mhurhangee/patent-ind-claim-en huggingface dataset:
A topical composition for imparting an anti-aging benefit to skin comprising: one or more paxillin stimulators present in an amount effective to impart an anti-aging benefit to skin, said paxillin stimulators comprising: (I) a first group of at least one substance selected from the group consisting of a pyridone-fused azabicyclic compound of formulae IV-A and IV-B; a pyridone-fused azabicyclic compound of formula V; Ozothamnus obcordatus extract; Erythrina flabelliformis extract; Lonchocarpus capassa extract; and Cocculus glaucescens extract; or (II) a second group of at least two substances selected from the group consisting of Coccinia grandis extract; Eclipta prostrata Linn. extract; Trifolium hybridum extract; Eremophila mitchellii extract; Kunzea ambigua extract; Tanshinone IIA; cis-6-Nonenol; Terminalia belerica extract; Stephania solid extract; Equol; and Rosemary extract; and a cosmetically acceptable vehicle wherein Formula IV-A is and Formula IV-B is and Formula V is one or more paxillin stimulators present in an amount effective to impart an anti-aging benefit to skin, said paxillin stimulators comprising: (I) a first group of at least one substance selected from the group consisting of a pyridone-fused azabicyclic compound of formulae IV-A and IV-B; a pyridone-fused azabicyclic compound of formula V; Ozothamnus obcordatus extract; Erythrina flabelliformis extract; Lonchocarpus capassa extract; and Cocculus glaucescens extract; or (II) a second group of at least two substances selected from the group consisting of Coccinia grandis extract; Eclipta prostrata Linn. extract; Trifolium hybridum extract; Eremophila mitchellii extract; Kunzea ambigua extract; Tanshinone IIA; cis-6-Nonenol; Terminalia belerica extract; Stephania solid extract; Equol; and Rosemary extract; and (I) a first group of at least one substance selected from the group consisting of a pyridone-fused azabicyclic compound of formulae IV-A and IV-B; a pyridone-fused azabicyclic compound of formula V; Ozothamnus obcordatus extract; Erythrina flabelliformis extract; Lonchocarpus capassa extract; and Cocculus glaucescens extract; or (II) a second group of at least two substances selected from the group consisting of Coccinia grandis extract; Eclipta prostrata Linn. extract; Trifolium hybridum extract; Eremophila mitchellii extract; Kunzea ambigua extract; Tanshinone IIA; cis-6-Nonenol; Terminalia belerica extract; Stephania solid extract; Equol; and Rosemary extract; and a cosmetically acceptable vehicle wherein Formula IV-A is and Formula IV-B is and Formula V is
A polypropylene composition comprising (per cent by weight): (a) 65 to 85% of a crystalline propylene polymer having an amount of isotactic pentads (mmmm), measured by 13 C-MNR on the fraction insoluble in xylene at 25° C, higher than 97.0 molar% and a polydispersity index ranging from 3 to 15; (b) 5 to 25% of an elastomeric copolymer of ethylene and propylene, the copolymer having an amount of recurring units deriving from ethylene ranging from 30 to 70wt. % and being partially soluble in xylene at ambient temperature; the polymer fraction soluble in xylene at ambient temperature having an intrinsic viscosity value ranging from 3 to 10 dl/g; and (c) 5 to 25% of recycled polyethylene (r-PE) having a melt flow rate (190°C/2.16 Kg) from 0.1 to 10 g/10' and containing an amount of polypropylene inclusions ranging from 1 to 15%wt of the total r-PE component, the whole composition having a value of melt flow rate (ISO 1133 230°C/2.16 kg) ranging from higher than 3.0 g/10 min. to 15 g/10 min.; the percentages of (a), (b) and (c) being referred to the sum of (a), (b) and (c). (a) 65 to 85% of a crystalline propylene polymer having an amount of isotactic pentads (mmmm), measured by 13 C-MNR on the fraction insoluble in xylene at 25° C, higher than 97.0 molar% and a polydispersity index ranging from 3 to 15; (b) 5 to 25% of an elastomeric copolymer of ethylene and propylene, the copolymer having an amount of recurring units deriving from ethylene ranging from 30 to 70wt. % and being partially soluble in xylene at ambient temperature; the polymer fraction soluble in xylene at ambient temperature having an intrinsic viscosity value ranging from 3 to 10 dl/g; and (c) 5 to 25% of recycled polyethylene (r-PE) having a melt flow rate (190°C/2.16 Kg) from 0.1 to 10 g/10' and containing an amount of polypropylene inclusions ranging from 1 to 15%wt of the total r-PE component, the whole composition having a value of melt flow rate (ISO 1133 230°C/2.16 kg) ranging from higher than 3.0 g/10 min. to 15 g/10 min.; the percentages of (a), (b) and (c) being referred to the sum of (a), (b) and (c).
