mhurhangee/patent-ind-claim-en huggingface dataset:
An oven comprising: a compartment enclosed on all sides and defining an interior therein; a heating element operable to heat air within the interior of the compartment ; a fan disposed in fluid communication with the interior of the compartment, the fan operable to cause air to flow across the heating element and toward a front region of the compartment; a panel disposed at the front region of the compartment; a vertical divider dividing regions of the compartment through which air flows in opposite directions from one another, the vertical divider disposed parallel with a direction of airflow on either side of the vertical divider , the vertical divider providing an opening at the front region of the compartment to facilitate air flowing from the fan to the front region of the compartment through a first region adjacent the vertical divider , through the opening in the vertical divider at the front region of the compartment from the first region to a second region on an opposite side of the vertical divider , and from the front region of the compartment toward the fan through the second region adjacent the vertical divider ; and a plurality of profile elements disposed on the panel facing the interior of the compartment, positioned in one or more arrays, and structurally configured to direct air received at the panel through the first region , through the opening provided by the vertical divider , and back toward the fan through the second region in a more uniform spatial distribution than would result from a flat panel. a compartment enclosed on all sides and defining an interior therein; a heating element operable to heat air within the interior of the compartment ; a fan disposed in fluid communication with the interior of the compartment, the fan operable to cause air to flow across the heating element and toward a front region of the compartment; a panel disposed at the front region of the compartment; a vertical divider dividing regions of the compartment through which air flows in opposite directions from one another, the vertical divider disposed parallel with a direction of airflow on either side of the vertical divider , the vertical divider providing an opening at the front region of the compartment to facilitate air flowing from the fan to the front region of the compartment through a first region adjacent the vertical divider , through the opening in the vertical divider at the front region of the compartment from the first region to a second region on an opposite side of the vertical divider , and from the front region of the compartment toward the fan through the second region adjacent the vertical divider ; and a plurality of profile elements disposed on the panel facing the interior of the compartment, positioned in one or more arrays, and structurally configured to direct air received at the panel through the first region , through the opening provided by the vertical divider , and back toward the fan through the second region in a more uniform spatial distribution than would result from a flat panel.
A method for identifying network attacks, comprising: acquiring (S202) access data, the access data corresponding to access requests, within at least two time periods of a target website server according to preset fields, wherein the preset fields correspond to at least one of an IP address corresponding to a source of the target website access request, a host corresponding to a domain name accessing the target website, a useragent corresponding to a browser or a search engine accessing the target website, and a uniform resource locator, URL, corresponding to an address accessing the target website; counting (S210) one or more quantities of access data having the same content in each of the preset fields within each of the time periods; judging (S220) whether any of the one or more quantities are the same for each of the time periods; and determining (S230) that, if any of the quantities are the same in each of the time periods, access requests corresponding to access data having the same quantity are network attacks, wherein the step of acquiring access data within at least two time periods of a target website server according to preset fields specifically comprises: collecting an access log of the target website server; and acquiring access data within at least two time periods from the access log according to the preset fields. acquiring (S202) access data, the access data corresponding to access requests, within at least two time periods of a target website server according to preset fields, wherein the preset fields correspond to at least one of an IP address corresponding to a source of the target website access request, a host corresponding to a domain name accessing the target website, a useragent corresponding to a browser or a search engine accessing the target website, and a uniform resource locator, URL, corresponding to an address accessing the target website; counting (S210) one or more quantities of access data having the same content in each of the preset fields within each of the time periods; judging (S220) whether any of the one or more quantities are the same for each of the time periods; and determining (S230) that, if any of the quantities are the same in each of the time periods, access requests corresponding to access data having the same quantity are network attacks, wherein the step of acquiring access data within at least two time periods of a target website server according to preset fields specifically comprises: collecting an access log of the target website server; and acquiring access data within at least two time periods from the access log according to the preset fields. collecting an access log of the target website server; and acquiring access data within at least two time periods from the access log according to the preset fields.
