mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling an autonomous vehicle including a navigation device and an image sensing device operable to capture image data at the location of the autonomous vehicle, the method comprising: receiving, by a navigation device, an image from the image sensing device associated with the autonomous vehicle; extracting, by the navigation device, navigation content from the image; and controlling, by the navigation device, the autonomous vehicle based on the extracted navigation content, characterized in that the navigation device is operable to extract navigation content from the image by: identifying a current location of the autonomous vehicle; accessing data identifying location information (222a-222e) associated with locations within a pre-defined radius from the identified current location of the autonomous vehicle; and utilizing the accessed data identifying the location information (222a-222e) to extract navigation content from the image by identifying content in the image corresponding to the accessec data identifying the location information (222a-222e). receiving, by a navigation device, an image from the image sensing device associated with the autonomous vehicle; extracting, by the navigation device, navigation content from the image; and controlling, by the navigation device, the autonomous vehicle based on the extracted navigation content, characterized in that the navigation device is operable to extract navigation content from the image by: identifying a current location of the autonomous vehicle; accessing data identifying location information (222a-222e) associated with locations within a pre-defined radius from the identified current location of the autonomous vehicle; and utilizing the accessed data identifying the location information (222a-222e) to extract navigation content from the image by identifying content in the image corresponding to the accessec data identifying the location information (222a-222e). identifying a current location of the autonomous vehicle; accessing data identifying location information (222a-222e) associated with locations within a pre-defined radius from the identified current location of the autonomous vehicle; and utilizing the accessed data identifying the location information (222a-222e) to extract navigation content from the image by identifying content in the image corresponding to the accessec data identifying the location information (222a-222e).
A method of making a cathode comprising: treating electrolytic manganese dioxide with an aqueous solution of a mineral acid, in a concentration between 0.1 mol/l and 10 mol/l, at a temperature of zero degree Celsius or more to five degrees Celsius or less to afford an acid-treated manganese dioxide; and incorporating the acid-treated manganese dioxide into a cathode. treating electrolytic manganese dioxide with an aqueous solution of a mineral acid, in a concentration between 0.1 mol/l and 10 mol/l, at a temperature of zero degree Celsius or more to five degrees Celsius or less to afford an acid-treated manganese dioxide; and incorporating the acid-treated manganese dioxide into a cathode.
A vector processor coupled to a number of subscriber lines of a communication system; wherein the vector processor is configured to: - operate according to a first mode of operation over a first frequency range, wherein the first mode of operation comprises mitigating crosstalk for a first group of victim subscriber lines selected among the number of subscriber lines; and - operate according to a second mode of operation, distinct from the first mode of operation, over a second frequency range, separate from the first frequency range, wherein the second mode of operation comprises mitigating crosstalk for a second group (21, 22, 24) of victim subscriber lines, the second group being selected as a strict subset of the first group, and wherein the second mode of operation further comprises disabling direct communication over the second frequency range for subscriber lines of the number of subscriber lines not forming part of the second group. - operate according to a first mode of operation over a first frequency range, wherein the first mode of operation comprises mitigating crosstalk for a first group of victim subscriber lines selected among the number of subscriber lines; and - operate according to a second mode of operation, distinct from the first mode of operation, over a second frequency range, separate from the first frequency range, wherein the second mode of operation comprises mitigating crosstalk for a second group (21, 22, 24) of victim subscriber lines, the second group being selected as a strict subset of the first group, and wherein the second mode of operation further comprises disabling direct communication over the second frequency range for subscriber lines of the number of subscriber lines not forming part of the second group.
