mhurhangee/patent-ind-claim-en huggingface dataset:
An electric storage device, comprising: - an aprotic organic electrolyte solution of lithium salt serving as electrolyte solution; - an electrode unit (U) having a positive electrode and a negative electrode , which are wound or stacked through a separator ; and - an ion source that supplies lithium ions, which are pre-doped into the negative electrode , - wherein a plurality of through-holes are formed in a current collector of the positive electrode and the negative electrode , - wherein the negative electrode contains a negative electrode material that allows lithium ions to be doped thereinto or de-doped therefrom, wherein a mesopore/macropore specific surface area represented by a weight average of the negative electrode material is between 10 m 2 /g and 85 m 2 /g, - wherein an index X on the basis of the number of the negative electrodes per the opposite surface of the ion source facing the electrode unit (U) and the summing air permeability, which is obtained by combining the average air permeability of the positive electrode , the average air permeability of the negative electrode and the average air permeability of the separator after the completion of pre-doping, is represented by the following equation of: X = number of the negative electrodes per the opposite surface of the ion source facing the electrode unit × log combined air permeability , and wherein the index X is 50 or less. - an aprotic organic electrolyte solution of lithium salt serving as electrolyte solution; - an electrode unit (U) having a positive electrode and a negative electrode , which are wound or stacked through a separator ; and - an ion source that supplies lithium ions, which are pre-doped into the negative electrode , - wherein a plurality of through-holes are formed in a current collector of the positive electrode and the negative electrode , - wherein the negative electrode contains a negative electrode material that allows lithium ions to be doped thereinto or de-doped therefrom, wherein a mesopore/macropore specific surface area represented by a weight average of the negative electrode material is between 10 m 2 /g and 85 m 2 /g, - wherein an index X on the basis of the number of the negative electrodes per the opposite surface of the ion source facing the electrode unit (U) and the summing air permeability, which is obtained by combining the average air permeability of the positive electrode , the average air permeability of the negative electrode and the average air permeability of the separator after the completion of pre-doping, is represented by the following equation of: X = number of the negative electrodes per the opposite surface of the ion source facing the electrode unit × log combined air permeability , and wherein the index X is 50 or less.
A process for hydraulic conveying of pellets of polyolefins, comprising the steps of: (i) extruding molten polyolefin into strands and cutting the strands into pellets in an underwater pelletiser (A); (ii) withdrawing a first pellet suspension stream from the underwater pelletiser (A); (iii) concentrating the first pellet suspension stream in a first pellet separator (B) thereby producing a concentrated pellet stream and a first water stream substantially free of pellets and passing the first water stream back to the underwater pelletiser (A); (iv) passing the concentrated pellet stream to a hydraulic conveying line (1.5) through a first vessel (D) and mixing it with water thereby producing a second pellet suspension stream; (v) withdrawing the second pellet suspension stream from the first vessel (D) and passing it to a second pellet separator (E); (vi) separating the pellets from water in the second pellet separator (E) thereby creating a second water stream and a dry pellet stream and passing the second water stream back to the first vessel (D); characterised in that i the polyolefin is a copolymer of ethylene having a density of 915 kg/m 3 or less, measured according to ISO 1183-1:2004 Method A on compression moulded specimen prepared according to EN ISO 1872-2 (Feb 2007), and in that any one of the first pellet suspension stream, the second pellet suspension stream or the dry pellet stream comprises an antiblock, wherein the antiblock is silica.
Method for producing a flexibly shapeable honeycomb core , comprising at least the following method steps: a) providing an over-expandable honeycomb core and supplying it to a processing device in a machine running direction (MLR), b) over-expanding the honeycomb core in the machine running direction by stretching the honeycomb core 4 in such a way that some of the webs are oriented further in the machine running direction from the position they assume in the expanded state, c) fixing the narrow sides of the webs of the over-expanded honeycomb core , in at least two planes which are spaced apart from one another in the machine running direction (MLR) and extend perpendicularly to the machine running direction, by clamping the honeycomb core by means of at least two pairs of jaws (8, 10 and 9, 11) which are provided in one plane and engage on the honeycomb core on its top and bottom sides, d) bending and folding the webs by a relative movement of the spaced-apart planes towards one another in parallel with the machine running direction (MLR), e) releasing the fixing of the narrow sides. a) providing an over-expandable honeycomb core and supplying it to a processing device in a machine running direction (MLR), b) over-expanding the honeycomb core in the machine running direction by stretching the honeycomb core 4 in such a way that some of the webs are oriented further in the machine running direction from the position they assume in the expanded state, c) fixing the narrow sides of the webs of the over-expanded honeycomb core , in at least two planes which are spaced apart from one another in the machine running direction (MLR) and extend perpendicularly to the machine running direction, by clamping the honeycomb core by means of at least two pairs of jaws (8, 10 and 9, 11) which are provided in one plane and engage on the honeycomb core on its top and bottom sides, d) bending and folding the webs by a relative movement of the spaced-apart planes towards one another in parallel with the machine running direction (MLR), e) releasing the fixing of the narrow sides.
