mhurhangee/ep-ind-claims huggingface dataset:
An article, comprising: SiO 2 from 40 mol% to 80 mol%; Al 2 O 3 from 1 mol% to 20 mol%; B 2 O 3 from 3 mol% to 50 mol%; WO 3 plus MoOs from 1 mol% to 18 mol%; at least one of: (i) Au from 0.001 mol% to 0.5 mol%, (ii) Ag from 0.025 mol% to 1.5 mol%, and (iii) Cu from 0.03 mol% to 1 mol%; and R 2 O from 0 mol% to 15 mol%, wherein the R 2 O is one or more of Li 2 O, Na 2 O, K 2 O, Rb 2 O and Cs 2 O, wherein R 2 O minus Al 2 O 3 ranges from -12 mol% to 3.8 mol%. SiO 2 from 40 mol% to 80 mol%; Al 2 O 3 from 1 mol% to 20 mol%; B 2 O 3 from 3 mol% to 50 mol%; WO 3 plus MoOs from 1 mol% to 18 mol%; at least one of: (i) Au from 0.001 mol% to 0.5 mol%, (ii) Ag from 0.025 mol% to 1.5 mol%, and (iii) Cu from 0.03 mol% to 1 mol%; and R 2 O from 0 mol% to 15 mol%, wherein the R 2 O is one or more of Li 2 O, Na 2 O, K 2 O, Rb 2 O and Cs 2 O, wherein R 2 O minus Al 2 O 3 ranges from -12 mol% to 3.8 mol%.
A wireless device comprising: an antenna subsystem having a selectable polarization; at least one sensor configured to provide at least one orientation measurement of the wireless device; and a processor unit coupled to the at least one sensor and configured to: receive the at least one orientation measurement; select a polarization of the antenna subsystem based on the at least one orientation measurement; and set the polarization to achieve the selected polarization; wherein the at least one sensor is configured to provide an indication to the processor whether the wireless device is in an indoor or outdoor environment; wherein the at least one sensor comprises a global positioning system, GPS, device; wherein the processor unit is configured to receive an indication from the GPS device whether the wireless device is in an indoor or outdoor environment, and wherein the indication from the GPS device comprises information of a speed of the wireless device and a received signal strength code channel energy over noise (C/N); wherein if the indication indicates that the wireless device is in an outdoor environment, the processor unit is further configured to determine an orientation of the wireless device based on the at least one orientation measurement, and select a polarization, which comprises determining, based on the orientation, a first polarization of the antenna subsystem that most closely aligns with a polarization of a base station. an antenna subsystem having a selectable polarization; at least one sensor configured to provide at least one orientation measurement of the wireless device; and a processor unit coupled to the at least one sensor and configured to: receive the at least one orientation measurement; select a polarization of the antenna subsystem based on the at least one orientation measurement; and set the polarization to achieve the selected polarization; receive the at least one orientation measurement; select a polarization of the antenna subsystem based on the at least one orientation measurement; and set the polarization to achieve the selected polarization; wherein the at least one sensor is configured to provide an indication to the processor whether the wireless device is in an indoor or outdoor environment; wherein the at least one sensor comprises a global positioning system, GPS, device; wherein the processor unit is configured to receive an indication from the GPS device whether the wireless device is in an indoor or outdoor environment, and wherein the indication from the GPS device comprises information of a speed of the wireless device and a received signal strength code channel energy over noise (C/N); wherein if the indication indicates that the wireless device is in an outdoor environment, the processor unit is further configured to determine an orientation of the wireless device based on the at least one orientation measurement, and select a polarization, which comprises determining, based on the orientation, a first polarization of the antenna subsystem that most closely aligns with a polarization of a base station.