A double-stranded ribonucleic acid (dsRNA), consisting of first and second single RNA strands, wherein the first single RNA strand is an antisense RNA strand, the second single RNA strand is a sense RNA strand, wherein the antisense RNA strand is complementary to a target gene or a portion thereof, the dsRNA having improved stability in cells and biological fluids and thereby increased effectiveness in inhibiting the expression of a target gene by means of RNA interference, wherein the dsRNA comprises first and second double-stranded ends and at least one single-stranded overhang which is 2 to 4 nucleotides in length, wherein the unpaired nucleotide of the single-stranded overhang that is directly adjacent to the terminal nucleotide base pair comprises a purine base, wherein a single-stranded overhang is located at the 3'-end of the antisense strand, wherein the overhang comprises the sequence 5'-GC-3'; and wherein the terminal base pair of the first double-stranded end comprises a guanine-cytosine (G-C) base pair or the four consecutive terminal base pairs of the first double-stranded end comprises at least two G-C base pairs; wherein the terminal base pair of the second double-stranded end comprises a guanine-cytosine (G-C) base pair or the four consecutive terminal base pairs of the second double- stranded end comprises at least two G-C base pairs; excluding the following dsRNAs: 5'- CAGGACCUCGCCGCUGCAGACC-3' (SEQ ID NO: 1) 3'-CGGUCCUGGAGCGGCGACGUCUGG-5' (SEQ ID NO: 2), 5'- UGCAGCUUCGAAGCCUCACAGA-3' (SEQ ID NO: 27) 3'-CGACGUCGAAGCUUCGGAGUGU-5' (SEQ ID NO: 28), and 5'- UGGGGAGAGAGUUCUGAGGAUU-3' (SEQ ID NO: 29) 3'-CGACCCCUCUCUCAAGACUCCU-5' (SEQ ID NO: 30). 5'- CAGGACCUCGCCGCUGCAGACC-3' (SEQ ID NO: 1) 3'-CGGUCCUGGAGCGGCGACGUCUGG-5' (SEQ ID NO: 2), 5'- UGCAGCUUCGAAGCCUCACAGA-3' (SEQ ID NO: 27) 3'-CGACGUCGAAGCUUCGGAGUGU-5' (SEQ ID NO: 28), and 5'- UGGGGAGAGAGUUCUGAGGAUU-3' (SEQ ID NO: 29) 3'-CGACCCCUCUCUCAAGACUCCU-5' (SEQ ID NO: 30).
Method of mounting vanes at the periphery of a turbine engine disc in relation to the axis of rotation of the disc, wherein the disc comprises, at its radially external periphery, sockets extending substantially parallel to the axis of the disc and positioned so as to alternate with the teeth of the disc, wherein the vanes comprise respectively: - - at a radially inner end, roots designed to be inserted into sockets in the disc, - - at a second radially outer end, heels and - - blades connecting the roots to the heels, wherein the method comprises the step consisting of: (a) positioning the vanes in circumferential alignment such that the root of each vane is axially opposite one of the sockets in the disc, characterised in that it also comprises steps consisting of: (b) providing a mounting tool featuring an endpiece of a shape partly complementary to the heel of one of the vanes, (c) causing the endpiece of the mounting tool to cooperate with the heel of the vane, (d) pivoting the heel of the vane by a rotational movement of the mounting tool around a radial direction of the disc passing through the vane and (e) axially inserting the vane root into the socket of the disc. - - at a radially inner end, roots designed to be inserted into sockets in the disc, - - at a second radially outer end, heels and - - blades connecting the roots to the heels, (a) positioning the vanes in circumferential alignment such that the root of each vane is axially opposite one of the sockets in the disc, (b) providing a mounting tool featuring an endpiece of a shape partly complementary to the heel of one of the vanes, (c) causing the endpiece of the mounting tool to cooperate with the heel of the vane, (d) pivoting the heel of the vane by a rotational movement of the mounting tool around a radial direction of the disc passing through the vane and (e) axially inserting the vane root into the socket of the disc.
