 mg/ml to 40 mg/ml of one or more cannabinoids; (b) 25 mg/ml to 1000 mg/ml of one or more terpenes; (c) 10 mg/ml to 500 mg/ml of one or more flavonoids; and (d) a liquid carrier selected for instillation of the instillate onto an integumentary wound.
A milling assembly configured to be replaceably, but reliably and durably fastened at a frame of a ground milling machine according to any one of claim 5-9, the milling assembly comprising: a drum housing extending longitudinally along a housing axis; and a plurality of mounting units (44, 46) fixed to the drum housing for mounting the milling assembly to the frame, characterized in that each mounting unit (44, 46) is formed as a wedge-shaped protrusion extending from the drum housing in a radial direction of the housing axis and includes a first face extending in a virtual plane substantially perpendicular to a housing axis of the drum housing, and an opposing second face extending non-parallel to the first face, and each mounting unit (44, 46) includes a plurality of mounting holes configured to receive a respective end portion of one of the plurality of movable locking rods of the actuator assembly of the ground milling machine according to any of claims 5 to 9, the mounting holes extending from the first face. a drum housing extending longitudinally along a housing axis; and a plurality of mounting units (44, 46) fixed to the drum housing for mounting the milling assembly to the frame, characterized in that each mounting unit (44, 46) is formed as a wedge-shaped protrusion extending from the drum housing in a radial direction of the housing axis and includes a first face extending in a virtual plane substantially perpendicular to a housing axis of the drum housing, and an opposing second face extending non-parallel to the first face, and each mounting unit (44, 46) includes a plurality of mounting holes configured to receive a respective end portion of one of the plurality of movable locking rods of the actuator assembly of the ground milling machine according to any of claims 5 to 9, the mounting holes extending from the first face.
A pharmaceutical composition for use in the treatment of myeloma in a subject, when administered to the subject in an effective amount, wherein the pharmaceutical composition comprises ganoderic acid S and ganoderic acid T in a weight ratio of 1:1.85; an anti-cancer drug being paclitaxel or etoposide and a pharmaceutically acceptable excipient.
A method, comprising: receiving an input visual dynamic range, VDR, image in a sequence of input images, said VDR being wide or high dynamic range, wherein the input VDR image comprises a first bit depth; selecting an advanced quantization function from a plurality of available advanced quantization functions, applying the selected advanced quantization function to the input VDR image to generate an input base layer image, whereby the input base layer image comprises a second bit depth, which is lower than the first bit depth; compressing image data derived from the input base layer image into a base layer, BL, video signal; and compressing residual image data between the input VDR image and a prediction image, having the first bit depth, generated from the input base layer image using intra-prediction, inter-prediction or inter-layer prediction, into one or more enhancement layer, EL, video signals at the second bit depth using a non-linear quantizer, wherein the sequence of input images includes a fade-in or a fade-out transition and wherein for each input VDR image of the fade-in or fade-out transition the selected advanced quantization function is a linear stretching function, s ji = Q i ν ji = ⌊ c H, max − c L, min ν H, i − ν L, i ν ji − ν L, i + c L, min + O ⌋, where v ji denotes a j -th pixel of an i -th input VDR image of the fade-in or fade-out transition in the sequence of input images, s ji denotes a j -th pixel of the generated i- th input base layer image, v L,i and v H,i denote a minimum and a maximum pixel value among pixels in the i -th input VDR image, c L,min and c H,max denote a minimum and a maximum pixel value in a previous or next scene without fade-in or fade-out, and O is a round-off constant. receiving an input visual dynamic range, VDR, image in a sequence of input images, said VDR being wide or high dynamic range, wherein the input VDR image comprises a first bit depth; selecting an advanced quantization function from a plurality of available advanced quantization functions, applying the selected advanced quantization function to the input VDR image to generate an input base layer image, whereby the input base layer image comprises a second bit depth, which is lower than the first bit depth; compressing image data derived from the input base layer image into a base layer, BL, video signal; and compressing residual image data between the input VDR image and a prediction image, having the first bit depth, generated from the input base layer image using intra-prediction, inter-prediction or inter-layer prediction, into one or more enhancement layer, EL, video signals at the second bit depth using a non-linear quantizer,
A method for a spatial multiplexing, SM, transmission by using multiple antennas in a wireless access system, the method comprising: determining a first phase shift based precoding matrix, phase shifted at a predetermined phase angle, from a code book; performing a first transmission of a sub-carrier symbol to a receiver based on the first phase shift based precoding matrix, wherein the first phase shift based precoding matrix is a two by two matrix for the SM transmission; receiving feedback information related to the first transmission; reconstructing the phase shift based precoding matrix to reduce a spatial multiplexing rate if a negative reception acknowledgment, NACK, feedback is received from the receiver; and performing a retransmission of the transmitted sub-carrier symbol based on the reconstructed phase shift based precoding matrix which is configured only with one of the columns from the first phase shift based precoding matrix, wherein a spatial multiplexing rate of the first transmission is two and a spatial multiplexing rate of the retransmission is one. determining a first phase shift based precoding matrix, phase shifted at a predetermined phase angle, from a code book; performing a first transmission of a sub-carrier symbol to a receiver based on the first phase shift based precoding matrix, wherein the first phase shift based precoding matrix is a two by two matrix for the SM transmission; receiving feedback information related to the first transmission; reconstructing the phase shift based precoding matrix to reduce a spatial multiplexing rate if a negative reception acknowledgment, NACK, feedback is received from the receiver; and performing a retransmission of the transmitted sub-carrier symbol based on the reconstructed phase shift based precoding matrix which is configured only with one of the columns from the first phase shift based precoding matrix, wherein a spatial multiplexing rate of the first transmission is two and a spatial multiplexing rate of the retransmission is one.
