mhurhangee/patent-ind-claim-en huggingface dataset:
A computerized system comprising: a buildout service in a first cloud computing environment remote from a second cloud computing environment , the second cloud computing environment comprising a hardware proxy and maintaining restricted data within the confines of the second cloud computing environment, wherein the restricted data are not accessible to the buildout service in the first computing environment, wherein the buildout service is configured to: determine that one or more network devices are being added to the second cloud computing environment; obtain one or more configuration templates to configure the one or more network devices; populate the one or more configuration templates with values from non-restricted data from the second cloud computing environment available to the buildout service; send , to the hardware proxy in the second cloud computing environment, one or more requests to configure the one or more network devices, the one or more requests including the populated one or more configuration templates; and cause the hardware proxy to configure the one or more network devices using the one or more configuration templates and the restricted data maintained in the second cloud computing environment and not accessible to the buildout service, wherein configuring the one or more network devices comprises updating the populated one or more configuration templates for the one or more network devices with values from the restricted data maintained in the second cloud computing environment and issuing commands to the one or more network devices to configure the one or more network devices based on the one or more populated configuration templates. determine that one or more network devices are being added to the second cloud computing environment; obtain one or more configuration templates to configure the one or more network devices; populate the one or more configuration templates with values from non-restricted data from the second cloud computing environment available to the buildout service; send , to the hardware proxy in the second cloud computing environment, one or more requests to configure the one or more network devices, the one or more requests including the populated one or more configuration templates; and cause the hardware proxy to configure the one or more network devices using the one or more configuration templates and the restricted data maintained in the second cloud computing environment and not accessible to the buildout service, wherein configuring the one or more network devices comprises updating the populated one or more configuration templates for the one or more network devices with values from the restricted data maintained in the second cloud computing environment and issuing commands to the one or more network devices to configure the one or more network devices based on the one or more populated configuration templates.
A compound represented by Formula : (R 2 -HNOC) 4-n -R 1 -(CONH-R 3 ) n wherein R 1 is a group resulting from removing four hydrogen atoms from a structural formula of one of benzene and cyclohexane; R 2 is, independently in each occurrence, an aliphatic hydrocarbon group containing 1 to 4 carbon atoms; R 3 is, independently in each occurrence, an aliphatic hydrocarbon group containing 6 or more carbon atoms; and n is an integer of 1 to 3.
A method for switching a switching device between two switch positions in a hydraulic system, wherein the hydraulic system apart from the switching device comprises a pump assembly , wherein the pump assembly can assume at least two different operating conditions and a switching-over of the switching device is initiated by the pump assembly via the hydraulic system, characterised in that the switch positions of the switching device are reached in a manner depending on a stay duration of the pump assembly in at least one of the two operating conditions.
A rear surface structure configured to be positioned at a rear portion of an oven such that it contacts lower and upper surfaces as well as side surfaces of the cooking chamber, wherein said rear surface structure comprises an air duct in the form of a round gap positioned right at the middle portion of the rear surface structure , a fan located on a point around the air duct such that it is close to the air duct and configured to suck the air to be heated from inside the cooking chamber, a circumferential helical duct provided on the surface at a rear side of the air duct , positioned such that it completely surrounds edge surface of the air duct and having a helix gap shaped inner structure having a diameter big enough for passage of air, an end of the circumferential helical duct being connected to the fan and enclosing it such that the air to be heated, sucked by the fan from inside the cooking chamber enters into the circumferential helical duct , wherein the helix inner structure of the circumferential helical duct is such that the air performs a cyclonic motion while passing through the circumferential helical duct , a resistor located inside the circumferential helical duct close to the fan such that air to be heated, sucked by fan passes through the resistor immediately before entering into the inner structure, in the form of helix gap, of the circumferential helical duct and ensuring that air is heated, a distribution hole located on an inner surface at an inner side of the circumferential helical duct , such that air sucked by the fan exits from the distribution hole by passing through the circumferential helical duct and continues to perform a cyclonic motion towards the center of the cooking chamber after being discharged from the distribution hole .
A method of producing a coating liquid-impregnated reinforcing fiber fabric (lb), comprising: allowing a reinforcing fiber fabric to pass substantially vertically downward through the inside of a coating section storing a coating liquid to provide said reinforcing fiber fabric with said coating liquid; wherein said coating section includes a liquid pool and a narrowed section which are in communication with each other; wherein said liquid pool has a portion whose cross-sectional area decreases continuously along a running direction of said reinforcing fiber fabric; wherein said narrowed section has a slit-like cross-section and has a smaller cross-sectional area than the top side of said liquid pool; and wherein the vertical height of said portion whose cross-sectional area decreases continuously in said liquid pool is 10 mm or more. allowing a reinforcing fiber fabric to pass substantially vertically downward through the inside of a coating section storing a coating liquid to provide said reinforcing fiber fabric with said coating liquid; wherein said coating section includes a liquid pool and a narrowed section which are in communication with each other; wherein said liquid pool has a portion whose cross-sectional area decreases continuously along a running direction of said reinforcing fiber fabric; wherein said narrowed section has a slit-like cross-section and has a smaller cross-sectional area than the top side of said liquid pool; and wherein the vertical height of said portion whose cross-sectional area decreases continuously in said liquid pool is 10 mm or more.