Drilling tool with - a base body having a central axis, a diameter and a front side, - at least two main cutting edges provided on the front side, which - each have a plurality of partial sections (15, 17), of which - a first partial section of the at least two main cutting edges is arranged closer to the central axis, and a second partial section adjoins the end of the first partial section facing away from the central axis and is at a greater distance from the central axis than the first partial section, wherein - the first partial sections of the at least two main cutting edges include a point angle si ≥ 180° and the second partial sections include a point angle Sa ≤ 180° with each other, whereby - a point is formed in the transition region between the first partial section and the second partial section at a distance from the central axis, and wherein - the cutting edges of the at least two main cutting edges having a below-center position in the first partial section, wherein - the cutting edges of the at least two main cutting edges having a ahead-ofcenter position in the second partial section, characterized in that - the drilling tool has a central chisel edge which connects the first partial sections of the main cutting edges to each other. - a base body having a central axis, a diameter and a front side, - at least two main cutting edges provided on the front side, which - each have a plurality of partial sections (15, 17), of which - a first partial section of the at least two main cutting edges is arranged closer to the central axis, and a second partial section adjoins the end of the first partial section facing away from the central axis and is at a greater distance from the central axis than the first partial section, wherein - the first partial sections of the at least two main cutting edges include a point angle si ≥ 180° and the second partial sections include a point angle Sa ≤ 180° with each other, whereby - a point is formed in the transition region between the first partial section and the second partial section at a distance from the central axis, and wherein - the cutting edges of the at least two main cutting edges having a below-center position in the first partial section, wherein - the cutting edges of the at least two main cutting edges having a ahead-ofcenter position in the second partial section, - the drilling tool has a central chisel edge which connects the first partial sections of the main cutting edges to each other.
A light emitting device comprising: a light emitting semiconductor structure (650, 950) comprising a III/V direct bandgap semiconductor that in operation produces radiation; and a reflector structure comprising: a one-dimension distributed Bragg reflector (610, 910) configured to reflect radiation produced by the light emitting semiconductor structure (650, 950) and incident with TE polarization on the reflector structure; an characterised in that the reflector structure further comprises either: a photonic crystal configured to reflect radiation produced by the light emitting semiconductor structure (650, 950) and incident with TM polarization on the reflector structure, wherein the photonic crystal is a 2D photonic crystal or wherein the photonic crystal is a 3D photonic crystal; or a hyperbolic metamaterial structure configured to reflect radiation produced by the light emitting semiconductor structure (650, 950) and incident with TM polarization on the reflector structure. a light emitting semiconductor structure (650, 950) comprising a III/V direct bandgap semiconductor that in operation produces radiation; and a reflector structure comprising: a one-dimension distributed Bragg reflector (610, 910) configured to reflect radiation produced by the light emitting semiconductor structure (650, 950) and incident with TE polarization on the reflector structure; an characterised in that the reflector structure further comprises either: a photonic crystal configured to reflect radiation produced by the light emitting semiconductor structure (650, 950) and incident with TM polarization on the reflector structure, wherein the photonic crystal is a 2D photonic crystal or wherein the photonic crystal is a 3D photonic crystal; or a hyperbolic metamaterial structure configured to reflect radiation produced by the light emitting semiconductor structure (650, 950) and incident with TM polarization on the reflector structure. a photonic crystal configured to reflect radiation produced by the light emitting semiconductor structure (650, 950) and incident with TM polarization on the reflector structure, wherein the photonic crystal is a 2D photonic crystal or wherein the photonic crystal is a 3D photonic crystal; or a hyperbolic metamaterial structure configured to reflect radiation produced by the light emitting semiconductor structure (650, 950) and incident with TM polarization on the reflector structure.