A strengthened antimicrobial glass comprising: greater than or equal to 50.0 mol.% to less than or equal to 65.0 mol.% SiO 2 ; greater than or equal to 14.0 mol.% to less than or equal to 22.0 mol.% Al 2 O 3 ; greater than or equal to 14.0 mol.% to less than or equal to 22.0 mol.% R 2 O, wherein R is an alkali metal; and greater than or equal to 4.0 mol.% to less than or equal to 10.0 mol.% P 2 O 5 , wherein: the glass comprises a compressive stress layer having a thickness of greater than or equal to 20 μm and having a surface compressive stress of greater than or equal to 700 MPa; and the glass has an antimicrobial activity greater than or equal to 1.0 Log Kill at 23 °C and 40.0% relative humidity. greater than or equal to 50.0 mol.% to less than or equal to 65.0 mol.% SiO 2 ; greater than or equal to 14.0 mol.% to less than or equal to 22.0 mol.% Al 2 O 3 ; greater than or equal to 14.0 mol.% to less than or equal to 22.0 mol.% R 2 O, wherein R is an alkali metal; and greater than or equal to 4.0 mol.% to less than or equal to 10.0 mol.% P 2 O 5 , wherein: the glass comprises a compressive stress layer having a thickness of greater than or equal to 20 μm and having a surface compressive stress of greater than or equal to 700 MPa; and the glass has an antimicrobial activity greater than or equal to 1.0 Log Kill at 23 °C and 40.0% relative humidity. the glass comprises a compressive stress layer having a thickness of greater than or equal to 20 μm and having a surface compressive stress of greater than or equal to 700 MPa; and the glass has an antimicrobial activity greater than or equal to 1.0 Log Kill at 23 °C and 40.0% relative humidity.
Lubrication system comprising an oil tank and a lubrication unit, - said lubrication unit comprising at least one pump and pipes ; - said at least one pump being configured to make oil circulate in said pipes ; characterised in that - said oil tank comprises an electric generator , a conversion element to enter into contact with the oil of the lubrication system , and, an oil deaerator , and in that ; - said generator comprises a fixed portion and a mobile portion to enter into rotation by an oil movement, to convert kinetic energy of oil of the lubrication system into electric energy, and in that : - said conversion element being mechanically connected to said mobile portion to drive the latter from an oil movement, and in that ; - said oil deaerator comprises: ∘ said conversion element to convert an oil movement at the inlet of the oil tank into a rotation movement, ∘ a vent, and in that ; - said mobile portion and said fixed portion of said generator being housed in said vent. - said lubrication unit comprising at least one pump and pipes ; - said at least one pump being configured to make oil circulate in said pipes ; - said oil tank comprises an electric generator , a conversion element to enter into contact with the oil of the lubrication system , and, an oil deaerator , and in that ; - said generator comprises a fixed portion and a mobile portion to enter into rotation by an oil movement, to convert kinetic energy of oil of the lubrication system into electric energy, and in that : - said conversion element being mechanically connected to said mobile portion to drive the latter from an oil movement, and in that ; - said oil deaerator comprises: ∘ said conversion element to convert an oil movement at the inlet of the oil tank into a rotation movement, ∘ a vent, and in that ; ∘ said conversion element to convert an oil movement at the inlet of the oil tank into a rotation movement, ∘ a vent, and in that ; - said mobile portion and said fixed portion of said generator being housed in said vent.