Chitosan-coated nanoliposomes or chitosan-coated lipid nanostructures for the administration of active molecules for use as pharmaceutical, nutraceutical or cosmetic agents, obtainable from a process comprising the following operations: a) providing, as a starting material, a suspension of nanoliposomes encapsulating one or more active ingredients to be administered, said nanoliposomes being made of phospholipids and cholesterol, preferably phosphatidylcholine and cholesterol, at a total lipid concentration of from 0.1 to 10 mg/mL; b) producing an aqueous solution containing chitosan at a chitosan concentration of from 0.005% to 0.015% w/v; c) pumping said nanoliposomes suspension and said aqueous solution containing chitosan through two volumetric pumps in a volume flow rate ratio of from 0.8:1 to 1,2:1; d) contacting the flows consisting of said nanoliposomes suspension and said aqueous solution containing chitosan by making them pass through a simil-microfluidic device, which effects an inter-diffusion of said nanoliposomes suspension into the stream of said aqueous solution by passage through a duct, for instance a hollow needle, of internal diameter below 1 mm, the duct of said aqueous solution having an internal diameter of 2-5 mm and a length after the injection point of 150-200 mm, thereby obtaining chitosan-coated nanostructures; e) collecting the nanostructures obtained in the previous production step. a) providing, as a starting material, a suspension of nanoliposomes encapsulating one or more active ingredients to be administered, said nanoliposomes being made of phospholipids and cholesterol, preferably phosphatidylcholine and cholesterol, at a total lipid concentration of from 0.1 to 10 mg/mL; b) producing an aqueous solution containing chitosan at a chitosan concentration of from 0.005% to 0.015% w/v; c) pumping said nanoliposomes suspension and said aqueous solution containing chitosan through two volumetric pumps in a volume flow rate ratio of from 0.8:1 to 1,2:1; d) contacting the flows consisting of said nanoliposomes suspension and said aqueous solution containing chitosan by making them pass through a simil-microfluidic device, which effects an inter-diffusion of said nanoliposomes suspension into the stream of said aqueous solution by passage through a duct, for instance a hollow needle, of internal diameter below 1 mm, the duct of said aqueous solution having an internal diameter of 2-5 mm and a length after the injection point of 150-200 mm, thereby obtaining chitosan-coated nanostructures; e) collecting the nanostructures obtained in the previous production step.
A mobile terminal comprising: a camera for capturing an image, a touch screen configured to display the image and to receive a touch input being a contact touch with the touch screen, and a controller configured to: display a preview image of the image to be captured on the touch screen , display an auto focus guide (AFG) on the touch screen , indicating a position where focusing will be performed, determine whether the touch input is a drag-and-drop operation, move the auto focus guide (AFG) to a position where the drop has occurred, and perform auto focusing on the position where the auto focus guide (AFG) is displayed immediately after the drag-and-drop operation is executed, characterized in that the controller is further configured, if additional touch input is not received for a preset period of time, to control the camera to capture the image when the preset period of time elapses. a camera for capturing an image, a touch screen configured to display the image and to receive a touch input being a contact touch with the touch screen, and a controller configured to: display a preview image of the image to be captured on the touch screen , display an auto focus guide (AFG) on the touch screen , indicating a position where focusing will be performed, determine whether the touch input is a drag-and-drop operation, move the auto focus guide (AFG) to a position where the drop has occurred, and perform auto focusing on the position where the auto focus guide (AFG) is displayed immediately after the drag-and-drop operation is executed, display a preview image of the image to be captured on the touch screen , display an auto focus guide (AFG) on the touch screen , indicating a position where focusing will be performed, determine whether the touch input is a drag-and-drop operation, move the auto focus guide (AFG) to a position where the drop has occurred, and perform auto focusing on the position where the auto focus guide (AFG) is displayed immediately after the drag-and-drop operation is executed, characterized in that the controller is further configured, if additional touch input is not received for a preset period of time, to control the camera to capture the image when the preset period of time elapses.
Insertion container for a shipment carrier , which insertion container comprises at least one side wall and a base which enclose a receiving space which can be closed with a lid , the at least one side wall and/or the base having a multilayer wall structure including at least one layer of at least one vacuum insulation panel and at least two layers of a particle foam material, such as in particular expanded polypropylene (EPP) , and wherein the at least two layers of particle foam material are each formed at each location with a thickness in the range of from 2 mm to 12 mm, wherein the layer of a vacuum insulation panel is foamed in between a first layer of particle foam material and a second layer of particle foam material .