A computer implemented method for adjusting image data defining an image, the method comprising: (i) generating a saliency map for a frame of the image data ; wherein generating the saliency map comprises obtaining metadata specifying one or more special areas within the image and setting the special areas to have increased saliency in the saliency map ; (ii) establishing a global transformation based on the frame of the image data wherein establishing the global transformation comprises ignoring parts of the frame of the image data corresponding to image areas indicated by the saliency map as having low saliency or weighing parts of the frame of the image data corresponding to image areas indicated by the saliency map as having low saliency less heavily than other parts of the frame of the image data corresponding to image areas indicated by the saliency map as having higher saliency; and (iii) applying the global transformation to the frame of the image data , wherein steps (i), (ii) and (iii) are repeated for another frame of the image data . (i) generating a saliency map for a frame of the image data ; wherein generating the saliency map comprises obtaining metadata specifying one or more special areas within the image and setting the special areas to have increased saliency in the saliency map ; (ii) establishing a global transformation based on the frame of the image data wherein establishing the global transformation comprises ignoring parts of the frame of the image data corresponding to image areas indicated by the saliency map as having low saliency or weighing parts of the frame of the image data corresponding to image areas indicated by the saliency map as having low saliency less heavily than other parts of the frame of the image data corresponding to image areas indicated by the saliency map as having higher saliency; and (iii) applying the global transformation to the frame of the image data , wherein steps (i), (ii) and (iii) are repeated for another frame of the image data .
A method for determining an absolute brightness of a luminescent particle, comprising: - providing a sample volume containing an ensemble of luminescent particles; - determining an absolute or a relative photoluminescence quantum yield of the particle ensemble in the sample volume; - determining an absorption cross-section or the absorption efficiency of the particles in the sample volume; - determining the absolute brightness of an individual particle based on the determined absolute photoluminescence quantum yield, the absorption cross-section or the absorption efficiency and a particle count in the sample volume, the absolute brightness being expressed by a product of the absorption cross-section of a particle σ a [cm 2 ] and the quantum yield Φ f measured in a particle dispersion, the luminescent particles being selected from particles in the size range of 5 nm to 5000 μm suspended or dispersed in the sample volume, and the absolute photoluminescence quantum yield and/or the absorption cross-section being determined by way of a wavelength-resolved measurement of an emission, a transmission and a reflection. - providing a sample volume containing an ensemble of luminescent particles; - determining an absolute or a relative photoluminescence quantum yield of the particle ensemble in the sample volume; - determining an absorption cross-section or the absorption efficiency of the particles in the sample volume; - determining the absolute brightness of an individual particle based on the determined absolute photoluminescence quantum yield, the absorption cross-section or the absorption efficiency and a particle count in the sample volume, the absolute brightness being expressed by a product of the absorption cross-section of a particle σ a [cm 2 ] and the quantum yield Φ f measured in a particle dispersion, the luminescent particles being selected from particles in the size range of 5 nm to 5000 μm suspended or dispersed in the sample volume, and the absolute photoluminescence quantum yield and/or the absorption cross-section being determined by way of a wavelength-resolved measurement of an emission, a transmission and a reflection.
Aluminium containers containing filled product, characterized in that the filled product is at least one compound of the formula (I) in which R 1 and independently of one another are straight-chain or branched C 1 -C 5 alkyl, and the aluminium container is coated with at least one polymer at least on the inside, this polymer being polyester. R 1 and independently of one another are straight-chain or branched C 1 -C 5 alkyl, and the aluminium container is coated with at least one polymer at least on the inside, this polymer being polyester.