A method for computing a forwarding path, wherein the method comprises: receiving , by a network device , a notification packet sent by a forwarding node (101 - 107, 600, 800), wherein the notification packet comprises a link delay and device forwarding delay of the forwarding node (101 - 107, 600, 800) that sends the notification packet and, wherein the link delay is a transmission delay of a link connected to the forwarding node (101 - 107, 600, 800) that sends the notification packet, wherein the notification packet is open shortest path first, OSPF, packet or an intermediate system-to-intermediate system, IS-IS, packet; obtaining , by the network device , the device forwarding delay of the forwarding node (101 - 107, 600, 800) and the link delay based on the notification packet; and computing , by the network device , a forwarding path between a first forwarding node (101 - 107, 600, 800) and a second forwarding node (101 - 107, 600, 800) based on the device forwarding delay of the forwarding node (101 - 107, 600, 800) and the link delay, and a deterministic minimum value and a maximum value of a forwarding delay of the forwarding path meets a delay requirement of a service. receiving , by a network device , a notification packet sent by a forwarding node (101 - 107, 600, 800), wherein the notification packet comprises a link delay and device forwarding delay of the forwarding node (101 - 107, 600, 800) that sends the notification packet and, wherein the link delay is a transmission delay of a link connected to the forwarding node (101 - 107, 600, 800) that sends the notification packet, wherein the notification packet is open shortest path first, OSPF, packet or an intermediate system-to-intermediate system, IS-IS, packet; obtaining , by the network device , the device forwarding delay of the forwarding node (101 - 107, 600, 800) and the link delay based on the notification packet; and computing , by the network device , a forwarding path between a first forwarding node (101 - 107, 600, 800) and a second forwarding node (101 - 107, 600, 800) based on the device forwarding delay of the forwarding node (101 - 107, 600, 800) and the link delay, and a deterministic minimum value and a maximum value of a forwarding delay of the forwarding path meets a delay requirement of a service.
A system for transferring data from a delivery item to a label for application of the label onto the delivery item , the system comprising: a camera configured to capture an image of the data on the delivery item ; a control computer including at least one hardware processor and memory, the control computer being configured to process the image of the data and to generate a print file from a label template; and at least one label applicator (104-1) disposed after the camera relative to a direction of travel of the delivery item on a conveyor , the at least one label applicator (104-1) being configured to print the label including data contained in the print file and apply the printed label onto a top surface of the delivery item ; wherein the control computer is configured to interface with the camera and the at least one label applicator (140-1), characterized in that the control computer is further configured to integrate the image of the data captured by the camera into the label template; and that the at least one label applicator (104-1) is configured to print the label including the data contained in the print file such that the image of the data is integrated into the printed label . a camera configured to capture an image of the data on the delivery item ; a control computer including at least one hardware processor and memory, the control computer being configured to process the image of the data and to generate a print file from a label template; and at least one label applicator (104-1) disposed after the camera relative to a direction of travel of the delivery item on a conveyor , the at least one label applicator (104-1) being configured to print the label including data contained in the print file and apply the printed label onto a top surface of the delivery item ; wherein the control computer is configured to interface with the camera and the at least one label applicator (140-1), characterized in that the control computer is further configured to integrate the image of the data captured by the camera into the label template; and that the at least one label applicator (104-1) is configured to print the label including the data contained in the print file such that the image of the data is integrated into the printed label .
