mhurhangee/ep-ind-claims huggingface dataset:
A snap hook comprising: a body having an upper portion, a lower portion and a central portion, the central portion being positioned between the upper portion and the lower portion (125a, 125b); a gate pivotally coupled proximate the central portion of the body, the gate and body (180, 125) selectively forming a closed configuration that defines a hook connection passage and an open configuration that provides access to the hook connection passage; a connection link having an upper end and a lower end, the upper end of the connection link pivotally coupled proximate the central portion of the body, the lower end of the connection link including a body connection aperture; and a breakable fastener coupling the lower end of the connection link proximate the lower portion of the body, the breakable fastener configured to break when a select amount of force is applied to the lower end of the connection link to transfer the select amount of force from the lower portion of the body to the central portion of the body. a body having an upper portion, a lower portion and a central portion, the central portion being positioned between the upper portion and the lower portion (125a, 125b); a gate pivotally coupled proximate the central portion of the body, the gate and body (180, 125) selectively forming a closed configuration that defines a hook connection passage and an open configuration that provides access to the hook connection passage; a connection link having an upper end and a lower end, the upper end of the connection link pivotally coupled proximate the central portion of the body, the lower end of the connection link including a body connection aperture; and a breakable fastener coupling the lower end of the connection link proximate the lower portion of the body, the breakable fastener configured to break when a select amount of force is applied to the lower end of the connection link to transfer the select amount of force from the lower portion of the body to the central portion of the body.
A process of finishing a textile material comprising an antimicrobial process cycle and a main process cycle, the antimicrobial process cycle being performed before the main process cycle, wherein the antimicrobial process cycle comprises the steps of: - treating the textile material using an exhaust process, wherein the liquor comprises one or more chemical agents which increase the antimicrobial efficacy of the textile material, - subjecting the treated textile material to a heat treatment, and wherein the main process cycle comprises the steps of: - treating the textile material using an application process such as a knife or screen coating process, a spraying process, an exhaust process, or preferably a padding process, wherein a liquor is applied to the textile which comprises one or more chemical agents which increase the stain release capability and the water holding capacity of the textile material, the chemical agents which increase the stain release capability and the water holding capacity of the textile material being based on at least one selected from the group consisting of carboxylic acid esters, organosilane terpolymers, and starch based emulsion, and - subjecting the treated textile material to a heat treatment. - treating the textile material using an exhaust process, wherein the liquor comprises one or more chemical agents which increase the antimicrobial efficacy of the textile material, - subjecting the treated textile material to a heat treatment, - treating the textile material using an application process such as a knife or screen coating process, a spraying process, an exhaust process, or preferably a padding process, wherein a liquor is applied to the textile which comprises one or more chemical agents which increase the stain release capability and the water holding capacity of the textile material, the chemical agents which increase the stain release capability and the water holding capacity of the textile material being based on at least one selected from the group consisting of carboxylic acid esters, organosilane terpolymers, and starch based emulsion, and - subjecting the treated textile material to a heat treatment.
A method for controlling a cooking device, in particular an induction hob, characterized in, that the method comprises the following steps: - activating an overload power (P OVER) for at least one electric or electronic component of the cooking device by using at least two synchronized generators, which overload power (P OVER) is greater than a standard maximum power (P MAX), - deactivating the overload power (P OVER) after a predetermined period (At), and - operating the cooking device at a power, which is at most the standard maximum power (P MAX), wherein - the standard maximum power (P MAX) is provided for a permanent operation of the cooking device, and wherein - the overload power (P OVER) and/or the period (At) are determined by an integral of the overload power (P OVER) over the period (Δt), which integral corresponds with the loadings of the electric or electronic components, and wherein - the period (At) is limited by a maximum period (Δt MAX). - activating an overload power (P OVER) for at least one electric or electronic component of the cooking device by using at least two synchronized generators, which overload power (P OVER) is greater than a standard maximum power (P MAX), - deactivating the overload power (P OVER) after a predetermined period (At), and - operating the cooking device at a power, which is at most the standard maximum power (P MAX), wherein - the standard maximum power (P MAX) is provided for a permanent operation of the cooking device, and wherein - the overload power (P OVER) and/or the period (At) are determined by an integral of the overload power (P OVER) over the period (Δt), which integral corresponds with the loadings of the electric or electronic components, and wherein - the period (At) is limited by a maximum period (Δt MAX).
