mhurhangee/ep-ind-claims huggingface dataset:
A control apparatus for controlling tomographic imaging and eyeground imaging, the control apparatus comprising: tomographic-image obtaining means for obtaining, from a tomographic-image pickup unit based on combined light obtained by combining return light returned from a subject's eye irradiated with measurement light with reference light corresponding to the measurement light, a first tomographic B-scan image of an eyeground of the subject's eye during preview scanning by the tomographic-image pickup unit for adjusting tomographic imaging, and second tomographic B-scan images of the eyeground in response to an instruction for the tomographic imaging after a position of a capturing unit is adjusted by a user operation with a joystick; control means for adjusting a gate position, which refers to the adjustment of the difference between optical path length of the reference light and optical path length of the measurement light; and display control means for causing a display means to display the first tomographic B-scan image, a slider for indicating the gate position, and an indicator for indicating the ratio of the maximum brightness of the first tomographic B-scan image and the brightness of background noise, and then for causing the display means to display, in a tomographic image check screen, the second tomographic B-scan images obtained in response to the instruction, and a retake button for selecting re-obtainment of the second tomographic B-scan images of the subject's eye. tomographic-image obtaining means for obtaining, from a tomographic-image pickup unit based on combined light obtained by combining return light returned from a subject's eye irradiated with measurement light with reference light corresponding to the measurement light, a first tomographic B-scan image of an eyeground of the subject's eye during preview scanning by the tomographic-image pickup unit for adjusting tomographic imaging, and second tomographic B-scan images of the eyeground in response to an instruction for the tomographic imaging after a position of a capturing unit is adjusted by a user operation with a joystick; control means for adjusting a gate position, which refers to the adjustment of the difference between optical path length of the reference light and optical path length of the measurement light; and display control means for causing a display means to display the first tomographic B-scan image, a slider for indicating the gate position, and an indicator for indicating the ratio of the maximum brightness of the first tomographic B-scan image and the brightness of background noise, and then for causing the display means to display, in a tomographic image check screen, the second tomographic B-scan images obtained in response to the instruction, and a retake button for selecting re-obtainment of the second tomographic B-scan images of the subject's eye.
A method of protecting a thermostructural part made of ceramic matrix composite material against wear, the material being constituted by fiber reinforcement densified by a matrix of refractory material that fills in the pores of the fiber material, at least in part, the method being characterized in that a coating is made by the following steps: a) providing a mixture comprising colloidal silica, a powdered silico-aluminous and/or aluminous refractory ceramic material, and water; b) applying at least one layer of the mixture on the part; c) drying the layer; d) grinding the dried layer with an abrasive medium containing boron nitride, aluminum nitride or silicon nitride; and e) placing the part at a temperature greater than 1000°C, thereby firing the layer and forming an enamel coating; said coating having a thickness of about 200 μm. a) providing a mixture comprising colloidal silica, a powdered silico-aluminous and/or aluminous refractory ceramic material, and water; b) applying at least one layer of the mixture on the part; c) drying the layer; d) grinding the dried layer with an abrasive medium containing boron nitride, aluminum nitride or silicon nitride; and e) placing the part at a temperature greater than 1000°C, thereby firing the layer and forming an enamel coating;
A method for treating or applying nutrients to plants, the method comprising: determining a growth state or maturity state of a plant based on a planting date, a current date and the crop type of the plant; estimating a size, diameter or radius of a root zone of the plant based on the determined growth state or maturity state; and adjusting a lateral offset of a distribution pattern of a crop input or nutrient from at least one nutrient knife of nutrient knife assembly based on the size, diameter or radius of the root zone and safety zone (N330, N340) about the root zone, where the least one nutrient knife tracks a path outside of the root zone. determining a growth state or maturity state of a plant based on a planting date, a current date and the crop type of the plant; estimating a size, diameter or radius of a root zone of the plant based on the determined growth state or maturity state; and adjusting a lateral offset of a distribution pattern of a crop input or nutrient from at least one nutrient knife of nutrient knife assembly based on the size, diameter or radius of the root zone and safety zone (N330, N340) about the root zone, where the least one nutrient knife tracks a path outside of the root zone.
A method comprising: defining an interference reporting schedule for a user equipment in relation to a serving set of serving cells; scheduling null pilot intervals based on the interference reporting schedule; conducting limited transmission upon occurrence of a scheduled null pilot interval, the limited transmission comprising one of silencing transmission upon occurrence of the scheduled null pilot interval or reducing transmit power by a power backoff value upon occurrence of the scheduled null pilot interval; receiving an interference report from the user equipment subsequent to occurrence of a null pilot interval, the interference report comprising an indication of interference associated with one or more non-serving cells not within the serving set; and scheduling a coordinated communication by one or more serving cells of the serving set to the user equipment based at least in part on the received interference report. defining an interference reporting schedule for a user equipment in relation to a serving set of serving cells; scheduling null pilot intervals based on the interference reporting schedule; conducting limited transmission upon occurrence of a scheduled null pilot interval, the limited transmission comprising one of silencing transmission upon occurrence of the scheduled null pilot interval or reducing transmit power by a power backoff value upon occurrence of the scheduled null pilot interval; receiving an interference report from the user equipment subsequent to occurrence of a null pilot interval, the interference report comprising an indication of interference associated with one or more non-serving cells not within the serving set; and scheduling a coordinated communication by one or more serving cells of the serving set to the user equipment based at least in part on the received interference report.