A safety screen comprising: a plurality of screen members vertically arranged above one another; and two longitudinal carriers pivotally connected to the plurality of screen members , wherein in a first operating position, the two longitudinal carriers extend vertically and the plurality of screen members extend horizontally, and wherein in a second operating position, the two longitudinal carriers are inclined sideward from vertical and the plurality of screen members extend horizontally, offset from one another horizontally, characterized in that the screen members , in the first operating position, have a first vertical overlap, which may be zero, and the screen members , in the second operating position, have a second vertical overlap, which is non-zero, wherein the second vertical overlap is larger than the first vertical overlap. a plurality of screen members vertically arranged above one another; and two longitudinal carriers pivotally connected to the plurality of screen members , wherein in a first operating position, the two longitudinal carriers extend vertically and the plurality of screen members extend horizontally, and wherein in a second operating position, the two longitudinal carriers are inclined sideward from vertical and the plurality of screen members extend horizontally, offset from one another horizontally, characterized in that the screen members , in the first operating position, have a first vertical overlap, which may be zero, and the screen members , in the second operating position, have a second vertical overlap, which is non-zero, wherein the second vertical overlap is larger than the first vertical overlap.
Use of a composition to selectively promote the growth, metabolism and/or colonization of good-odour associated bacteria and/or to selectively inhibit the growth, metabolism and/or colonization of malodour-associated bacteria, wherein said composition comprises at least one acid chosen from the list consisting of: , fumaric acid, mucic acid, γ-aminobutyric acid, quinic acid, D-saccharic acid, glyoxylic acid, D-glucosaminic acid, 4-hydroxybenzoic acid, D,L-α-amino-caprylic acid, N-acetyl-neuraminic acid, D,L-α-amino-N-butyric acid, orotic acid, ε-amino-N-caproic acid, β-hydroxybutyric acid, tropic acid, and hippuric acid, and wherein said good-odour associated bacteria are at least Staphylococcus epidermidis, Acinetobacter spp, Propionibacterium acnes or Enhydrobacter aerosaccus bacteria and wherein said malodour-associated bacteria are at least Corynebacterium tuberculostearicum, Corynebacterium amycolatum, Staphylococcus hominis, Micrococcus luteus or Enterobacter cloacae.
An apparatus for operation with a sensor contacting a liquid to measure an electrical property of the liquid, the apparatus comprising: a waveform generator module configured to generate a first waveform signal and to supply the first imposed waveform signal to the sensor and to generate further waveforms, for sensing and adjusting phase, frequency, amplitude and wave shape to optimize measured return signals and signal to noise characteristics; a phase adjustment module configured to receive the first waveform signal from the waveform generator module and to dynamically generate a phase-shifted signal from the first waveform signal, said phase-shifted signal having a phase that is adjusted via the phase adjustment module and an amplitude that is adjusted via a programmable transconductance amplifier , both in response to expected or measured properties of the liquid and further adjusted to compensate for apparatus hardware phase error induced inaccuracies in the measurement; a signal combination module configured to receive a return signal from the sensor and the phase-shifted signal from the phase adjustment module and to sum the return signal and the phase-shifted signal to produce an adjusted return signal containing information associated with the electrical property of the liquid, and the combination of said apparatus modules as a whole configured to enable for adaptive compensation and shaping arbitrary waveforms measurement of electrical conductivity over a continuous spectrum utilizing different waveforms and compensating for phase error induced inaccuracies in the measurements. a waveform generator module configured to generate a first waveform signal and to supply the first imposed waveform signal to the sensor and to generate further waveforms, for sensing and adjusting phase, frequency, amplitude and wave shape to optimize measured return signals and signal to noise characteristics; a phase adjustment module configured to receive the first waveform signal from the waveform generator module and to dynamically generate a phase-shifted signal from the first waveform signal, said phase-shifted signal having a phase that is adjusted via the phase adjustment module and an amplitude that is adjusted via a programmable transconductance amplifier , both in response to expected or measured properties of the liquid and further adjusted to compensate for apparatus hardware phase error induced inaccuracies in the measurement; a signal combination module configured to receive a return signal from the sensor and the phase-shifted signal from the phase adjustment module and to sum the return signal and the phase-shifted signal to produce an adjusted return signal containing information associated with the electrical property of the liquid, and the combination of said apparatus modules as a whole configured to enable for adaptive compensation and shaping arbitrary waveforms measurement of electrical conductivity over a continuous spectrum utilizing different waveforms and compensating for phase error induced inaccuracies in the measurements.