MACHINE FOR THE PRIMARY TREATMENT OF URBAN AND INDUSTRIAL WASTE WATER, which has the purpose of separating the liquid portion from the solid portion, consisting of settleable and not settleable substances of the type employing a single compact metal structure, which comprises a tank for the collection of waste water, in which a front decantation zone, where the waste product to be treated is poured, and a rear filtration zone are present, said machine being characterized in that the front decantation zone and the rear filtration zone are kept mutually separated or made mutually communicating by means of a motorized sliding gate (2, 3) which allows, on the upper part, the discharge, by overflowing, of the liquid and of the not settleable solid portion, and on the lower part, by means of an adjustable opening, allows the outflow of the settled solid portion, such as sand, soil, rocks, gravel and various pebbles.
A gasification process, comprising: (a) introducing a liquid hydrocarbon feedstock and at least one of a dry feedstock or a first slurried feedstock into a reactor lower section, wherein the at least one dry feedstock or first slurried feedstock is introduced through two primary feed nozzles (60, 60a) respectively located on opposing terminal ends of the reactor lower section while the liquid hydrocarbon feedstock is introduced through at least two secondary feed nozzles (200a, 200b) respectively located on the terminal ends of the reactor lower section; (b) partially combusting the feedstocks in the reactor lower section with a gas stream comprising an oxygen-containing gas or steam to evolve heat and form products comprising hot synthesis gas; (c) passing said hot synthesis gas from step (b) upward into a reactor upper section; and (d) introducing a second slurried feedstock into said reactor upper section, whereby heat from said hot synthesis gas supports reaction of the second slurried feedstock by pyrolysis and gasification reactions. (a) introducing a liquid hydrocarbon feedstock and at least one of a dry feedstock or a first slurried feedstock into a reactor lower section, wherein the at least one dry feedstock or first slurried feedstock is introduced through two primary feed nozzles (60, 60a) respectively located on opposing terminal ends of the reactor lower section while the liquid hydrocarbon feedstock is introduced through at least two secondary feed nozzles (200a, 200b) respectively located on the terminal ends of the reactor lower section; (b) partially combusting the feedstocks in the reactor lower section with a gas stream comprising an oxygen-containing gas or steam to evolve heat and form products comprising hot synthesis gas; (c) passing said hot synthesis gas from step (b) upward into a reactor upper section; and (d) introducing a second slurried feedstock into said reactor upper section, whereby heat from said hot synthesis gas supports reaction of the second slurried feedstock by pyrolysis and gasification reactions.
A bone fastener comprising: a shaft including a threaded outer surface; a head having a free end, a connected end, and a threaded outer surface therebetween, the connected end of the head being connected to a trailing end of the shaft, wherein the head has a first diameter at the free end and a second diameter at the connected end, the first diameter being less than the second diameter; a thread (23, 40) of the head being a left-handed thread and a thread of the threaded outer surface of the shaft being a right-handed thread, wherein, the thread of the threaded outer surface of the head extends from the free end to the connected end and tapers outwardly from the free end, characterised in that, the head has a conical outer shape between the free end and the connected end of the head. a shaft including a threaded outer surface; a head having a free end, a connected end, and a threaded outer surface therebetween, the connected end of the head being connected to a trailing end of the shaft, wherein the head has a first diameter at the free end and a second diameter at the connected end, the first diameter being less than the second diameter; a thread (23, 40) of the head being a left-handed thread and a thread of the threaded outer surface of the shaft being a right-handed thread, wherein, the thread of the threaded outer surface of the head extends from the free end to the connected end and tapers outwardly from the free end,