A process for producing treated precipitated silica comprising: (a) combining an alkali metal silicate and an acid to form a slurry comprising untreated silica, wherein said untreated silica has not been previously dried; (b) treating said slurry with a treating composition comprising a treating agent, thereby forming a treated slurry; and (c) drying said treated slurry to produce a treated precipitated silica, wherein said treating agent comprises at least one of: (i) an unsaturated fatty acid comprising a linear or branched, optionally substituted C 4 to C 38 alkyl having at least one carbon-carbon double bond; and/or (ii) a derivative of said unsaturated fatty acid of (i), wherein at least one carbon-carbon double bond is reacted to include at least one functional group; wherein said unsaturated fatty acid (i), and said unsaturated fatty acid of said derivative (ii) are in each case the same or different. (a) combining an alkali metal silicate and an acid to form a slurry comprising untreated silica, wherein said untreated silica has not been previously dried; (b) treating said slurry with a treating composition comprising a treating agent, thereby forming a treated slurry; and (c) drying said treated slurry to produce a treated precipitated silica, wherein said treating agent comprises at least one of: (i) an unsaturated fatty acid comprising a linear or branched, optionally substituted C 4 to C 38 alkyl having at least one carbon-carbon double bond; and/or (ii) a derivative of said unsaturated fatty acid of (i), wherein at least one carbon-carbon double bond is reacted to include at least one functional group; wherein said unsaturated fatty acid (i), and said unsaturated fatty acid of said derivative (ii) are in each case the same or different. (i) an unsaturated fatty acid comprising a linear or branched, optionally substituted C 4 to C 38 alkyl having at least one carbon-carbon double bond; and/or (ii) a derivative of said unsaturated fatty acid of (i), wherein at least one carbon-carbon double bond is reacted to include at least one functional group;
Method for coupling signals and/or data of different frequency into and/or out of a power grid, wherein the signals and/or data are provided at an input of a coupling apparatus and are coupled into the power grid or out of the power grid via an output of the coupling apparatus, characterized in that the frequency of the signals and/or data is taken as a basis for performing coupling into or out of the power grid by means of different transformers (13, 14) of the coupling apparatus, and wherein a high and a low frequency range are defined, wherein the frequency ranges meet in the frequency spectrum at a frequency of 1 MHz, and wherein frequency compensation is additionally performed for signals and/or data of low and/or high frequency.
A method for communication, the method comprising: performing by one or more processors and/or circuits (210, 302) in a global navigation satellite-based systems (GNSS) enabled mobile device (110-113, 200): if said GNSS enabled mobile device (110-113, 200) has moved from a first area, where GNSS signal quality and/or level is above a particular threshold value, to a second area, where said GNSS signal quality and/or level is below said particular threshold value, collecting, in said second area, sensor data received from a plurality of sensors distributed within said second area for one or more encountered sensor targets (127a-127e) with known locations within said second area; identifying sensor target location information of said one or more encountered sensor targets (127a-127e) from the received sensor data; and determining a location of said GNSS enabled mobile device (110-113, 200) within said second area by combining said identified sensor target location information of said one or more encountered sensor targets (127a-127e) with previous GNSS measurements calculated by said GNSS enabled mobile device (110-113, 200), when said GNSS enabled mobile device (110-113, 200) was in said first area. if said GNSS enabled mobile device (110-113, 200) has moved from a first area, where GNSS signal quality and/or level is above a particular threshold value, to a second area, where said GNSS signal quality and/or level is below said particular threshold value, collecting, in said second area, sensor data received from a plurality of sensors distributed within said second area for one or more encountered sensor targets (127a-127e) with known locations within said second area; identifying sensor target location information of said one or more encountered sensor targets (127a-127e) from the received sensor data; and determining a location of said GNSS enabled mobile device (110-113, 200) within said second area by combining said identified sensor target location information of said one or more encountered sensor targets (127a-127e) with previous GNSS measurements calculated by said GNSS enabled mobile device (110-113, 200), when said GNSS enabled mobile device (110-113, 200) was in said first area.
