mhurhangee/ep-ind-claims huggingface dataset:
A finishing composition for coating a metal part previously coated with a corrosion-resistant coating, comprising at least a binder of alkylphenylsiloxane type, glass microbeads, and optionally filler particles with a high thermal resistance and/or particulate aluminum, said composition having a thixotropic index (ITh) greater than or equal to 3, the thixotropic index corresponding to the ratio Viscosity measured at 6 revolutions per minute / Viscosity measured at 60 revolutions per minute], said viscosities being measured according to the NF EN ISO 2555 method of September 1999.
A compound of the formula wherein R 1 and R 2 are independently selected from the group consisting of C 1-6 alkyl, halogen, hydroxy and C 1-6 alkoxy, said C 1-6 alkyl and C 1-6 alkoxy being optionally substituted by one or more substituents selected from the group consisting of aryl, halo, hydroxy, alkoxy, carboxy, cyano, carbonyl, acyl, alkoxycarbonyl, amino, nitro, mercapto, and alkylthio; n and m are independently selected from 0, 1, and 2; the dashed line (represented by - - - - -) represents an optional double bond or a pharmaceutically acceptable salt, enantiomer, diastereoisomer or solvate thereof. R 1 and R 2 are independently selected from the group consisting of C 1-6 alkyl, halogen, hydroxy and C 1-6 alkoxy, said C 1-6 alkyl and C 1-6 alkoxy being optionally substituted by one or more substituents selected from the group consisting of aryl, halo, hydroxy, alkoxy, carboxy, cyano, carbonyl, acyl, alkoxycarbonyl, amino, nitro, mercapto, and alkylthio; n and m are independently selected from 0, 1, and 2; the dashed line (represented by - - - - -) represents an optional double bond or a pharmaceutically acceptable salt, enantiomer, diastereoisomer or solvate thereof.
At least one supplement comprising a combination of zinc and phytase that insures availability of zinc ion that is required for activity of botulinum neurotoxin, for use in a method of preparing a subject for botulinum neurotoxin administration, comprising: instructing administration of the at least one supplement, wherein the instructed administration of the supplement provides an availability of the required zinc ion at a sufficient level during a loading period of the supplement to eliminate a functional deficiency of the zinc ion as a cause for poor or limited responsiveness to the administered botulinum neurotoxin, wherein the supplement is administered for the loading period prior to administration of the botulinum neurotoxin. instructing administration of the at least one supplement, wherein the instructed administration of the supplement provides an availability of the required zinc ion at a sufficient level during a loading period of the supplement to eliminate a functional deficiency of the zinc ion as a cause for poor or limited responsiveness to the administered botulinum neurotoxin, wherein the supplement is administered for the loading period prior to administration of the botulinum neurotoxin.
A light-emitting diode filament configured to provide LED filament light and comprising: an elongated carrier comprising a first surface and a second surface arranged opposite to said first surface; a plurality of first light-emitting diodes, LEDs, distributed along said first surface of said elongated carrier, said plurality of first LEDs being configured to emit a first LED light having a dominant peak wavelength within a first wavelength range; a plurality of second light-emitting diodes, LEDs, distributed along said second surface of said elongated carrier, said plurality of second LEDs being configured to emit a second LED light having a dominant peak wavelength within a second wavelength range being different from said first wavelength range, wherein said first wavelength range is in the visible wavelength range and said second wavelength range is in the UV wavelength range and/or violet wavelength range, and wherein said plurality of first LEDs is encapsulated or covered by a first encapsulant comprising a luminescent material and/or scattering material, and characterised in that said plurality of second LEDs is free from an encapsulant or is encapsulated or covered by a second encapsulant being transparent. an elongated carrier comprising a first surface and a second surface arranged opposite to said first surface; a plurality of first light-emitting diodes, LEDs, distributed along said first surface of said elongated carrier, said plurality of first LEDs being configured to emit a first LED light having a dominant peak wavelength within a first wavelength range; a plurality of second light-emitting diodes, LEDs, distributed along said second surface of said elongated carrier, said plurality of second LEDs being configured to emit a second LED light having a dominant peak wavelength within a second wavelength range being different from said first wavelength range, wherein said first wavelength range is in the visible wavelength range and said second wavelength range is in the UV wavelength range and/or violet wavelength range, and wherein said plurality of first LEDs is encapsulated or covered by a first encapsulant comprising a luminescent material and/or scattering material, and characterised in that said plurality of second LEDs is free from an encapsulant or is encapsulated or covered by a second encapsulant being transparent.