A purified pollen extract containing pollen allergens wherein each flavonoid is contained in amount which is less than 0.001 g per 100 g of dried pollen derived fraction, as expressed in aglycone equivalent, wherein said purified pollen allergen extract is obtainable by a method comprising a step of ultrafiltration of an aqueous pollen allergen extract on a 1-10 kDa membrane with at least 5 volumes of an ammonium bicarbonate solution, and a step of sterile filtration on a 0.22 μm filter.
A process for forming a curved glass laminate article comprising: applying a separation material onto at least one of a surface of a first sheet of glass material or a surface of a second sheet of glass material; placing an outer region of the first sheet of glass material into contact with a support surface of a shaping frame, the shaping frame defining an open central cavity surrounded at least in part by the support surface; placing the second sheet of glass material onto the first sheet of glass material such that the separation material is located between an upper surface of the first sheet of glass material and a lower surface of the second sheet of glass material, wherein the first sheet of glass material and the second sheet of glass material are both supported by the shaping frame; and heating the first sheet of glass material, the separation material and the second sheet of glass material together while supported by the shaping frame such that central regions of the first and second sheets of glass material deform downward into the open central cavity of the shaping frame; wherein the first sheet of glass material has an average thickness, Tl, and the second sheet of glass material has an average thickness, T2, wherein Tl is at least 2.5 times T2; and wherein the separation material comprises a solid lubricating material that decreases friction between the first and second sheets of glass material, the solid lubricating material comprising a lamellar structure. applying a separation material onto at least one of a surface of a first sheet of glass material or a surface of a second sheet of glass material; placing an outer region of the first sheet of glass material into contact with a support surface of a shaping frame, the shaping frame defining an open central cavity surrounded at least in part by the support surface; placing the second sheet of glass material onto the first sheet of glass material such that the separation material is located between an upper surface of the first sheet of glass material and a lower surface of the second sheet of glass material, wherein the first sheet of glass material and the second sheet of glass material are both supported by the shaping frame; and heating the first sheet of glass material, the separation material and the second sheet of glass material together while supported by the shaping frame such that central regions of the first and second sheets of glass material deform downward into the open central cavity of the shaping frame; wherein the first sheet of glass material has an average thickness, Tl, and the second sheet of glass material has an average thickness, T2, wherein Tl is at least 2.5 times T2; and wherein the separation material comprises a solid lubricating material that decreases friction between the first and second sheets of glass material, the solid lubricating material comprising a lamellar structure.
A turbofan engine comprising: a turbofan propulsor for producing downstream flowing bypass gas and core gas; a cross-flow low pressure spool comprising: a low pressure compressor for receiving downstream flowing core gas from the turbofan propulsor; and a low pressure turbine having upstream flow; a gear reduction system for coupling the turbofan propulsor to an input rotation; a reverse duct for turning downstream flowing core gas from the low pressure compressor radially inward for upstream flow; a reversed-flow core with upstream flow configured to receive upstream flowing core gas from the reverse duct and to deliver upstream flowing core gas to the low pressure turbine; an exhaust duct that receives downstream flowing bypass gas from the turbofan propulsor; an exhaust pipe for turning upstream flow of core gas from the low pressure turbine radially outward for discharge into the downstream flow of bypass gas within the exhaust duct; wherein the reversed-flow core includes an axial flow high pressure turbine and an axial flow high pressure compressor characterised in that an intercooling and recuperating heat exchanger is mounted to exchange heat between the reverse duct and the exhaust duct; and the intercooling and recuperating heat exchanger is mounted adjacent the reverse ducting between the low pressure compressor and the high pressure compressor. a turbofan propulsor for producing downstream flowing bypass gas and core gas; a cross-flow low pressure spool comprising: a low pressure compressor for receiving downstream flowing core gas from the turbofan propulsor; and a low pressure turbine having upstream flow; a low pressure compressor for receiving downstream flowing core gas from the turbofan propulsor; and a low pressure turbine having upstream flow; a gear reduction system for coupling the turbofan propulsor to an input rotation; a reverse duct for turning downstream flowing core gas from the low pressure compressor radially inward for upstream flow; a reversed-flow core with upstream flow configured to receive upstream flowing core gas from the reverse duct and to deliver upstream flowing core gas to the low pressure turbine; an exhaust duct that receives downstream flowing bypass gas from the turbofan propulsor; an exhaust pipe for turning upstream flow of core gas from the low pressure turbine radially outward for discharge into the downstream flow of bypass gas within the exhaust duct; wherein the reversed-flow core includes an axial flow high pressure turbine and an axial flow high pressure compressor characterised in that an intercooling and recuperating heat exchanger is mounted to exchange heat between the reverse duct and the exhaust duct; and the intercooling and recuperating heat exchanger is mounted adjacent the reverse ducting between the low pressure compressor and the high pressure compressor.