Method of cancelling spurious spectral components including the carrier leak, the image distortion and at least one other intermodulation distortion of an analogue signal generated by a device that makes it possible to modulate an analogue signal from a digital modulation signal, the device comprising a waveform generator and a monitoring receiver in a closed servo loop, the monitoring receiver comprising digital oscillators (DDS_2, DDS_3) and a PLL multiplying the frequency associated with a digital oscillator (DDS_2) by an integer multiplier coefficient so as to allow coherent demodulation without phase shift of the modulated analogue signal (RF_OUT) produced by the device, the digital modulation signal being locked on the analogue signal so as to cancel spurious components present in the analogue signal, the method comprising: - a step of synchronizing digital oscillators (DDS_2, DDS_3) of the monitoring receiver; the method comprising for each spurious spectral component: - a step of synchronizing the phase of the waveform generator and the phase of the monitoring receiver, so as to define a compensation matrix (D ij, a ij, b ij) between a Cartesian plane associated with the measurement and a Cartesian plane associated with the modulation; - a step of measuring vectorially the spurious spectral components in the Cartesian plane associated with the measurement with the aid of the frequency multiplier associated with the digital oscillator (DDS_2); - a step of establishing the coefficients of the compensation matrix intended to cancel the spurious spectral component, said coefficients being derived from the spurious spectral components measured in the Cartesian plane associated with the measurement; - a step of compensating consisting of multiplying the frequency Ω of the modulation signal or a frequency harmonic Ω by the compensation matrix determined for each spurious component (D ij, a ij, b ij). - a step of synchronizing digital oscillators (DDS_2, DDS_3) of the monitoring receiver; - a step of synchronizing the phase of the waveform generator and the phase of the monitoring receiver, so as to define a compensation matrix (D ij, a ij, b ij) between a Cartesian plane associated with the measurement and a Cartesian plane associated with the modulation; - a step of measuring vectorially the spurious spectral components in the Cartesian plane associated with the measurement with the aid of the frequency multiplier associated with the digital oscillator (DDS_2); - a step of establishing the coefficients of the compensation matrix intended to cancel the spurious spectral component, said coefficients being derived from the spurious spectral components measured in the Cartesian plane associated with the measurement; - a step of compensating consisting of multiplying the frequency Ω of the modulation signal or a frequency harmonic Ω by the compensation matrix determined for each spurious component (D ij, a ij, b ij).
Use of a crosslinking agent which is formed by an amount of more than 50% by acrylate monomers that are selected from acrylate monomers with a diacrylate-functional TCD-urethane monomer structure selected from TCD-di-HEA an acrylic acid ester of tricyclo[5.2,1.02.6]decane for the production of a dental composites comprising monomers, crosslinking agents, fillers, initiators, wherein the cytotoxicity of the hardened composite corresponding to the standard requirements according to ISO 10993-5 and DIN EN ISO 7405. has the assessment "no cytotoxic potential".
Dermatan sulfate, or a pharmaceutically acceptable salt, solvate, clathrate thereof obtained from sulodexide through affinity chromatography process with a stationary phase functionalized with AT III, wherein the dermatan sulfate is collected in the non-absorbed flow through and characterized by an average molecular weight of 25KDa, for use in the treatment of a pathology wherein matrix metalloproteinase 9 (MMP-9) is involved, selected from the group consisting of chronic venous insufficiency, varicose veins, myocardial rupture after myocardial infarction, abdominal aortic aneurysm, gastrointestinal ulcers, altered angiogenesis and combination thereof.
An oral care composition comprising an effective amount of at least one saccharide prebiotic for use in preventing or mitigating one or more of gingivitis, periodontitis, peri-implantitis, peri-implant mucositis, necrotizing gingivitis, necrotizing periodontitis and caries in a subject in need thereof; wherein the saccharide prebiotic is selected from D-turanose, D-melezitose, D-lactitol, myo-inositol, N-acetyl-D-mannosamine, and mixtures thereof; and wherein the amount of saccharide prebiotic is 0.1 % to 5 % by weight of the composition.
Method for producing a preform for further processing into a finished fibre composite part comprising resin, characterised by the following steps which take place one after another: a) production of a reusable inflation core, b) direct application of fibres and binding agent materials to the inflation core or a separating part added to the inflation core, c) exposure of the construction consisting of at least the inflation core, fibres and binding agent to heat for fixing and intermediate hardening of the fibres by melting on, cooling and solidifying of the binding agent, d) removal of a fixed and intermediately hardened preform of fibres, wherein the inflation core is removed from the intermediately hardened preform. a) production of a reusable inflation core, b) direct application of fibres and binding agent materials to the inflation core or a separating part added to the inflation core, c) exposure of the construction consisting of at least the inflation core, fibres and binding agent to heat for fixing and intermediate hardening of the fibres by melting on, cooling and solidifying of the binding agent, d) removal of a fixed and intermediately hardened preform of fibres, wherein the inflation core is removed from the intermediately hardened preform.