A method for customization of zirconium phosphate effluent pH, comprising the steps of: determining a desired initial therapy zirconium phosphate effluent pH based on one or more patient parameters; and recharging zirconium phosphate in a zirconium phosphate module by pumping one or more recharge solutions through the zirconium phosphate module; the one or more recharge solutions comprising an acid solution, a base solution, a buffer solution, a salt solution, water, or combinations thereof; wherein the one or more recharge solutions have an acid concentration, a base concentration, a buffer concentration, and a salt concentration to result in the desired initial therapy zirconium phosphate effluent pH; and determining an amount of cations removed by the zirconium phosphate module in a dialysis session prior to the step of pumping one or more recharge solutions through the zirconium phosphate module, wherein a volume of recharge solution used is based, at least in part, on the amount of cations removed by the zirconium phosphate module. determining a desired initial therapy zirconium phosphate effluent pH based on one or more patient parameters; and recharging zirconium phosphate in a zirconium phosphate module by pumping one or more recharge solutions through the zirconium phosphate module; the one or more recharge solutions comprising an acid solution, a base solution, a buffer solution, a salt solution, water, or combinations thereof; wherein the one or more recharge solutions have an acid concentration, a base concentration, a buffer concentration, and a salt concentration to result in the desired initial therapy zirconium phosphate effluent pH; and determining an amount of cations removed by the zirconium phosphate module in a dialysis session prior to the step of pumping one or more recharge solutions through the zirconium phosphate module, wherein a volume of recharge solution used is based, at least in part, on the amount of cations removed by the zirconium phosphate module.
Use of an internal combustion engine with a device for cooling an exhaust gas flow of the internal combustion engine, in particular a diesel engine of a motor vehicle, comprising a plurality of flow ducts which are connected to an exhaust gas recirculation system of the internal combustion engine, wherein a coolant can flow around the flow ducts in order to dissipate the exhaust gas heat, and an insert (7, 7') which is arranged within at least one of the flow ducts, wherein the insert (7, 7') is in thermal contact with the flow duct and exhaust gas can flow at least partially around it, wherein the insert (7, 7') has profiled fins (8, 8') in the area in which the exhaust gas flows around it, wherein in the exhaust gas flow direction, successive profiles (9, 9') of the profiled fins (8, 8') are arranged so as to be offset relative to one another, characterised in that in order to reduce the soot deposits, the toothing of the profiled fin clearly is within an inlet area, consequently, the length of the profiles fins is smaller than the length (l) of the inlet area and the length (l) of the inlet area divided by the medium throughflow width (s) between two profiles is 2.5 to 5, wherein the inlet area of a flow duct is defined in that an initially rather rectangular flow profile develops into a bulbous flow profile in the inlet area and forms into a flow profile which does not change anymore downstream of the inlet area.
An apparatus for vertex processing, comprising: an index buffer to store an index stream having a multiplicity of index entries corresponding to vertices of a mesh; a vertex cache to store a multiplicity of processed vertices of the mesh; a processor circuit; and a vertex manager to read a reference bitstream comprising a multiplicity of reference bitstream entries, each reference bitstream entry corresponding to an index entry of the index stream, to remove a processed vertex from the vertex cache when a value of the reference bitstream entry corresponding to the processed vertex is equal to a defined value and alternatively to send a processed vertex for primitive assembly without storing the processed vertex in the vertex cache when the reference bitstream entry is equal to the defined value and the processed vertex is not presently in the vertex cache. an index buffer to store an index stream having a multiplicity of index entries corresponding to vertices of a mesh; a vertex cache to store a multiplicity of processed vertices of the mesh; a processor circuit; and a vertex manager to read a reference bitstream comprising a multiplicity of reference bitstream entries, each reference bitstream entry corresponding to an index entry of the index stream, to remove a processed vertex from the vertex cache when a value of the reference bitstream entry corresponding to the processed vertex is equal to a defined value and alternatively to send a processed vertex for primitive assembly without storing the processed vertex in the vertex cache when the reference bitstream entry is equal to the defined value and the processed vertex is not presently in the vertex cache.