Shut-off device for filling a container with a liquid, the shut-off device comprising: - a housing including a valve for enabling a liquid flow through a liquid path provided within the housing; - a control element for opening the valve in order to enable a liquid flow through the liquid path; and - a closing mechanism for automatically closing the valve dependent on the liquid level within the container; wherein the closing mechanism comprises a deflector portion (6.1) arranged within the housing for receiving a liquid jet, said deflector portion (6.1) being coupled with a lever (6.2), said lever (6.2) being operatively coupled with the valve, characterized in that the shut-off device further comprises liquid jet variation means configured to vary the force of the liquid jet applied to the deflector portion (6.1) depending on the liquid level within the container and wherein the lever (6.2) is configured to control the valve based on the force of the liquid jet applied to the deflector portion (6.1). - a housing including a valve for enabling a liquid flow through a liquid path provided within the housing; - a control element for opening the valve in order to enable a liquid flow through the liquid path; and - a closing mechanism for automatically closing the valve dependent on the liquid level within the container;
A vehicle exterior design member (10; 60; 80; 100), comprising: an inner panel (20; 62; 82; 102) made of resin; and an outer panel (22; 64; 84; 104) made of resin that is joined to the inner panel (20; 62; 82; 102), at least one of the inner panel (20; 62; 82; 102) and the outer panel (22; 64; 84; 104) having an opening (28; 68; 86, 88; 106, 108) or weak portion, a first outer edge portion (10A; 60A; 80A; 100A) that is reinforced by a reinforcing member (24; 70, 72; 90, 92, 94, 96; 114) and forms a portion of an outer edge portion of the vehicle exterior design member (10; 60; 80; 100); and a second outer edge portion (10B; 60B; 80B; 100B) that has a lower strength than the first outer edge portion (10A; 60A; 80A; 100A) and forms another portion of the outer edge portion of the vehicle exterior design member (10; 60; 80; 100), wherein the opening (28; 68; 86, 88; 106, 108) or the weak portion is arranged adjacent to a boundary portion (10C; 60C; 80C; 100C) between the first outer edge portion (10A; 60A; 80A; 100A) and the second outer edge portion (10B; 60B; 80B; 100B), wherein the reinforcing member (24; 70, 72; 90, 92, 94, 96) is an outer edge outer panel made of resin; characterized in that the first outer edge portion (10A; 60A; 80A) includes a closed section in which the outer edge outer panel is joined to an outer edge portion of the inner panel (20; 62; 82). an inner panel (20; 62; 82; 102) made of resin; and an outer panel (22; 64; 84; 104) made of resin that is joined to the inner panel (20; 62; 82; 102), at least one of the inner panel (20; 62; 82; 102) and the outer panel (22; 64; 84; 104) having an opening (28; 68; 86, 88; 106, 108) or weak portion, a first outer edge portion (10A; 60A; 80A; 100A) that is reinforced by a reinforcing member (24; 70, 72; 90, 92, 94, 96; 114) and forms a portion of an outer edge portion of the vehicle exterior design member (10; 60; 80; 100); and a second outer edge portion (10B; 60B; 80B; 100B) that has a lower strength than the first outer edge portion (10A; 60A; 80A; 100A) and forms another portion of the outer edge portion of the vehicle exterior design member (10; 60; 80; 100), wherein the opening (28; 68; 86, 88; 106, 108) or the weak portion is arranged adjacent to a boundary portion (10C; 60C; 80C; 100C) between the first outer edge portion (10A; 60A; 80A; 100A) and the second outer edge portion (10B; 60B; 80B; 100B), wherein the reinforcing member (24; 70, 72; 90, 92, 94, 96) is an outer edge outer panel made of resin; characterized in that the first outer edge portion (10A; 60A; 80A) includes a closed section in which the outer edge outer panel is joined to an outer edge portion of the inner panel (20; 62; 82).