A method for diagnosing an increased risk of developing an autism spectrum disorder in a subject, the method comprising: obtaining a nucleic acid from a tissue or body fluid sample obtained from a subject; conducting an assay to identify whether there is a variant sequence in the subject's nucleic acid; wherein the variant sequence analysed is at least a portion of a gene for TSC1; for each variant detected, determining if the variant is a known variant associated with an autism spectrum disorder or a previously undescribed variant; if the variant is a previously undescribed variant, determining if the variant is expected to have a deleterious effect on at least one of gene expression and/or protein function; and diagnosing an increased risk of developing the autism spectrum disorder based on the variant sequence detected. obtaining a nucleic acid from a tissue or body fluid sample obtained from a subject; conducting an assay to identify whether there is a variant sequence in the subject's nucleic acid; wherein the variant sequence analysed is at least a portion of a gene for TSC1; for each variant detected, determining if the variant is a known variant associated with an autism spectrum disorder or a previously undescribed variant; if the variant is a previously undescribed variant, determining if the variant is expected to have a deleterious effect on at least one of gene expression and/or protein function; and diagnosing an increased risk of developing the autism spectrum disorder based on the variant sequence detected.
A device for handling notes of value, with at least one cash box for receiving notes of value, and with at least one separating module for removing notes of value from the cash box, wherein the separating module is arranged separately from the cash box, the separating module comprises at least one transport element for transporting notes of value, in a first operating state, the transport element is rotatable in a first direction of rotation by means of a drive unit for removing at least one note of value from the cash box, and in a second operating state, the transport element is rotatable in a second direction of rotation opposite to the first direction of rotation by means of the drive unit for returning a note of value present in a dispensing area into the cash box, characterized in that the separating module comprises at least one returning element, which in the second operating state is rotatable by means of the drive unit from a first position into a second position for returning the note of value present in the dispensing area, wherein the returning element is arranged in the first position in the first operating state, wherein the returning element is rotatable from the first position in the second direction of rotation into the second position in the second operating state, and wherein the returning element, upon rotation from the first position into the second position, contacts a note of value present in the dispensing area and returns it into a storing area of the cash box.
A multi-electrode system comprising: a fiber holder adapted to hold at least one optical fiber; a vacuum enclosure (220, 620) adapted to provide a complete or partial vacuum; a plurality of electrodes (202, 204, 206) disposed in the vacuum enclosure (220, 620) and arranged to generate one or more arcs (212, 214, 216) to provide a uniform heated plasma field having a first Gaussian thermal profile that delivers an even heat distribution around a circumference of the at least one optical fiber; a controller configured to turn on the plurality of electrodes (202, 204, 206) in a rotating phase sequence that takes place so rapidly that thermal time constants of the at least one fiber and surrounding air are longer than the oscillation period of the one or more arcs (212, 214, 216) to generate the even heat distribution and a vibration mechanism adapted to cause at least one of the electrodes from the plurality of electrodes (202, 204, 206) to vibrate to thereby broaden a width of the uniform heated plasma field to have a second Gaussian thermal profile that is broader than the first Gaussian thermal profile. a fiber holder adapted to hold at least one optical fiber; a vacuum enclosure (220, 620) adapted to provide a complete or partial vacuum; a plurality of electrodes (202, 204, 206) disposed in the vacuum enclosure (220, 620) and arranged to generate one or more arcs (212, 214, 216) to provide a uniform heated plasma field having a first Gaussian thermal profile that delivers an even heat distribution around a circumference of the at least one optical fiber; a controller configured to turn on the plurality of electrodes (202, 204, 206) in a rotating phase sequence that takes place so rapidly that thermal time constants of the at least one fiber and surrounding air are longer than the oscillation period of the one or more arcs (212, 214, 216) to generate the even heat distribution and a vibration mechanism adapted to cause at least one of the electrodes from the plurality of electrodes (202, 204, 206) to vibrate to thereby broaden a width of the uniform heated plasma field to have a second Gaussian thermal profile that is broader than the first Gaussian thermal profile.
A spray nozzle comprising: a nozzle (10, 110) including a supply port receiving liquid and a spray orifice through which liquid is sprayed, wherein the nozzle (10, 110) is made by combining a plurality of nozzle-divided bodies (20, 120), each of the plurality of nozzle-divided bodies (20, 120) has a vane element (20v, 120v) integrally formed therein to rotate the liquid provided from the supply port, characterized in that each of the nozzle-divided bodies (20, 120) is provided with a flow path element (20w, 120w) and each of the vane elements (20v, 120v) is provided with a blocking portion (20b, 120b) which extends obliquely with respect to the direction of a flow path in order to block the liquid flowing in the flow path formed by combining flow path elements (20w, 120w) and make fluid flowing along the blocking portion (20b, 120b) into a swirling flow. a nozzle (10, 110) including a supply port receiving liquid and a spray orifice through which liquid is sprayed, wherein the nozzle (10, 110) is made by combining a plurality of nozzle-divided bodies (20, 120), each of the plurality of nozzle-divided bodies (20, 120) has a vane element (20v, 120v) integrally formed therein to rotate the liquid provided from the supply port, characterized in that each of the nozzle-divided bodies (20, 120) is provided with a flow path element (20w, 120w) and each of the vane elements (20v, 120v) is provided with a blocking portion (20b, 120b) which extends obliquely with respect to the direction of a flow path in order to block the liquid flowing in the flow path formed by combining flow path elements (20w, 120w) and make fluid flowing along the blocking portion (20b, 120b) into a swirling flow.