A method for culturing haptophytes comprising simultaneously irradiating culture liquid containing the haptophytes with both - yellow light the half-value width of the peak wavelength of which falls within the wavelength range of 550-600 nm, using a first light source, and - non-yellow visible light the peak wavelength of which falls within the wavelength range of < 550 nm or within the wavelength range of > 600 nm, using a second light source. - yellow light the half-value width of the peak wavelength of which falls within the wavelength range of 550-600 nm, using a first light source, and - non-yellow visible light the peak wavelength of which falls within the wavelength range of < 550 nm or within the wavelength range of > 600 nm, using a second light source.
Formulations containing a mixture of I. an aqueous polyurethane or polyurethane-urea dispersion, containing as disperse phase a polymer A) which after drying is semicrystalline or crystalline and has a melting temperature in the range from 30 to 80°C and an enthalpy of fusion of ≥ 35 J/g, II. at least one plasticizer resin B), III. at least one tackifier resin C), characterized in that the mixture, based on the solids present overall, contains 60% - 90% by weight of polymer A), 5% - 20% by weight of plasticizer resin B) and 5% - 20% by weight of tackifier resin C), and the amounts by weight of A), B) and C) add up to 100% by weight, wherein a polymer is semicrystalline or crystalline when it exhibits a melting peak in a DSC measurement in accordance with DIN 65467 with a heating rate of 20 K/min. I. an aqueous polyurethane or polyurethane-urea dispersion, containing as disperse phase a polymer A) which after drying is semicrystalline or crystalline and has a melting temperature in the range from 30 to 80°C and an enthalpy of fusion of ≥ 35 J/g, II. at least one plasticizer resin B), III. at least one tackifier resin C), 60% - 90% by weight of polymer A), 5% - 20% by weight of plasticizer resin B) and 5% - 20% by weight of tackifier resin C), and the amounts by weight of A), B) and C) add up to 100% by weight, wherein a polymer is semicrystalline or crystalline when it exhibits a melting peak in a DSC measurement in accordance with DIN 65467 with a heating rate of 20 K/min.
A stapler (1 A-F) comprising: a striking part (20 A) configured to cause a pair of staple legs (12 A) to penetrate a sheet bundle (P); a bending part (30 A-F) configured to bend the staple legs (12 A) at a first position such that tips of the staple legs (12 A) having penetrated the sheet bundle (P) by the striking part (20 A) are directed inwardly; and a clincher part (33 A) configured to bend the staple legs (12 A) at a second position located closer to the sheet bundle (P) than the first position such that the staple legs (12 A) of which the tips are bent inwardly at the first position by the bending part (30 A-F) are entirely directed inwardly, characterized in that the bending part (30 A-F) includes: a first part disposed on an inner side of the pair of staple legs (12 A) and having a first tip portion facing the staple legs (12 A) and located at the first position; a second part disposed on an outer side of the pair of staple legs (12 A) and having a second tip portion facing the staple legs (12 A) and located on a non-sheet bundle side spaced from the sheet bundle (P) further than the first position; and a moving part configured to move at least one of the first part and the second part toward the staple legs (12 A). a striking part (20 A) configured to cause a pair of staple legs (12 A) to penetrate a sheet bundle (P); a bending part (30 A-F) configured to bend the staple legs (12 A) at a first position such that tips of the staple legs (12 A) having penetrated the sheet bundle (P) by the striking part (20 A) are directed inwardly; and a clincher part (33 A) configured to bend the staple legs (12 A) at a second position located closer to the sheet bundle (P) than the first position such that the staple legs (12 A) of which the tips are bent inwardly at the first position by the bending part (30 A-F) are entirely directed inwardly, characterized in that the bending part (30 A-F) includes: a first part disposed on an inner side of the pair of staple legs (12 A) and having a first tip portion facing the staple legs (12 A) and located at the first position; a second part disposed on an outer side of the pair of staple legs (12 A) and having a second tip portion facing the staple legs (12 A) and located on a non-sheet bundle side spaced from the sheet bundle (P) further than the first position; and a moving part configured to move at least one of the first part and the second part toward the staple legs (12 A). a first part disposed on an inner side of the pair of staple legs (12 A) and having a first tip portion facing the staple legs (12 A) and located at the first position; a second part disposed on an outer side of the pair of staple legs (12 A) and having a second tip portion facing the staple legs (12 A) and located on a non-sheet bundle side spaced from the sheet bundle (P) further than the first position; and a moving part configured to move at least one of the first part and the second part toward the staple legs (12 A).