A composition for deinking waste paper, wherein the composition comprises: A. a surfactant and B. a hydrophobic kaolin-based deinking component, wherein said hydrophobic kaolin-based deinking component is made according to the following steps: (i) treatment of a dispersed kaolin clay slurry with a hydrophobizing agent; wherein the hydrophobizing agent is an alkyl hydroxamate, fatty acid, siloxane or a combination thereof; and (ii) separation of the hydrophobic particles from the non-hydrophobic particles. A. a surfactant and B. a hydrophobic kaolin-based deinking component, (i) treatment of a dispersed kaolin clay slurry with a hydrophobizing agent; wherein the hydrophobizing agent is an alkyl hydroxamate, fatty acid, siloxane or a combination thereof; and (ii) separation of the hydrophobic particles from the non-hydrophobic particles.
An interferometry system comprising: an interferometer which is configured to direct two beams along separate paths and then combines the beams to produce an overlapping pair of exit beams, the separate paths defining an optical path length difference; a detector which is configured to respond to optical interference between the overlapping pair of exit beams and to produce an interference signal s(t) indicative of the optical path length difference, the signal s(t) including a dominant term having a frequency equal to the sum of the frequency splitting ω between the two beams, if any, and a Doppler shift φ defined by the rate of change of the optical path length difference, wherein properties of the interferometry system causes the signal s(t) to further include additional terms each having a frequency not equal to the sum of the frequency splitting ω and the Doppler shift φ; and an analyzer coupled to the detector which is configured to: i) quantify at least one of the additional terms based on values of s(t) for which the value of the Doppler shift causes the dominant term and the at least one additional term to be separated spectrally; and ii) to use the quantified at least one additional term to estimate a change in the optical path length difference corresponding to another value of s(t) for which the value of the Doppler shift does cause the dominant term and the at least one additional term to overlap spectrally. an interferometer which is configured to direct two beams along separate paths and then combines the beams to produce an overlapping pair of exit beams, the separate paths defining an optical path length difference; a detector which is configured to respond to optical interference between the overlapping pair of exit beams and to produce an interference signal s(t) indicative of the optical path length difference, the signal s(t) including a dominant term having a frequency equal to the sum of the frequency splitting ω between the two beams, if any, and a Doppler shift φ defined by the rate of change of the optical path length difference, wherein properties of the interferometry system causes the signal s(t) to further include additional terms each having a frequency not equal to the sum of the frequency splitting ω and the Doppler shift φ; and an analyzer coupled to the detector which is configured to: i) quantify at least one of the additional terms based on values of s(t) for which the value of the Doppler shift causes the dominant term and the at least one additional term to be separated spectrally; and ii) to use the quantified at least one additional term to estimate a change in the optical path length difference corresponding to another value of s(t) for which the value of the Doppler shift does cause the dominant term and the at least one additional term to overlap spectrally.
Cab mounting arrangement for a utility vehicle, with a plurality of longitudinal links (11, 12) which extend in or substantially in a longitudinal direction (x) and by means of which a driver's cab (2, 6) is mounted movably on a vehicle frame, two of the longitudinal links being arranged at a spacing from one another in a transverse direction (y) which runs transversely with respect to the longitudinal direction (x), being arranged at the same height in a vertical direction (z) which runs transversely with respect to the longitudinal direction (x) and transversely with respect to the transverse direction (y), and forming a first longitudinal link pair, two other ones of the longitudinal links being arranged at a spacing from one another in the transverse direction (y), being arranged at the same height in the vertical direction (z), and forming a second longitudinal link pair which is at a spacing in the vertical direction (z) from the first longitudinal link pair, characterized in that the two longitudinal links of the first link pair are connected to one another by way of a torsion bar which extends in the transverse direction (y) and the ends of which are connected rigidly to the longitudinal links of the first longitudinal link pair.
A p-type skutterudite material having a general formula: I y Fe 4-x M x Sb 12 /z(Φ) wherein I represents one or more filling atoms in a skutterudite phase, with the total filling amount y satisfying 0.01≤y≤1; wherein I is selected from the group consisting of Na, K, Ca, Sr, Ba, La, Ce, Pr, Nd, Sm, Eu, Gd and Yb; M represents one or more dopant atoms, with the doping amount x satisfying 0≤x<3; wherein M is selected from the group consisting of Co, Ni, Ru, Rh, Os, Ir and Pt; Φ represents one or more second phases, with the molar ratio z satisfying 0 < z ≤0.5; wherein Φ is selected from the group consisting of GaAs, GaSb, InAs, InSb, Zn 3 Sb 4 and solid solutions thereof; wherein second phase precipitates are dispersed throughout the skutterudite phase. I represents one or more filling atoms in a skutterudite phase, with the total filling amount y satisfying 0.01≤y≤1; wherein I is selected from the group consisting of Na, K, Ca, Sr, Ba, La, Ce, Pr, Nd, Sm, Eu, Gd and Yb; M represents one or more dopant atoms, with the doping amount x satisfying 0≤x<3; wherein M is selected from the group consisting of Co, Ni, Ru, Rh, Os, Ir and Pt; Φ represents one or more second phases, with the molar ratio z satisfying 0 < z ≤0.5; wherein Φ is selected from the group consisting of GaAs, GaSb, InAs, InSb, Zn 3 Sb 4 and solid solutions thereof; wherein second phase precipitates are dispersed throughout the skutterudite phase.
