mhurhangee/ep-ind-claims huggingface dataset:
Oxygen production process of VSA type from a flow of air, using at least one group of at least 3 adsorbers installed in parallel and following the same VSA cycle comprising, in succession, a phase of adsorption at the high pressure of the cycle, a phase of desorption at pressures lower than the high pressure of the cycle, a phase of repressurization of the adsorber to the high pressure of the cycle, characterized in that, periodically or exceptionally: a) at least one adsorber of the group of adsorbers is isolated so as to no longer follow the pressure cycle, b) the adsorbent contained in the adsorber isolated in the step a) is regenerated by raising the temperature, and c) c)the adsorber regenerated in the step b) is re-incorporated in the group of adsorbers so as to once again follow the pressure cycle, with: - said process using removable means of connection to air flow, oxygen flow and residual flow circuits and removable adsorbers and - in the step a) the adsorber is isolated by displacement of said adsorber out of the unit formed by the group of at least 3 adsorbers, the process using at least 2 groups of at least 3 adsorbers with the groups each following, in offset fashion, the same VSA cycle. a) at least one adsorber of the group of adsorbers is isolated so as to no longer follow the pressure cycle, b) the adsorbent contained in the adsorber isolated in the step a) is regenerated by raising the temperature, and c) c)the adsorber regenerated in the step b) is re-incorporated in the group of adsorbers so as to once again follow the pressure cycle, - said process using removable means of connection to air flow, oxygen flow and residual flow circuits and removable adsorbers and - in the step a) the adsorber is isolated by displacement of said adsorber out of the unit formed by the group of at least 3 adsorbers,
Sealing joint for timepieces comprising an internal surface and an external surface surrounding a common axis, a first one of the internal and external surfaces comprising first and second lobes (8, 10) surrounding said axis at different respective axial positions, a second one of the internal and external surfaces being asymmetric with respect to the first one of the internal and external surfaces, characterised in that said second one of the internal and external surfaces comprises, at an axial position located between the respective axial positions of the first and second lobes (8, 10), a third lobe surrounding said axis.
A liquid composition, comprising an aqueous structuring premix, wherein said aqueous structuring premix comprises water and particles, said particles comprising non-polymeric, crystalline, hydroxyl-containing structuring agent, wherein at least 80% by number of the particles have a length less than 6 microns; wherein the liquid composition is a liquid detergent composition, comprising at least one surfactant, present at a level of from 1 to 70% by weight of the liquid composition; and wherein the liquid composition comprises from 0.01wt% to 2wt% of the non-polymeric, crystalline, hydroxyl-containing structuring agent, introduced via the aqueous structuring premix.
Device for adjusting the membrane separation units of a plant I for producing biomethane from a biogas flow comprising methane and carbon dioxide, said device comprising: - a control means that is able to receive at least one datum D of the biogas flow to be treated or of the biomethane flow and to transmit this datum D in the form of a signal to a processor P of the device, - the processor P being configured to execute an algorithm to: • compare the datum D with a threshold value, • determine the difference between the threshold value and the datum D and • adjust the number of membrane separation units of the same nature in parallel in the plant I as a function of the determined difference and • adjust the operating capacity of each membrane separation unit as a function of the determined difference, with the algorithm being configured to adjust the operating capacity of the membrane separation units in parallel by hysteresis. - a control means that is able to receive at least one datum D of the biogas flow to be treated or of the biomethane flow and to transmit this datum D in the form of a signal to a processor P of the device, - the processor P being configured to execute an algorithm to: • compare the datum D with a threshold value, • determine the difference between the threshold value and the datum D and • adjust the number of membrane separation units of the same nature in parallel in the plant I as a function of the determined difference and • adjust the operating capacity of each membrane separation unit as a function of the determined difference, with the algorithm being configured to adjust the operating capacity of the membrane separation units in parallel by hysteresis. • compare the datum D with a threshold value, • determine the difference between the threshold value and the datum D and • adjust the number of membrane separation units of the same nature in parallel in the plant I as a function of the determined difference and • adjust the operating capacity of each membrane separation unit as a function of the determined difference,
A cooling roll comprising an axle and a sleeve, said sleeve having a length and a diameter comprising, from the inside to the outside: - an inner cylinder, - a plurality of magnets on the periphery of said inner cylinder disposed along at least a portion of the inner cylinder length, each magnet being defined by a width, a height and a length, - a cooling system surrounding at least a portion of said plurality of magnets, - said cooling system and said plurality of magnets being separated by a gap defined by a height, the gap height being the smallest distance between a magnet and the cooling system above, - said magnets having a width such that the following formula is satisfied: gap height × 1.1 ≤ magnet width ≤ gap height × 8.6. - an inner cylinder, - a plurality of magnets on the periphery of said inner cylinder disposed along at least a portion of the inner cylinder length, each magnet being defined by a width, a height and a length, - a cooling system surrounding at least a portion of said plurality of magnets, - said cooling system and said plurality of magnets being separated by a gap defined by a height, the gap height being the smallest distance between a magnet and the cooling system above, - said magnets having a width such that the following formula is satisfied: gap height × 1.1 ≤ magnet width ≤ gap height × 8.6.