A method of manufacturing a device with an electrode structure, the method comprising: a) providing a substrate with a microfluidic channel structure shaped to match the electrode structure; b) applying a primer layer that comprises a porous particulate material and does not include an organic polymer, the primer layer being capable of absorbing a humectant organic solvent in which metal particles of a conductive liquid are dispersed to the microfluidic channel structure; c) introducing the conductive liquid to the primed microfluidic channel structure, the conductive liquid comprising dispersed electrically conductive particles in a carrier medium including a humectant organic solvent that is absorbable by the primer layer; d) waiting for the conductive liquid to flow throughout the microfluidic channel structure by capillary action; and e) evaporating the humectant organic solvent from the carrier medium to allow the electrically conductive particles to form the electrode structure ; and f) sintering the substrate with the microfluidic channel structure to fuse the conductive particles and for removing any remaining humectant organic solvent; and g) laminating the substrate with a cap layer to cover at least a part of the electrode structure. a) providing a substrate with a microfluidic channel structure shaped to match the electrode structure; b) applying a primer layer that comprises a porous particulate material and does not include an organic polymer, the primer layer being capable of absorbing a humectant organic solvent in which metal particles of a conductive liquid are dispersed to the microfluidic channel structure; c) introducing the conductive liquid to the primed microfluidic channel structure, the conductive liquid comprising dispersed electrically conductive particles in a carrier medium including a humectant organic solvent that is absorbable by the primer layer; d) waiting for the conductive liquid to flow throughout the microfluidic channel structure by capillary action; and e) evaporating the humectant organic solvent from the carrier medium to allow the electrically conductive particles to form the electrode structure ; and f) sintering the substrate with the microfluidic channel structure to fuse the conductive particles and for removing any remaining humectant organic solvent; and g) laminating the substrate with a cap layer to cover at least a part of the electrode structure.
An estimation device comprising: an acquisition unit adapted to acquire a channel estimation value for each combination of all of a plurality of combinations between a plurality of transmission antenna elements included in a base station and a plurality of reception antenna elements included in a mobile station ; and an estimation unit adapted to calculate a channel impulse response for each combination of all of the plurality of combinations between the plurality of transmission antenna elements and the plurality of reception antenna elements using the channel estimation values, and to estimate power delay profile by averaging, over all the combinations of the plurality of combinations between the plurality of transmission antenna elements and the plurality of reception antenna elements, power values for the respective combinations that are calculated from the calculated channel impulse responses for the respective combinations; characterized in that the channel estimation value is a channel estimation value for each of subcarriers arranged at predetermined subcarrier intervals, and in that the estimation unit is further adapted to interpolate a channel estimation value of a subcarrier in the predetermined subcarrier interval using an interpolation filter that uses a minimum mean squared error calculated from the power delay profile and the channel estimation value. an acquisition unit adapted to acquire a channel estimation value for each combination of all of a plurality of combinations between a plurality of transmission antenna elements included in a base station and a plurality of reception antenna elements included in a mobile station ; and an estimation unit adapted to calculate a channel impulse response for each combination of all of the plurality of combinations between the plurality of transmission antenna elements and the plurality of reception antenna elements using the channel estimation values, and to estimate power delay profile by averaging, over all the combinations of the plurality of combinations between the plurality of transmission antenna elements and the plurality of reception antenna elements, power values for the respective combinations that are calculated from the calculated channel impulse responses for the respective combinations; characterized in that the channel estimation value is a channel estimation value for each of subcarriers arranged at predetermined subcarrier intervals, and in that the estimation unit is further adapted to interpolate a channel estimation value of a subcarrier in the predetermined subcarrier interval using an interpolation filter that uses a minimum mean squared error calculated from the power delay profile and the channel estimation value.
A vaccine composition comprising the ECDs of Her1 and Her2 receptors, or immunogenic fragments thereof, in the same proportion and in a concentration range from approximately 100 to approximately 800 μg/dose, and very small size proteoliposomes derived from proteins of the outer membrane of Neisseria meningitidis and GM3 (VSSP-GM3), for use in inducing an immune response against malignant tumors that express Her1 and Her2 receptors; wherein the composition is for subcutaneous administration.
An agricultural vehicle having an engine mounted on a chassis , the chassis including a clutch housing and a transmission housing and a front frame section , the engine including an engine block fixed to the chassis , the engine not forming part of the chassis, wherein the engine block is fixed to the front frame section only at a front end of the engine block, and the engine block is fixed to the clutch housing or transmission housing only at a rear end of the engine block. the chassis including a clutch housing and a transmission housing and a front frame section , the engine including an engine block fixed to the chassis , the engine not forming part of the chassis, wherein the engine block is fixed to the front frame section only at a front end of the engine block, and the engine block is fixed to the clutch housing or transmission housing only at a rear end of the engine block.