A method comprising: monitoring a VoIP receiving rate for a collaboration session exchanged by a client device and a server during the collaboration session; detecting a current bandwidth allocated to data at the client device participating in the collaboration session; and adjusting the current bandwidth allocated to data based on a comparison of the monitored VoIP receiving rate and a target bandwidth. monitoring a VoIP receiving rate for a collaboration session exchanged by a client device and a server during the collaboration session; detecting a current bandwidth allocated to data at the client device participating in the collaboration session; and adjusting the current bandwidth allocated to data based on a comparison of the monitored VoIP receiving rate and a target bandwidth.
A hopper system for powder material, comprising: a hopper , the hopper having an upper end , a lower end , a plurality of hopper sidewalls and a hopper axis , the hopper sidewalls extending downward from the upper end , at least one of the hopper sidewalls being sloped along a portion thereof, and the hopper axis extending vertically between at least some of the hopper sidewalls; a cover disposed at the upper end of the hopper , the cover including an opening configured for the powder material to flow through the opening and into the hopper , the opening defining a vertical material loading axis , the material loading axis being offset relative to the hopper axis ; characterised in that the hopper system comprises a diverter plate , the diverter plate comprising an inward edge extending across the opening of the cover to partially occlude the opening , so that the diverter plate is partially positioned along the material loading axis and configured to let pass a first portion of the flow of powder material and to divert a second portion of the flow of powder material as it enters the hopper through the opening . a hopper , the hopper having an upper end , a lower end , a plurality of hopper sidewalls and a hopper axis , the hopper sidewalls extending downward from the upper end , at least one of the hopper sidewalls being sloped along a portion thereof, and the hopper axis extending vertically between at least some of the hopper sidewalls; a cover disposed at the upper end of the hopper , the cover including an opening configured for the powder material to flow through the opening and into the hopper , the opening defining a vertical material loading axis , the material loading axis being offset relative to the hopper axis ; characterised in that the hopper system comprises a diverter plate , the diverter plate comprising an inward edge extending across the opening of the cover to partially occlude the opening , so that the diverter plate is partially positioned along the material loading axis and configured to let pass a first portion of the flow of powder material and to divert a second portion of the flow of powder material as it enters the hopper through the opening .
A plasma collecting system for optimizing amount of anticoagulant, comprising: a blood pump for driving blood to flow in the tube; an anticoagulant pump for driving an anticoagulant to flow in the tube; an HCT testing device for testing the blood HCT content, HCT being referred to hematocrits; a calculating device for calculating a mixing ratio of the anticoagulant to whole blood according to the blood HCT content; and a control device for calculating the rotational speed ratio of an anticoagulant pump to a blood pump according to the mixing ratio of the anticoagulant to whole blood and a flow ratio of the anticoagulant pump to the blood pump, characterized in that the mixing ratio of the anticoagulant to whole blood is calculated as follows according to the blood HCT content: V ci V B = A 1 − H CT A 1 − HCT + a , wherein, A=P plasma *C ci , min , a=P plasma *C Naci , V ci indicates the total amount of anticoagulant required, V B indicates the total amount of whole blood collected, P plasma indicates the average whole blood separation rate during plasma collection, C ci.min indicates the citrate concentration of the plasma, and C Naci indicates the concentration of 4% sodium citrate-based anticoagulant used by plasmapheresis stations. a blood pump for driving blood to flow in the tube; an anticoagulant pump for driving an anticoagulant to flow in the tube; an HCT testing device for testing the blood HCT content, HCT being referred to hematocrits; a calculating device for calculating a mixing ratio of the anticoagulant to whole blood according to the blood HCT content; and a control device for calculating the rotational speed ratio of an anticoagulant pump to a blood pump according to the mixing ratio of the anticoagulant to whole blood and a flow ratio of the anticoagulant pump to the blood pump, characterized in that the mixing ratio of the anticoagulant to whole blood is calculated as follows according to the blood HCT content: V ci V B = A 1 − H CT A 1 − HCT + a , wherein, A=P plasma *C ci , min , a=P plasma *C Naci , V ci indicates the total amount of anticoagulant required, V B indicates the total amount of whole blood collected, P plasma indicates the average whole blood separation rate during plasma collection, C ci.min indicates the citrate concentration of the plasma, and C Naci indicates the concentration of 4% sodium citrate-based anticoagulant used by plasmapheresis stations.