A lead arrangement (1500; 2000; 2800B; 3400; 3700), comprising: a plurality of proximal leads (1002A, 1002B; 1702A, 1702B; 2202A, 2202B; 2602A, 2602B; 3002A, 3002B; 3602A, 3602B), each proximal lead having a proximal end and a distal end and comprising a plurality of conductive contacts disposed along the proximal end and a plurality of conductive wires coupled to the conductive contacts and extending to the distal end of the proximal lead; at least one distal lead (1102; 1704; 2204; 2604; 3004; 3604), each distal lead having a proximal end and a distal end and comprising a plurality of electrodes disposed along the distal end and a plurality of conductive wires coupled to the electrodes and extending to the proximal end of the distal lead; and a junction (1400; 1900; 3600) electrically and mechanically coupling the plurality of proximal leads to the at least one distal lead, the junction comprising a plurality of conductive tabs (904; 1604) and a non-conductive material encapsulating the plurality of conductive tabs, wherein the tabs are arranged in at least two rows with each row comprising multiple tabs longitudinally spaced apart from each other along a length of the junction, the length of the junction extending from the plurality of proximal leads to the at least one distal lead, wherein the conductive wires of the at least one distal lead and the conductive wires of the plurality of proximal leads are attached to the plurality of conductive tabs of the junction. a plurality of proximal leads (1002A, 1002B; 1702A, 1702B; 2202A, 2202B; 2602A, 2602B; 3002A, 3002B; 3602A, 3602B), each proximal lead having a proximal end and a distal end and comprising a plurality of conductive contacts disposed along the proximal end and a plurality of conductive wires coupled to the conductive contacts and extending to the distal end of the proximal lead; at least one distal lead (1102; 1704; 2204; 2604; 3004; 3604), each distal lead having a proximal end and a distal end and comprising a plurality of electrodes disposed along the distal end and a plurality of conductive wires coupled to the electrodes and extending to the proximal end of the distal lead; and a junction (1400; 1900; 3600) electrically and mechanically coupling the plurality of proximal leads to the at least one distal lead, the junction comprising a plurality of conductive tabs (904; 1604) and a non-conductive material encapsulating the plurality of conductive tabs, wherein the tabs are arranged in at least two rows with each row comprising multiple tabs longitudinally spaced apart from each other along a length of the junction, the length of the junction extending from the plurality of proximal leads to the at least one distal lead, wherein the conductive wires of the at least one distal lead and the conductive wires of the plurality of proximal leads are attached to the plurality of conductive tabs of the junction.
A transmission system for transmitting power generated by an engine of a vehicle, comprising a power take-off for driving an implement and a hydrostatic unit for transmitting power from the engine to the power take-off , wherein the hydrostatic unit comprises: - a first hydraulic power unit having a first connection line and a second connection line ; - a second hydraulic power unit having a first connection line and a second connection line ; - a valve for connecting the first hydraulic power unit and the second hydraulic power unit , the valve being positionable at least in a first position and in a second position; wherein: - in said first position, the first connection line and the second connection line of the first hydraulic power unit are connected respectively to the first connection line and to the second connection line of the second hydraulic power unit , and - in said second position, the first connection line and the second connection line of the first hydraulic power unit are connected respectively to the second connection line and to the first connection line of the second hydraulic power unit , and wherein the valve is controlled according to a cycle of hysteresis when the valve is required to switch between the first position and the second position at a preset value of engine speed (ω). - a first hydraulic power unit having a first connection line and a second connection line ; - a second hydraulic power unit having a first connection line and a second connection line ; - a valve for connecting the first hydraulic power unit and the second hydraulic power unit , the valve being positionable at least in a first position and in a second position; - in said first position, the first connection line and the second connection line of the first hydraulic power unit are connected respectively to the first connection line and to the second connection line of the second hydraulic power unit , and - in said second position, the first connection line and the second connection line of the first hydraulic power unit are connected respectively to the second connection line and to the first connection line of the second hydraulic power unit ,