An image processing device adapted to display at least part of a two-dimensional image on a display. comprising: a storage device configured to store hierarchical data comprising image data that are representations of 2D images in different resolutions and that are hierarchized in order of resolution; a memory configured to store a scenario definition file designating an area in the hierarchical data in a virtual space defined by an image plane of a 2D image and an axis of resolution, the area defining a region in the 2D image and a resolution; the memory further configured to store a link definition file that maps an area of a 2D image consisting of a hierarchical data to an area of another 2D image consisting of another hierarchical data, the areas being defined in virtual spaces different from each other, wherein the scenario definition file designates an area which is mapped to an area of another 2D image by the link definition file, and an input information acquisition unit configured to acknowledge a user request related to a change in a displayed part of the 2D image; and a displayed image processing unit (117, 112, 114) when said predetermined request is provided by the user, being configured to move the displayed part of the 2D image automatically toward the area designated in the scenario definition file when the displayed part of the 2D image enters into a predetermined range from the designated area in the virtual space of the hierarchical data currently being displayed and that is designated in the link definition file and to switch the displayed image to a mapped area of another 2D image. a storage device configured to store hierarchical data comprising image data that are representations of 2D images in different resolutions and that are hierarchized in order of resolution; a memory configured to store a scenario definition file designating an area in the hierarchical data in a virtual space defined by an image plane of a 2D image and an axis of resolution, the area defining a region in the 2D image and a resolution; the memory further configured to store a link definition file that maps an area of a 2D image consisting of a hierarchical data to an area of another 2D image consisting of another hierarchical data, the areas being defined in virtual spaces different from each other, wherein the scenario definition file designates an area which is mapped to an area of another 2D image by the link definition file, and an input information acquisition unit configured to acknowledge a user request related to a change in a displayed part of the 2D image; and a displayed image processing unit (117, 112, 114) when said predetermined request is provided by the user, being configured to move the displayed part of the 2D image automatically toward the area designated in the scenario definition file when the displayed part of the 2D image enters into a predetermined range from the designated area in the virtual space of the hierarchical data currently being displayed and that is designated in the link definition file and to switch the displayed image to a mapped area of another 2D image.
A fire monitoring method comprising the steps of: dividing a monitor image in a monitor region (15-1,15-2) captured by an image-capturing part (16-1,16-2) into a plurality of block images; inputting the block images to a fire detector constituted by a multi-layer-type neural network so that a fire is detected; characterized by dividing, by a learning image generation part, an input image into the plurality of block images as learning images and classifying the images to fire learning block images, normal learning block images, or non-learning block images so as to be stored in a learning image storage part; and inputting, by a learning control part, the fire learning block images and the normal learning block images stored in the learning image storage part to the fire detector so as to subject the multi- layer-type neural network to learning; wherein the fire learning block images correspond to block images in which flames and smoke are visually observed, the normal learning block images correspond to block images having none of flames and smoke, and the non-learning block images correspond to block images which include flames and smoke that are hard to be visually observed. dividing a monitor image in a monitor region (15-1,15-2) captured by an image-capturing part (16-1,16-2) into a plurality of block images; inputting the block images to a fire detector constituted by a multi-layer-type neural network so that a fire is detected; characterized by dividing, by a learning image generation part, an input image into the plurality of block images as learning images and classifying the images to fire learning block images, normal learning block images, or non-learning block images so as to be stored in a learning image storage part; and inputting, by a learning control part, the fire learning block images and the normal learning block images stored in the learning image storage part to the fire detector so as to subject the multi- layer-type neural network to learning;
A method of analyzing glycopeptides, comprising: reacting, in a first reaction, a first portion of a sample containing a glycopeptide of interest with a first labeling reagent, said glycopeptide of interest comprising a glycan bonded to a peptide, wherein a product of the first reaction comprises a labeled glycopeptide; reacting, in a second reaction, a second portion of the sample containing said glycopeptide with a first glycosidase and a second labeling reagent different from the first labeling reagent, wherein the reaction with the first glycosidase is effective to release the glycan from the peptide, and wherein a product of the second reaction comprises a labeled peptide; reacting, in a third reaction, a third portion of the sample containing said glycopeptide with a second