Coating process for wrapping material made from paper or cardboard for smoking articles or parts of smoking articles to reduce the tendency of this wrapping material to absorb and diffuse aqueous or oily substances, wherein the wrapping material is provided on the same side with two superimposed coatings which are applied in two coating processes taking place in chronological succession in each case in liquid form, wherein in both coating processes the liquid coating mixture consists of a coating material and a liquid volatile matrix, wherein in the first coating process at least one layer of a first coating material is applied which lowers the absorption capacity of the paper or cardboard with respect to the liquid volatile matrix of the second coating material, in the second coating process at least one layer of a second coating material is applied which is repellent or tight with respect to one or more of the following substances, namely oils, fats, waxes, alcohols and water, wherein for the first coating material a different liquid volatile matrix is used than for the second coating material, characterised in that the wrapping material is selected from a group of wrapping materials containing: the inner sheath of a packaging of smoking articles consisting of several sheaths arranged inside one another; innerliner of packagings of smoking articles; box as a package for smoking articles; mouthpiece lining paper of a cigarette or cigarillo.
A device for use in the repair of an ear drum in a subject in need of such treatment, said device: (a) having a tensile strength of 12.5 to 40 MPa; and (b) comprising one or more membrane layers with a combined thickness of between approximately 10 μm and approximately 600 μm, (c) wherein at least one membrane layer comprises a plurality of pores within and on the surface of the device, that range between a diameter of 1°nm and 1°μm, wherein the pore size and shape facilitate cellular adhesion of cells and proliferation of the cells across the device while preventing infiltration of keratinocytes through the device; and (d) the material forming the one or more membrane layers includes silk fibroin, wherein each of features (a), (b), (c) and (d) are selected so the device transmits sound waves between 20 Hz and 20 kHz to middle ear ossicles, and the material forming the one or more membrane layers: I. is of a source non-autologous to the subject being treated with the device; II. is biocompatible; and III. supports proliferation, migration and/or adhesion of cells selected from the group comprising at least any one or more of: keratinocytes, fibroblasts, vascular cells, mucosal epithelial cells, and stem cells. (a) having a tensile strength of 12.5 to 40 MPa; and (b) comprising one or more membrane layers with a combined thickness of between approximately 10 μm and approximately 600 μm, (c) wherein at least one membrane layer comprises a plurality of pores within and on the surface of the device, that range between a diameter of 1°nm and 1°μm, wherein the pore size and shape facilitate cellular adhesion of cells and proliferation of the cells across the device while preventing infiltration of keratinocytes through the device; and (d) the material forming the one or more membrane layers includes silk fibroin, I. is of a source non-autologous to the subject being treated with the device; II. is biocompatible; and III. supports proliferation, migration and/or adhesion of cells selected from the group comprising at least any one or more of: keratinocytes, fibroblasts, vascular cells, mucosal epithelial cells, and stem cells.
A reducing electroless silver plating solution, comprising: a water-soluble silver salt and a reducing agent, wherein cyanide ions in a concentration of 0.006 x 10 -3 mol/L to 12.5 x 10 -3 mol/L are contained, and wherein the above-mentioned reducing agent is at least one kind or more selected from hydroxylammonium sulfate and hydroxylammonium acetate.
A demising wall, comprising: two structural insulated panels, called SIPs, wherein each of the SIPs is configured to span between a floor and a ceiling of a building unit, and wherein the two SIPs are spaced apart to define an interstitial space between the SIPs; a second hat channel coupled between the two SIPs, which is configured to maintain the interstitial space and nest over a first hat channel of the demising wall configured to be coupled to the floor; and a fourth hat channel coupled to a ceiling end of the demising wall such that a third hat channel of the demising wall configured to be affixed to the ceiling can be nested therewithin, wherein the fourth hat channel is deeper than the third hat channel such that a gap is defined between the third and fourth hat channels in a nested position, and wherein: each of the SIPs includes an interior surface having a magnesium oxide board and an exterior surface having a fibre cement board. two structural insulated panels, called SIPs, wherein each of the SIPs is configured to span between a floor and a ceiling of a building unit, and wherein the two SIPs are spaced apart to define an interstitial space between the SIPs; a second hat channel coupled between the two SIPs, which is configured to maintain the interstitial space and nest over a first hat channel of the demising wall configured to be coupled to the floor; and a fourth hat channel coupled to a ceiling end of the demising wall such that a third hat channel of the demising wall configured to be affixed to the ceiling can be nested therewithin, wherein the fourth hat channel is deeper than the third hat channel such that a gap is defined between the third and fourth hat channels in a nested position, and wherein: each of the SIPs includes an interior surface having a magnesium oxide board and an exterior surface having a fibre cement board.