A mold for food, comprising: a thermoplastic resin; a magnetic material; and an impact modifier. wherein the impact modifier comprises at least one of a core-shell graft impact modifier and a branched graft impact modifier. a thermoplastic resin; a magnetic material; and an impact modifier. wherein the impact modifier comprises at least one of a core-shell graft impact modifier and a branched graft impact modifier.
Root frame arrangement for the transport of rotor blades for a wind turbine that are to be coupled to the root of a wind turbine rotor blade, comprising the following: - a road transport frame, which is configured to be coupled to the root of a wind turbine rotor blade and provides, on the bottom side of the frame, fastening points for fastening the road transport frame to a load bed of a road vehicle and comprises a fastening midline between the bottom and top sides (32, 33) of the frame, which fastening midline is perpendicular to the virtual line connecting the fastening points on the bottom side; and - a sea transport frame, which is connected releasably to the road transport frame and provides, on the bottom side of the frame, fastening points for fastening the sea transport frame to a load bed of a sea vessel and comprises a fastening midline between the bottom and top sides (42, 43) of the frame, which fastening midline is perpendicular to the virtual line connecting the fastening points; wherein the fastening midline of the road transport frame is substantially perpendicular to the fastening midline of the sea transport frame when connection of the latter to said road transport frame is realized. - a road transport frame, which is configured to be coupled to the root of a wind turbine rotor blade and provides, on the bottom side of the frame, fastening points for fastening the road transport frame to a load bed of a road vehicle and comprises a fastening midline between the bottom and top sides (32, 33) of the frame, which fastening midline is perpendicular to the virtual line connecting the fastening points on the bottom side; and - a sea transport frame, which is connected releasably to the road transport frame and provides, on the bottom side of the frame, fastening points for fastening the sea transport frame to a load bed of a sea vessel and comprises a fastening midline between the bottom and top sides (42, 43) of the frame, which fastening midline is perpendicular to the virtual line connecting the fastening points;
A display substrate, comprising: a base substrate; a color filter comprising a plurality of color filter blocks on the base substrate, each of the plurality of color filter blocks comprising a liquid crystal elastomer; and an actuator configured to actuate each of the plurality of color filter blocks thereby individually controlling a wavelength of light transmitted through each of the plurality of color filter blocks, wherein said actuator is configured to actuate each of the plurality of color filter blocks thereby individually controlling a wavelength of light transmitted through each of the plurality of color filter blocks comprises actuating each of the plurality of color filter blocks thereby changing a pitch of the liquid crystal elastomer in each of the plurality of color filter blocks so that the light transmitted through each of the plurality of color filter blocks is one of a red light, a green light and a blue light, or is one of a red light, a green light, a blue light, and a white light. a base substrate; a color filter comprising a plurality of color filter blocks on the base substrate, each of the plurality of color filter blocks comprising a liquid crystal elastomer; and an actuator configured to actuate each of the plurality of color filter blocks thereby individually controlling a wavelength of light transmitted through each of the plurality of color filter blocks, wherein said actuator is configured to actuate each of the plurality of color filter blocks thereby individually controlling a wavelength of light transmitted through each of the plurality of color filter blocks comprises actuating each of the plurality of color filter blocks thereby changing a pitch of the liquid crystal elastomer in each of the plurality of color filter blocks so that the light transmitted through each of the plurality of color filter blocks is one of a red light, a green light and a blue light, or is one of a red light, a green light, a blue light, and a white light.