Radically polymerisable dental material comprising a combination of a thiourea derivative and a bisacyldialkylgermanium compound as an initiator for the radical polymerisation, wherein the dental material comprises methyl, ethyl, allyl, butyl, hexyl, octyl, benzyl, 1,1,3-trimethyl, 1,1-diallyl, 1,3-diallyl, 1-(2-pyridyl)-2-thiourea, acetyl, propanoyl, butanoyl, pentanoyl, hexanoyl, heptanoyl, octanoyl, nonanoyl, decanoyl, benzoyl thiourea or a mixture thereof as the thiourea derivative and comprises bisbenzoyldiethylgermanium, bisbenzoyldimethylgermanium, bisbenzoyldibutylgermanium, bis(4-methoxybenzoyl)dimethylgermanium, bis(4-methoxybenzoyl)diethylgermanium or a mixture thereof as the bisacyldialkylgermanium compound.
A ceiling-mounted air conditioning indoor unit for a heat pump comprising a refrigerant circuit, the indoor unit comprising: a casing comprising an air inlet and at least one air outlet; a drain pan in a bottom portion of the casing, the drain pan having an outer circumferential rim and an inner circumferential rim; a heat exchanger being part of the refrigerant circuit and arranged above the drain pan so that water dropping from the heat exchanger accumulates in the drain pan; a fan accommodated in the casing configured to draw air in the air inlet through the heat exchanger and out of the at least one air outlet, a bell mouth located at the air inlet configured for guiding drawn in air to the fan, a refrigerant leakage detection sensor configured for detecting refrigerant leaking from the refrigerant circuit, characterized in that the refrigerant leakage detection sensor is positioned between an outer surface of the inner circumferential rim of the drain pan and an inner surface of the bell mouth, wherein the outer surface of the inner circumferential rim of the drain pan and the inner surface of the bell mouth face each other. a casing comprising an air inlet and at least one air outlet; a drain pan in a bottom portion of the casing, the drain pan having an outer circumferential rim and an inner circumferential rim; a heat exchanger being part of the refrigerant circuit and arranged above the drain pan so that water dropping from the heat exchanger accumulates in the drain pan; a fan accommodated in the casing configured to draw air in the air inlet through the heat exchanger and out of the at least one air outlet, a bell mouth located at the air inlet configured for guiding drawn in air to the fan, a refrigerant leakage detection sensor configured for detecting refrigerant leaking from the refrigerant circuit, characterized in that the refrigerant leakage detection sensor is positioned between an outer surface of the inner circumferential rim of the drain pan and an inner surface of the bell mouth, wherein the outer surface of the inner circumferential rim of the drain pan and the inner surface of the bell mouth face each other.
Gas spring of the type comprising: - a cylinder, with an inner chamber in which there is a compressible gas, and - an emergency gas outlet, located at the bottom of the inner chamber which communicates said inner chamber with the exterior of the gas spring, - a piston which moves along the inner chamber operating on the gas, - a safety element located in the emergency outlet which keeps tightness in the inner chamber during usual operation of the spring, on which the piston travels within its nominal stroke, and which is characterized in that it comprises: - the piston comprises first coupling elements in its lower surface - the safety element comprises second coupling elements intended to be coupled to the first coupling elements of the piston, when the piston exceeds its nominal stroke, in such a way that the piston pulls the safety element along during its upward stroke, thus clearing the emergency outlet, allowing the gas to come out of the inner chamber. - a cylinder, with an inner chamber in which there is a compressible gas, and - an emergency gas outlet, located at the bottom of the inner chamber which communicates said inner chamber with the exterior of the gas spring, - a piston which moves along the inner chamber operating on the gas, - a safety element located in the emergency outlet which keeps tightness in the inner chamber during usual operation of the spring, on which the piston travels within its nominal stroke, - the piston comprises first coupling elements in its lower surface - the safety element comprises second coupling elements intended to be coupled to the first coupling elements of the piston, when the piston exceeds its nominal stroke, in such a way that the piston pulls the safety element along during its upward stroke, thus clearing the emergency outlet, allowing the gas to come out of the inner chamber.