A computer implemented method performed at least in part on at least one processor for reconciling a subspace with one or more other subspaces, wherein an index of a hash index service is partitioned into a plurality of subspaces, the hash index service being maintained by a server that stores chunks of data in a chunk store, a chunk being a region of data, each chunk being uniquely identified by a hash and associated with a reference to said chunk in the subspace, each subspace being a part of the index of the hash index service, each subspace corresponding to a partitioning of the data that is to be deduplicated, each subspace comprising a set of hashes and associated chunk IDs, the method comprising: selecting the subspace and the one or more other subspaces based upon similar subspace signatures, wherein a subspace signature is calculated for each subspace, and wherein a resemblance metric calculated for two subspaces is based on the signatures and represents a probability for deduplication opportunities between said two subspaces; (a) sequentially selecting a hash value in the subspace; (b) determining whether the hash value matches a hash value in the one or more other subspaces, and if not, advancing to step (d); (c) eliminating the matching hash value in the subspace and removing at least one duplicate chunk of data corresponding to the eliminated hash value from the chunk store, and updating any references to said at least one duplicate chunk; and (d) returning to step (a) for a plurality of different hash values until the subspace has been reconciled. selecting the subspace and the one or more other subspaces based upon similar subspace signatures, wherein a subspace signature is calculated for each subspace, and wherein a resemblance metric calculated for two subspaces is based on the signatures and represents a probability for deduplication opportunities between said two subspaces; (a) sequentially selecting a hash value in the subspace; (b) determining whether the hash value matches a hash value in the one or more other subspaces, and if not, advancing to step (d); (c) eliminating the matching hash value in the subspace and removing at least one duplicate chunk of data corresponding to the eliminated hash value from the chunk store, and updating any references to said at least one duplicate chunk; and (d) returning to step (a) for a plurality of different hash values until the subspace has been reconciled. (a) sequentially selecting a hash value in the subspace; (b) determining whether the hash value matches a hash value in the one or more other subspaces, and if not, advancing to step (d); (c) eliminating the matching hash value in the subspace and removing at least one duplicate chunk of data corresponding to the eliminated hash value from the chunk store, and updating any references to said at least one duplicate chunk; and (d) returning to step (a) for a plurality of different hash values until the subspace has been reconciled.
Heat sink (11; 31) for a semiconductor lighting device, wherein the heat sink (11; 31) at least comprises: - a first plastic part (12; 32), which has a receiving space which is open on the rear side; and - a second plastic part (14; 34), which is connected to the first plastic part (12; 32) at the front side of the latter and is intended for the arrangement of at least one semiconductor light source, wherein - the first plastic part (12; 32) has a lower thermal conductivity than the second plastic part (14; 34) and - in the heat sink (11; 31) there is at least one insert (18; 38a, 38b), which has a higher thermal conductivity than the second plastic part (14; 34), characterized in that - the insert consists of metal or ceramic and has a thermal conductivity of more than 20 W/(mK), and - in that the first plastic part (12; 32) and the second plastic part (14; 34) are connected to one another in one piece. - a first plastic part (12; 32), which has a receiving space which is open on the rear side; and - a second plastic part (14; 34), which is connected to the first plastic part (12; 32) at the front side of the latter and is intended for the arrangement of at least one semiconductor light source, wherein - the first plastic part (12; 32) has a lower thermal conductivity than the second plastic part (14; 34) and - in the heat sink (11; 31) there is at least one insert (18; 38a, 38b), which has a higher thermal conductivity than the second plastic part (14; 34), characterized in that - the insert consists of metal or ceramic and has a thermal conductivity of more than 20 W/(mK), and - in that the first plastic part (12; 32) and the second plastic part (14; 34) are connected to one another in one piece.