A method of preparing an anthracyclin having a formula represented by Formula: wherein R 1 is H, OH, or OMe; R 2 is OH; and An - is an anion of a strong acid; comprising: (a) providing N-Trifluoroacetyl daunorubicin represented by Formula, wherein R 1 is H, OH, or OMe; (b) reacting the N-Trifluoroacetyl daunorubicin of formula with oxalyl chloride activated dimethylsulfoxide (DMSO) to produce an intermediate sulfoxy salt represented by Formula, wherein R 2 is H; (c) treating the intermediate sulfoxy salt of formula with triethylamine to produce 4'-keto-N-Trifluoroacetyl-4-R 1 -daunorubicin of Formula: wherein R 1 is H, OH, or OMe; (d) reacting the 4'-keto-N-Trifluoroacetyl-4-R 1 -daunorubicin of formula with a borohydride of an alkaline metal represented by MHBL 3 wherein M is Li, Na, or K, and L is AlkO, AlkCOO, ArCOO wherein Alk = Me, Et, n-Pr, All, and wherein Ar = Ph or substituted Ph = Ph-Alk, to produce N-Trifluoroacetyl-4'-epi-4-R 1 -daunorubicin represented by Formula: wherein R 1 is defined as H, OH, OMe; (e) hydrolyzing the N-Trifluoroacetyl-4'-epi-4-R 1 -daunorubicin of formula in a basic solution to produce Formula: wherein R 1 is defined as H, OH, OMe, R 2 is H, and An - is an anion of a strong acid; (f) reacting Formula with a halogenizing agent represented by Formula: wherein R 3 through R 8 are defined as H or a hydrocarbon radical of 1 to 4 carbon chains (C 1 -C 4) and Hal is Cl, Br, or I, to form Formula: wherein R 1 is H, OH, or OMe and Hal is Cl, Br, or I, and An - is an anion of strong acid; and (g) hydrolyzing Formula in the presence of a formate of an alkaline metal to produce an anthracyclin having a formula represented by Formula. (a) providing N-Trifluoroacetyl daunorubicin represented by Formula, wherein R 1 is H, OH, or OMe; (b) reacting the N-Trifluoroacetyl daunorubicin of formula with oxalyl chloride activated dimethylsulfoxide (DMSO) to produce an intermediate sulfoxy salt represented by Formula, wherein R 2 is H; (c) treating the intermediate sulfoxy salt of formula with triethylamine to produce 4'-keto-N-Trifluoroacetyl-4-R 1 -daunorubicin of Formula: wherein R 1 is H, OH, or OMe; (d) reacting the 4'-keto-N-Trifluoroacetyl-4-R 1 -daunorubicin of formula with a borohydride of an alkaline metal represented by MHBL 3 wherein M is Li, Na, or K, and L is AlkO, AlkCOO, ArCOO wherein Alk = Me, Et, n-Pr, All, and wherein Ar = Ph or substituted Ph = Ph-Alk, to produce N-Trifluoroacetyl-4'-epi-4-R 1 -daunorubicin represented by Formula: wherein R 1 is defined as H, OH, OMe; (e) hydrolyzing the N-Trifluoroacetyl-4'-epi-4-R 1 -daunorubicin of formula in a basic solution to produce Formula: wherein R 1 is defined as H, OH, OMe, R 2 is H, and An - is an anion of a strong acid; (f) reacting Formula with a halogenizing agent represented by Formula: wherein R 3 through R 8 are defined as H or a hydrocarbon radical of 1 to 4 carbon chains (C 1 -C 4) and Hal is Cl, Br, or I, to form Formula: wherein R 1 is H, OH, or OMe and Hal is Cl, Br, or I, and An - is an anion of strong acid; and (g) hydrolyzing Formula in the presence of a formate of an alkaline metal to produce an anthracyclin having a formula represented by Formula.