A soft magnetic thermosetting adhesive film formed from a soft magnetic thermosetting composition comprising soft magnetic particles, acrylic resin, epoxy resin, phenol resin, and a thermosetting catalyst, wherein a total of the epoxy resin content and the phenol resin content is 20 parts by mass or more and 99 parts by mass or less relative to 100 parts by mass of the component consisting of resin component, thermosetting catalyst, and optional additive but not including soft magnetic particles and solvent, the phenol resin is at least one kind selected from the group of novolak-type phenol resin, resole-type phenol resin and polyoxystyrene, and the phenol resin is a curing agent for the epoxy resin. wherein a total of the epoxy resin content and the phenol resin content is 20 parts by mass or more and 99 parts by mass or less relative to 100 parts by mass of the component consisting of resin component, thermosetting catalyst, and optional additive but not including soft magnetic particles and solvent, the phenol resin is at least one kind selected from the group of novolak-type phenol resin, resole-type phenol resin and polyoxystyrene, and the phenol resin is a curing agent for the epoxy resin.
A kit for assembling a luminaire by an end user, comprising: a bendable reflective canopy extending between a pair of opposing edge portions ; a plurality of frame sections for defining a frame delimiting a light exit window of the luminaire, the frame sections including a pair of opposing side sections and a pair of further side sections for spacing the opposing side sections , each of said opposing side sections comprising an engagement member for engaging with one of said edge portions when assembling the luminaire, wherein the opposing side sections are spaced by the further side sections such that the reflective canopy arches over the light exit window when the edge portions are engaged with said engagement members ; and a plurality of solid state lighting elements , wherein each solid state lighting element is mounted on one of said side sections such that when the luminaire is assembled at least a part of its luminous output is redirected by said bendable reflective canopy towards the light exit window; wherein the engagement member is a fastening member, each edge portion further comprising a further fastening member for engaging with one of said fastening members; the further fastening member comprises at least one protrusion which protrudes from said edge portion , characterized in that the fastening member comprises an elongate channel dimensioned to receive one of said edge portions, and a hooked member opposing said channel for receiving and securing said at least one protrusion when the edge portion is received in said elongate channel . a bendable reflective canopy extending between a pair of opposing edge portions ; a plurality of frame sections for defining a frame delimiting a light exit window of the luminaire, the frame sections including a pair of opposing side sections and a pair of further side sections for spacing the opposing side sections , each of said opposing side sections comprising an engagement member for engaging with one of said edge portions when assembling the luminaire, wherein the opposing side sections are spaced by the further side sections such that the reflective canopy arches over the light exit window when the edge portions are engaged with said engagement members ; and a plurality of solid state lighting elements , wherein each solid state lighting element is mounted on one of said side sections such that when the luminaire is assembled at least a part of its luminous output is redirected by said bendable reflective canopy towards the light exit window; wherein the engagement member is a fastening member, each edge portion further comprising a further fastening member for engaging with one of said fastening members; the further fastening member comprises at least one protrusion which protrudes from said edge portion , characterized in that the fastening member comprises an elongate channel dimensioned to receive one of said edge portions, and a hooked member opposing said channel for receiving and securing said at least one protrusion when the edge portion is received in said elongate channel .
A method for attaching a material band to a tubular piece made of a coated or uncoated plastic fabric, in particular a polyolefin or polyester fabric, which tubular piece may be closed at a first end , wherein at least one band-shaped, coated or uncoated material band is approached to an end region of a second end of the tubular piece , so that it overlaps the second end of the tubular piece in the end region , and thermal energy, preferably in the form of hot gas, particularly preferred in the form of hot air, is introduced, preferably blown, directly into the end region onto the side of the at least one material band facing the tubular piece and/or onto the surface of the tubular piece facing this side of the at least one material band , whereafter the at least one material band and the tubular piece are compressed in the end region , the introduction of thermal energy taking place simultaneously with the approach of the at least one material band to the end region of the tubular piece , wherein at least on process step is provided for forming a sack mouth surround from the at least one material band , characterized in that the process steps for forming the sack mouth surround comprise folding the material band in a V or U shape, pulling the at least one material band over the second end of the tubular piece in the end region , so that a first subsection of the at least one material band overlaps with a first layer of the tubular piece and a second subsection of the at least one material band overlaps with a second layer of the tubular piece , and at least partially severing an overhang from the first subsection and from the second subsection of the at least one material band , in particular by slitting along an extension direction of the at least one material band .