A packaged integrated circuit comprising: a semiconductor die overlying a substrate, the semiconductor die comprising a plurality of thermal bond pads overlying active circuitry; a plurality of thermal bond wires wherein each thermal bond wire has a first ball bonded end and a second stitch bonded end, the first ball bonded ends of the plurality of thermal bond wires connected to the plurality of thermal bond pads; and an encapsulant surrounding the semiconductor die, the plurality of thermal bond pads and the plurality of thermal bond wires, wherein the plurality of thermal bond wires conduct heat from the semiconductor die to an upper surface of the encapsulant, at least one conductive heat spreader overlying at least one of the plurality of thermal bond wires for conducting heat from the at least one of the plurality of thermal bond wires and radiating the heat from the packaged integrated circuit and wherein at least one of the plurality of thermal bond wires extends vertically from one of the plurality of thermal bond pads to the upper surface of the encapsulant, is bent to have a portion along the upper surface of the encapsulant, and is bent to be vertically connected to one of the plurality of thermal bond pads, and at least one of the plurality of thermal bond wires is connected to the at least one conductive heat spreader to function as a power conductor or a ground conductor overlying the semiconductor die. a semiconductor die overlying a substrate, the semiconductor die comprising a plurality of thermal bond pads overlying active circuitry; a plurality of thermal bond wires wherein each thermal bond wire has a first ball bonded end and a second stitch bonded end, the first ball bonded ends of the plurality of thermal bond wires connected to the plurality of thermal bond pads; and an encapsulant surrounding the semiconductor die, the plurality of thermal bond pads and the plurality of thermal bond wires, wherein the plurality of thermal bond wires conduct heat from the semiconductor die to an upper surface of the encapsulant, at least one conductive heat spreader overlying at least one of the plurality of thermal bond wires for conducting heat from the at least one of the plurality of thermal bond wires and radiating the heat from the packaged integrated circuit and wherein at least one of the plurality of thermal bond wires extends vertically from one of the plurality of thermal bond pads to the upper surface of the encapsulant, is bent to have a portion along the upper surface of the encapsulant, and is bent to be vertically connected to one of the plurality of thermal bond pads, and at least one of the plurality of thermal bond wires is connected to the at least one conductive heat spreader to function as a power conductor or a ground conductor overlying the semiconductor die.
A compound of Formula I, or a pharmaceutically acceptable salt, thereof: Z-L 1 -D (Formula I) wherein: D is represented by the following structural formula: R 1 is -F; R 2 is -methyl; -L 1 -Z is (i) -(C 1 -C 4 alkylene)-OR 6, -(C 1 -C 4 alkylene)-SR 6, or -(C 1 -C 4 alkylene)-N(R 6) 2; or (ii) -(C 1 -C 5 alkylene)-NR 5 C(=O)-(C 1 -C 5 alkylene)-OR 6, -(C 1 -C 5 alkylene)-NR 5 C(=O)-(C 1 -C 5 alkylene)-SR 6, -(C 1 -C 5 alkylene)-S-(C 1 -C 5 alkylene)-SR 6, or -(C 1 -C 5 alkylene)-S-(C 1 -C 5 alkylene)-SSR 6; R 5 is independently -H, methyl, or benzyl; and R 6 is independently -H, methyl, or benzyl with the proviso that -L 1 -Z cannot be -CH 2 OH. D is represented by the following structural formula: R 1 is -F; R 2 is -methyl; -L 1 -Z is (i) -(C 1 -C 4 alkylene)-OR 6, -(C 1 -C 4 alkylene)-SR 6, or -(C 1 -C 4 alkylene)-N(R 6) 2; or (ii) -(C 1 -C 5 alkylene)-NR 5 C(=O)-(C 1 -C 5 alkylene)-OR 6, -(C 1 -C 5 alkylene)-NR 5 C(=O)-(C 1 -C 5 alkylene)-SR 6, -(C 1 -C 5 alkylene)-S-(C 1 -C 5 alkylene)-SR 6, or -(C 1 -C 5 alkylene)-S-(C 1 -C 5 alkylene)-SSR 6; R 5 is independently -H, methyl, or benzyl; and R 6 is independently -H, methyl, or benzyl with the proviso that -L 1 -Z cannot be -CH 2 OH.
Valve having a body and an actuation assembly comprising a motor and a plate, the plate comprising a central body and at least one positioning tab (15, 16) having a perimeter having a substantially semicircular portion, characterized in that each tab (15, 16) has a rectilinear intermediate portion, connecting the semicircular portion to the central body, the intermediate portion having two substantially parallel rectilinear edges (19, 20).