A heat storage air conditioner comprising: an outdoor unit having an outdoor heat exchanger for making heat exchange, and at least one compressor for compressing refrigerant; an indoor unit having a plurality of indoor heat exchangers for making heat exchange, the plurality of the indoor heat exchangers having vaporization temperatures different from one another; a thermal storage unit for storing energy, the thermal storage unit having a thermal storage heat exchanger for making heat exchange; and at least one functional unit for selective control of a refrigerant flow among the outdoor unit, the indoor unit and the thermal storage unit according to an operation condition, characterized in that the plurality of indoor heat exchangers includes a first indoor heat exchanger for cooling, a second indoor heat exchanger for refrigerating and a third indoor heat exchanger for freezing, wherein the indoor unit includes a first indoor expansion device, a second indoor expansion device and a third indoor expansion device on an inlet side of each of the indoor heat exchangers for expanding the refrigerant, and wherein the refrigerant to be introduced to the first indoor heat exchanger passes through the first indoor expansion device only, the refrigerant to be introduced to the second indoor heat exchanger passes through the first indoor expansion device and the second indoor expansion device, and the refrigerant to be introduced to the third indoor heat exchanger passes through the first indoor expansion device, the second indoor expansion device and the third indoor expansion device in succession. an outdoor unit having an outdoor heat exchanger for making heat exchange, and at least one compressor for compressing refrigerant; an indoor unit having a plurality of indoor heat exchangers for making heat exchange, the plurality of the indoor heat exchangers having vaporization temperatures different from one another; a thermal storage unit for storing energy, the thermal storage unit having a thermal storage heat exchanger for making heat exchange; and at least one functional unit for selective control of a refrigerant flow among the outdoor unit, the indoor unit and the thermal storage unit according to an operation condition, characterized in that the plurality of indoor heat exchangers includes a first indoor heat exchanger for cooling, a second indoor heat exchanger for refrigerating and a third indoor heat exchanger for freezing, wherein the indoor unit includes a first indoor expansion device, a second indoor expansion device and a third indoor expansion device on an inlet side of each of the indoor heat exchangers for expanding the refrigerant, and wherein the refrigerant to be introduced to the first indoor heat exchanger passes through the first indoor expansion device only, the refrigerant to be introduced to the second indoor heat exchanger passes through the first indoor expansion device and the second indoor expansion device, and the refrigerant to be introduced to the third indoor heat exchanger passes through the first indoor expansion device, the second indoor expansion device and the third indoor expansion device in succession.
A method of assisting a treatment procedure, the method comprising the steps of generating, using an x-ray device, a plurality of 2-D projection images of a body of interest from different angles relative to the body of interest; generating, using a camera, an image representing an outer surface of the body of interest; processing the image data generated by the x-ray device and the image data generated by the camera, wherein the processing further includes: reconstructing a 3-D x-ray image from the plurality of 2-D projection images; determining a 3-D intervention vector in relation to an inner body structure of a body of interest based on the 3-D x-ray image, receiving an additional 2-D projection image with a projection direction being transverse to the intervention vector; registering the additional 2-D projection image with the 3-D x-ray image or at least with a corresponding 2-D projection image from the plurality of 2-D projection images; determining a deviation in a position and/or orientation of the inner body structure from the registered images; calculating a new intervention vector, based on the determined deviation, determining a 3-D position of an insertion point on the outer surface of the body of interest based on the new intervention vector, and indicating the insertion point in the camera image. reconstructing a 3-D x-ray image from the plurality of 2-D projection images; determining a 3-D intervention vector in relation to an inner body structure of a body of interest based on the 3-D x-ray image, receiving an additional 2-D projection image with a projection direction being transverse to the intervention vector; registering the additional 2-D projection image with the 3-D x-ray image or at least with a corresponding 2-D projection image from the plurality of 2-D projection images; determining a deviation in a position and/or orientation of the inner body structure from the registered images; calculating a new intervention vector, based on the determined deviation, determining a 3-D position of an insertion point on the outer surface of the body of interest based on the new intervention vector, and indicating the insertion point in the camera image.