A pressure sore prevention inflatable air cushion with at least one pressure indicator, the cushion including an outer side and at least one chamber, the at least one chamber made up of one or more films that are joined, thereby forming one or more airtight chambers, the cushion furthermore including a valve opening for connecting an air supply line, the valve opening being accessible from the surface of the cushion, and where the pressure indicator of the cushion includes at least one strap with a first end and a second end, the at least one strap arranged in relation to the surface of the cushion, characterized in that the at least one strap is surrounding the cushion entirely, and where the at least one strap is adapted such that the physical appearance of the strap is changed at a given pressure in the cushion, thus constituting said pressure indicator by providing one or more straps that extends around the cushion's entire circumference with the ends of the strap joined to each other so as to enable breaking of the at least one strap or by change of colour or shape of the one or more straps.
Use of a composition comprising a wax and a softening agent in a ratio of 1:10 to 1:2 (wax:softening agent); zinc sulfate; and a boric acid, boronic acid or ester, for treating pruning wounds on a plant, vine or tree, wherein the wax is selected from the group consisting of polyethylene wax, camuba wax, paraffin wax, polypropylene wax, oxidized polyethylene wax, montan wax, microcrystalline wax, Fischer-Tropsch wax, amide wax, ethylene-acrylic-acid wax, polyolefin wax, ethylene bis stearamide wax, bees wax, lanolin wax, candelilla wax, carnauba wax, esparto grass wax, cork wax, guaruma wax, rice germ oil wax, sugarcane wax, berry wax, ouricury wax, jojoba wax, shea butter, shellac wax, spermaceti, uropygial grease, ceresin, ozocerite (earth wax), sunflower wax, lemon wax, grape fruit wax, laurel wax, vegetable wax and any combination thereof; and the softening agent is selected from the group consisting of mineral oil, corn oil, casteroil, palm oil, palm kernel oil, soybean oil, cottonseed oil, tall oil, lard oil, oleic oil, rape oil, linseed oil, olive oil, peanut oil, fish oil, soybean oil, sesame oil, hemp seed oil, perilla oil, styrax oil, oiticica oil, kayo oil, walnut oil, cashew oil, poppy seed oil, safflower oil, watermelon seed oil, sunflower oil, rice bran oil, pumpkin seed oil, tsubaki oil, crystalis oil, kaoliang oil, ergot oil, bone oil, shark oil, sardine oil, pike oil, herring oil, saurel oil, cod oil, cuttlefish oil, trout oil, mullet oil, tuna oil, menuke oil, menhadden oil, eel oil, whale oil, liver oil, chinawood oil, plant oil, vegetable oil, animal oil and any combination thereof.
Non-implantable medical device intended to cover wounds and skin lesions, comprising a biosensor , characterised in that said biosensor comprises a piece made of absorbent, hydrophilic material fixing, on the surface and/or within the thickness thereof, a composition of agglomerated powders comprising particles of ethylene-vinyl acetate (EVA) having a surface in part covered with at least one orthophosphoric acid salt and a visual indicator of microbiological growth.
An intraocular lens injector configured to inject an intraocular lens having an optical portion and a pair of support portions extending from the optical portion into an eye, comprising: said intraocular lens ; an injector main body having a lens setting portion on which the intraocular lens is set and defining a central axis direction and a height direction; and a holding portion that holds a tip end part of a front support portion of the pair of support portions, wherein the front support portion is disposed in front of the lens setting portion ; wherein the intraocular lens is set on the lens setting portion in a no-load state; characterized by a displacement mechanism that simultaneously displaces the optical portion in the central axis direction and in the height direction relative to the front support portion while the tip end part of the front support portion is prevented from moving forwardly by the holding portion . said intraocular lens ; an injector main body having a lens setting portion on which the intraocular lens is set and defining a central axis direction and a height direction; and a holding portion that holds a tip end part of a front support portion of the pair of support portions, wherein the front support portion is disposed in front of the lens setting portion ; wherein the intraocular lens is set on the lens setting portion in a no-load state; characterized by a displacement mechanism that simultaneously displaces the optical portion in the central axis direction and in the height direction relative to the front support portion while the tip end part of the front support portion is prevented from moving forwardly by the holding portion .