Polypropylene homopolymer having a content of isotactic pentad fraction of from 93.0 to 99.6 % a melt flow rate MFR 2 measured under a load of 2.16 kg at 230 °C according to ISO 1133 from 0.4 to 10.0 g/10 min, an aluminium content of more than 0.0 ppm and a titanium content of more than 0.0 ppm as measured according to the method provided in the description, and an ash content of more than 0.0 to 50.0 ppm, as measured according to the method provided in the description, all based on the total amount of the polypropylene composition, characterized in that the ash contains more than 0.0 up to at most 25.0 wt.-%, based on the total amount of the ash content, of the summed up amount of metals selected from elements in IUPAC groups 4 up to and including 13 of the periodic table, and in that the weight ratio of aluminium to titan within the ash is in the range of 0.8 to 2.0. a content of isotactic pentad fraction of from 93.0 to 99.6 % a melt flow rate MFR 2 measured under a load of 2.16 kg at 230 °C according to ISO 1133 from 0.4 to 10.0 g/10 min, an aluminium content of more than 0.0 ppm and a titanium content of more than 0.0 ppm as measured according to the method provided in the description, and an ash content of more than 0.0 to 50.0 ppm, as measured according to the method provided in the description, all based on the total amount of the polypropylene composition, characterized in that the ash contains more than 0.0 up to at most 25.0 wt.-%, based on the total amount of the ash content, of the summed up amount of metals selected from elements in IUPAC groups 4 up to and including 13 of the periodic table, and in that the weight ratio of aluminium to titan within the ash is in the range of 0.8 to 2.0.
A compact sewage treatment system, comprising - a restroom comprising a water closet; - a tank located below the water closet; - a pipe providing fluid communication from the water closet to the interior of the tank ; - an evaporation basin located at a level below the bottom of the tank ; wherein the pipe is feeding liquid comprising sewage and water from the water closet to a perforated container located inside the tank , wherein the perforated container is resting on a bottom surface of the tank , and shredded bark is arranged inside the tank with the exception of an empty space defined by the perforated container inside the tank , wherein the shredded bark is floating on top of liquid assembling at the bottom of the tank , wherein the liquid assembling at the bottom of the tank constitutes a biological active swamp ; and an outlet pipe is arranged at a bottom side of the tank at a level above the bottom of the tank defining a top level surface of the swamp ; wherein liquid is streaming from the swamp via the piping to an evaporation basin located at a level below the level of the bottom of the tank . - a restroom comprising a water closet; - a tank located below the water closet; - a pipe providing fluid communication from the water closet to the interior of the tank ; - an evaporation basin located at a level below the bottom of the tank ; wherein
A system for igniting a mixture in an internal combustion engine , the system comprising: a plug body comprising a shell ; a first ignition body carried by the plug body in the shell ; a second ignition body carried by the plug body in the shell and adjacent the first ignition body to define a flame kernel initiation gap between the second ignition body and the first ignition body ; an enclosure comprising a jet passage , characterized in that , it defines a chamber about an end of the shell that is larger in volume than a fluid containing interior of the shell , the chamber having interior walls including an upper end wall, sidewalls, and a lower end wall adapted to direct flow incoming through the jet passage to circulate in the chamber and recombine with the incoming flow adjacent to the jet passage and orthogonally to or in the general direction of the incoming flow. a plug body comprising a shell ; a first ignition body carried by the plug body in the shell ; a second ignition body carried by the plug body in the shell and adjacent the first ignition body to define a flame kernel initiation gap between the second ignition body and the first ignition body ; an enclosure comprising a jet passage , characterized in that , it defines a chamber about an end of the shell that is larger in volume than a fluid containing interior of the shell , the chamber having interior walls including an upper end wall, sidewalls, and a lower end wall adapted to direct flow incoming through the jet passage to circulate in the chamber and recombine with the incoming flow adjacent to the jet passage and orthogonally to or in the general direction of the incoming flow.
A fastening system for fastening a component, in particular a jacking point, to a vehicle body, comprising the component having a clearance opening that extends along a longitudinal axis (A), a retention ring which is mounted so as to be movable along the longitudinal axis (A) in the clearance opening on the component , wherein the retention ring on an end portion that protrudes from the clearance opening has retaining protrusions for latching to a retention opening of the vehicle body , furthermore comprising a locking pin that in an introduction direction (E) along the longitudinal axis (A) is insertable through the clearance opening into the retention ring , wherein the locking pin has an external thread which in an inserted state engages with an internal thread of the retention ring in such a manner that the retention ring , on account of the locking pin being screwed into the retention ring , is moved counter to the introduction direction (E) of the locking pin toward the component ; characterized in that the retention ring on the external side thereof has latching protrusions which are configured so as to elastically deform toward the inside when the retention ring is introduced into the clearance opening of the component , and so as to subsequently return to the initial position of said latching protrusions while the latter engage in guide grooves of the component that run parallel with the longitudinal axis (A); and in that the locking pin in the state when inserted into the retention ring prevents the deformation of the latching protrusions toward the inside.