glycosidase different from the first glycosidase and a third labeling reagent different from the first and second labeling reagents, wherein the reaction with the second glycosidase is effective to cleave a portion of the glycan from the glycopeptide so as to form a cleaved glycan portion and a cleaved glycopeptide comprising a non-cleaved glycan portion and bonded to the peptide, and wherein a product of the third reaction comprises a labeled, cleaved glycopeptide; combining the products of said first, second, and third reactions (132a, b, c) so as to form a mixture containing the labeled glycopeptide, the labeled peptide, and the labeled, cleaved glycopeptide; and performing liquid chromatography-mass spectrometry on the mixture. reacting, in a first reaction, a first portion of a sample containing a glycopeptide of interest with a first labeling reagent, said glycopeptide of interest comprising a glycan bonded to a peptide, wherein a product of the first reaction comprises a labeled glycopeptide; reacting, in a second reaction, a second portion of the sample containing said glycopeptide with a first glycosidase and a second labeling reagent different from the first labeling reagent, wherein the reaction with the first glycosidase is effective to release the glycan from the peptide, and wherein a product of the second reaction comprises a labeled peptide; reacting, in a third reaction, a third portion of the sample containing said glycopeptide with a second glycosidase different from the first glycosidase and a third labeling reagent different from the first and second labeling reagents, wherein the reaction with the second glycosidase is effective to cleave a portion of the glycan from the glycopeptide so as to form a cleaved glycan portion and a cleaved glycopeptide comprising a non-cleaved glycan portion and bonded to the peptide, and wherein a product of the third reaction comprises a labeled, cleaved glycopeptide; combining the products of said first, second, and third reactions (132a, b, c) so as to form a mixture containing the labeled glycopeptide, the labeled peptide, and the labeled, cleaved glycopeptide; and performing liquid chromatography-mass spectrometry on the mixture.
Compositions for oral use comprising per dosage unit: a) an extract of Vitis vinifera in the form of a complex with phospholipids, or an extract of Punica granatum, in amounts ranging from 50 to 1000 mg; and b) a lipophilic extract of Zingiber officinale in amounts ranging from 10 to 80 mg; and c) a lipophilic extract of Zanthoxylum spp. in amounts ranging from 1 to 50 mg; and d) an unsaponifiable fraction of olive oil (Olea europaea) in amounts ranging from 50 to 500 mg. a) an extract of Vitis vinifera in the form of a complex with phospholipids, or an extract of Punica granatum, in amounts ranging from 50 to 1000 mg; and b) a lipophilic extract of Zingiber officinale in amounts ranging from 10 to 80 mg; and c) a lipophilic extract of Zanthoxylum spp. in amounts ranging from 1 to 50 mg; and d) an unsaponifiable fraction of olive oil (Olea europaea) in amounts ranging from 50 to 500 mg.
Flow battery comprising: - a first semi-cell comprising at least one first tank for a first electrolyte, a first electrode connected to said first tank, a first feed member for feeding the first electrolyte through said first electrode; - a second semi-cell comprising at least one second tank for a second electrolyte, a second electrode connected to said second tank and a second feed member for feeding the second electrolyte through said second electrode; - a partition membrane disposed between the first electrode and second electrode so as to prevent them to reciprocally contact each other, said partition membrane being suitable to enable the ion permeation; - at least one porous barrier material layer disposed between the first electrode and second electrode, and suitable to block an undesired flow of ions of one or both the electrolytes through the partition membrane, said barrier material layer having at least one contact surface with the partition membrane; said battery being characterized in that the barrier material layer has areas with different selectivities to ions of which the flow is undesired. - a first semi-cell comprising at least one first tank for a first electrolyte, a first electrode connected to said first tank, a first feed member for feeding the first electrolyte through said first electrode; - a second semi-cell comprising at least one second tank for a second electrolyte, a second electrode connected to said second tank and a second feed member for feeding the second electrolyte through said second electrode; - a partition membrane disposed between the first electrode and second electrode so as to prevent them to reciprocally contact each other, said partition membrane being suitable to enable the ion permeation; - at least one porous barrier material layer disposed between the first electrode and second electrode, and suitable to block an undesired flow of ions of one or both the electrolytes through the partition membrane, said barrier material layer having at least one contact surface with the partition membrane;