A method of manufacturing a bone prosthetic material, comprising: producing tricalcium phosphate particle precusor particles by applying a spray dry method to a solution in which fine particles obtained through neutralization of a calcium hydroxide solution and a phosphate solution are suspended; performing preliminary sintering on said spherical particles at a first temperature equal to or higher than 1000 C° and less than 1300 C° to produce preliminary sintering bodies; classifying tricalcium phosphate particles of diameters in a range of 25 μm to 75 μm from said preliminary sintering bodies; granulating said TCP particles by using binder to produce granulated bodies of diameters in a range of 150 μm to 2000 μm; and performing sintering on said granulated bodies at a second temperature between 1135 C° and 1430 C° to produce sintered assemblies. producing tricalcium phosphate particle precusor particles by applying a spray dry method to a solution in which fine particles obtained through neutralization of a calcium hydroxide solution and a phosphate solution are suspended; performing preliminary sintering on said spherical particles at a first temperature equal to or higher than 1000 C° and less than 1300 C° to produce preliminary sintering bodies; classifying tricalcium phosphate particles of diameters in a range of 25 μm to 75 μm from said preliminary sintering bodies; granulating said TCP particles by using binder to produce granulated bodies of diameters in a range of 150 μm to 2000 μm; and performing sintering on said granulated bodies at a second temperature between 1135 C° and 1430 C° to produce sintered assemblies.
Secure method for processing a content stored within a component, the component comprising a first memory and a non-volatile memory, the content of a first portion of the first memory comprising boot instructions and having been modified by a modification process using a first entity and including an encryption and/or a scrambling operation, the first entity including an encryption key and/or a scrambling key and/or bits for configuring a configurable logic circuit, and the content of a second portion of the first memory having been modified by a modification process using a second entity and including an encryption and/or a scrambling operation, the second entity including an encryption key and/or a scrambling key and/or bits for configuring a configurable logic circuit, method in which the said first entity is hard-coded and stored secretly in one or more registers of the component, an item of entity information representative of the said second entity is stored in the said non-volatile memory in a location designated by a first indication (INDK2) contained in the said first portion of the first memory, and in which, when the component is powered up, an inverse modification process is applied to the modified content of the first portion of the first memory by using the said first entity, then, after the said first indication (INDK2) is obtained with the said inverse modification process, the said second entity is obtained from the said item of entity information contained in the non-volatile memory and an inverse modification process is applied to the modified content of the second portion of the first memory by using the said second entity.
A method for audio editing a scene, the method comprising: recording an event by multiple first cameras; signalizing, which one of the multiple first cameras currently supplies video images of the scene; detecting a location and a movement of an object in the scene by a second tracking camera; selecting, based on information obtained by the tracking, audio samples from an audio database according to predefined criteria; and adding the selected audio samples to a sound which accompanies the video images; characterized in that the method further comprises adapting a volume of the selected audio samples based on which one of the multiple cameras currently supplies the video images of the scene and based on the information obtained by the tracking. recording an event by multiple first cameras; signalizing, which one of the multiple first cameras currently supplies video images of the scene; detecting a location and a movement of an object in the scene by a second tracking camera; selecting, based on information obtained by the tracking, audio samples from an audio database according to predefined criteria; and adding the selected audio samples to a sound which accompanies the video images; characterized in that the method further comprises adapting a volume of the selected audio samples based on which one of the multiple cameras currently supplies the video images of the scene and based on the information obtained by the tracking.
A valve assembly for use in a fuel fill line, the valve assembly comprising: a housing including a flange that surrounds the housing; a weld foot molded over at least a portion of the flange; and a seal disposed between the flange and the weld foot; characterized in that: the seal includes a first lip and a second lip, the first and second lips (30, 32) being configured to provide a labyrinth leak path and wherein the first lip and second lip are both in contact with a surface on one of the flange and the weld foot. a housing including a flange that surrounds the housing; a weld foot molded over at least a portion of the flange; and a seal disposed between the flange and the weld foot;
Multi-wall alveolar plate made of transparent or translucent material, including at least two substantially parallel longitudinal outer walls (2, 21) cross-braced by more than two transverse walls (3, 31, 32) delimiting a plurality of cells, wherein said plate includes a number n of longitudinal inner walls (6, 61, 62) higher than one, each longitudinal inner wall (6, 61, 62) extending substantially parallel between the two longitudinal outer walls (2, 21), the plurality of longitudinal inner walls (6, 61, 62) defining a number of rows of cells (7, 71, 72, 73) higher than two and equal to n+1, each row of cells (7, 71, 72, 73) comprising at least two cells (4, 41), and wherein at least all the cells (4, 41) of the row of cells located under one of the two outer walls (2, 21) are completely filled with glass particles, said particles being transparent or translucent glass beads having a particle size between 425 μm and 850 μm.