A method comprising: mixing a ceramic particulate material with a curable binder mixture comprising one or more monomers, one or more oligomers, or a combination thereof to form a slurry; applying the slurry on at least one surface of a porous polymeric separator film to form a slurry coated separator; subjecting the slurry coated separator to ultraviolet or electron beam radiation, thereby curing the curable binder mixture and forming a nonionic porous ultraviolet or electron beam cured coating comprising a crosslink reaction product of the one or more monomers, one or more oligomers, or a combination thereof and the ceramic particulate material, and wherein the crosslink reaction product does not melt, wherein the porous ultraviolet or electron beam cured coating adheres to the at least one surface of the porous polymeric separator film upon the curing and the ceramic particulate material is distributed throughout the porous ultraviolet or electron beam cured coating, and wherein the ceramic particulate material is present in the porous ultraviolet or electron beam cured coating in an amount of 80 to 95 percent of a total weight of the porous ultraviolet or electron beam cured coating. mixing a ceramic particulate material with a curable binder mixture comprising one or more monomers, one or more oligomers, or a combination thereof to form a slurry; applying the slurry on at least one surface of a porous polymeric separator film to form a slurry coated separator; subjecting the slurry coated separator to ultraviolet or electron beam radiation, thereby curing the curable binder mixture and forming a nonionic porous ultraviolet or electron beam cured coating comprising a crosslink reaction product of the one or more monomers, one or more oligomers, or a combination thereof and the ceramic particulate material, and wherein the crosslink reaction product does not melt, wherein the porous ultraviolet or electron beam cured coating adheres to the at least one surface of the porous polymeric separator film upon the curing and the ceramic particulate material is distributed throughout the porous ultraviolet or electron beam cured coating, and wherein the ceramic particulate material is present in the porous ultraviolet or electron beam cured coating in an amount of 80 to 95 percent of a total weight of the porous ultraviolet or electron beam cured coating.
Building closure , in particular a skylight, comprising a frame , a sash which is mounted rotatably with respect to the frame , and a sealing means for sealing a gap present between the frame and the sash when the building closure is shut, the sealing means being arranged continuously on a plurality of spars of the frame or of the sash , so as to lie tightly on a sealing face , opposite the spars , of the sash or of the frame when the building closure is shut, the distance between the frame and the sash in a first gap region of the gap present at a first one of the spars being different from the distance in a second gap region of the gap present at a second one of the spars , and the sealing means having the same extension in the direction of the sealing face , in particular the same cross section, in the first gap region and the second gap region , characterised in that , to compensate the different distances between the frame and the sash in the gap regions , the sealing means is arranged on the spars differently for the first gap region and the second gap region , so as to be arranged identically relative to the sealing face .
A method to prepare polymeric microspheres of designed sizes and 90%+ encapsulation efficiency, comprising a) Pressing a solution of microsphere-forming materials to pass through a porous membrane possessing designed pore size into a receiving medium that is immiscible with the solution but dissolves the solvent of microsphere-forming materials in some extent; b) Applying a shear stress or a vibration to detach the embryonic microspheres formed by passing through the porous membrane in step a) from the membrane surface; c) Making the embryonic microspheres detached in step b) to move along a path filled with receiving medium parallelly without breaking by stirring and fusing by collision during sedimentation or flowing for extracting the solvent of the microsphere-forming materials into the receiving phase; d) Collecting the microspheres hardened by solvent extraction in step c). a) Pressing a solution of microsphere-forming materials to pass through a porous membrane possessing designed pore size into a receiving medium that is immiscible with the solution but dissolves the solvent of microsphere-forming materials in some extent; b) Applying a shear stress or a vibration to detach the embryonic microspheres formed by passing through the porous membrane in step a) from the membrane surface; c) Making the embryonic microspheres detached in step b) to move along a path filled with receiving medium parallelly without breaking by stirring and fusing by collision during sedimentation or flowing for extracting the solvent of the microsphere-forming materials into the receiving phase; d) Collecting the microspheres hardened by solvent extraction in step c).
Light module for a motor vehicle lighting system, with an elongated first light guide comprising a light output surface extending lengthwise along the elongated first light guide , and with a second light guide comprising a first narrow side opposite the light output surface of the first light guide along its length and serving as a light intake surface, and a second narrow side serving as a light output surface, separated from the first narrow side by broad sides of the second light guide between the narrow sides , and with at least one transparent light pane extending from the second narrow side of the second light guide toward its first narrow side and along the length of the narrow sides of the second light guide , characterised in that the second light guide comprises a monotonously increasing cross section from its light intake surface to its light output surface .