Method for producing a rubber mixture, comprising the following steps of: a) providing or producing rubber mixture constituents, b) providing a mixing device for mixing rubber mixtures, wherein the mixing device comprises i. a first mixing chamber of the more than one mixing chambers of the mixing device, wherein the first mixing chamber is delimited by a first chamber housing, a first introduction opening and a first discharge opening, ii. one, two or more than two rotors for mixing a rubber mixture within the first mixing chamber and within one of the further mixing chambers, and iii. a fluid medium for controlling the temperature of the first mixing chamber, c) controlling the temperature of the fluid medium in a preparation phase to a preparation temperature in the range from 30°C to 160°C, d) adding at least a fraction of the rubber mixture constituents provided or produced in step a) into the mixing chamber of the mixing device, e) controlling the temperature of the fluid medium temperature-controlled in step c) in a mixing phase to a mixing temperature in the range from 40°C to 160°C, and f) controlling the temperature of the fluid medium temperature-controlled in step e) in a cooling phase to a cooling temperature in the range from 4°C to 60°C, wherein a programmable control component individually controls or regulates the temperature of the fluid medium for each of the individual mixing steps of c) to f). a) providing or producing rubber mixture constituents, b) providing a mixing device for mixing rubber mixtures, wherein the mixing device comprises i. a first mixing chamber of the more than one mixing chambers of the mixing device, wherein the first mixing chamber is delimited by a first chamber housing, a first introduction opening and a first discharge opening, ii. one, two or more than two rotors for mixing a rubber mixture within the first mixing chamber and within one of the further mixing chambers, and iii. a fluid medium for controlling the temperature of the first mixing chamber, i. a first mixing chamber of the more than one mixing chambers of the mixing device, wherein the first mixing chamber is delimited by a first chamber housing, a first introduction opening and a first discharge opening, ii. one, two or more than two rotors for mixing a rubber mixture within the first mixing chamber and within one of the further mixing chambers, and iii. a fluid medium for controlling the temperature of the first mixing chamber, c) controlling the temperature of the fluid medium in a preparation phase to a preparation temperature in the range from 30°C to 160°C, d) adding at least a fraction of the rubber mixture constituents provided or produced in step a) into the mixing chamber of the mixing device, e) controlling the temperature of the fluid medium temperature-controlled in step c) in a mixing phase to a mixing temperature in the range from 40°C to 160°C, and f) controlling the temperature of the fluid medium temperature-controlled in step e) in a cooling phase to a cooling temperature in the range from 4°C to 60°C,
Modular system for arranging an optical fibre of an optical system in a controlled and secure manner, comprising at least the following components: - a modular frame comprising a plurality of upright posts, wherein the posts are arranged such on the frame that a next-neighbour distance of the posts is identical, wherein each post comprises a recess on the upper end, - at least one module for receiving an optical fibre, wherein the module comprises at least four corners, wherein the posts are arranged such that up to four modules can be arranged with their corners non-overlapping on a single post, wherein each module's corner can be fixed with a fixing means of the modular system on the post, wherein the fixing means is designed to engage in the recess on the upper end of the post and wherein the corners of each module and the fixing means are designed such that the fixing means can simultaneously fix up to four non-overlappingly arranged modules on a single post of the frame, characterized in that the fixing means is a screw and wherein each corner of the module comprises a quarter or a third circle segment cutout, wherein the cutout is arranged around the recess of the post, when the module is arranged on the frame. - a modular frame comprising a plurality of upright posts, wherein the posts are arranged such on the frame that a next-neighbour distance of the posts is identical, wherein each post comprises a recess on the upper end, - at least one module for receiving an optical fibre, wherein the module comprises at least four corners, wherein the posts are arranged such that up to four modules can be arranged with their corners non-overlapping on a single post, wherein each module's corner can be fixed with a fixing means of the modular system on the post, wherein the fixing means is designed to engage in the recess on the upper end of the post and wherein the corners of each module and the fixing means are designed such that the fixing means can simultaneously fix up to four non-overlappingly arranged modules on a single post of the frame, characterized in that the fixing means is a screw and wherein each corner of the module comprises a quarter or a third circle segment cutout, wherein the cutout is arranged around the recess of the post, when the module is arranged on the frame.
A fiber-reinforced component for use in a gas turbine engine, the fiber-reinforced component comprising: a first braided fiber sleeve forming a cooling channel (90a-90c); a plurality of fiber plies enclosing the first braided fiber sleeve, the plurality of fiber plies forming first and second walls (108, 106) separated by the first braided fiber sleeve; a matrix material between fibers of the braided fiber sleeve and the plurality of fiber plies; and characterised by an aperture (92a-92c) extending through the first wall into the cooling channel (90a-90c) to provide cooling fluid to the cooling channel (90a-90c). a first braided fiber sleeve forming a cooling channel (90a-90c); a plurality of fiber plies enclosing the first braided fiber sleeve, the plurality of fiber plies forming first and second walls (108, 106) separated by the first braided fiber sleeve; a matrix material between fibers of the braided fiber sleeve and the plurality of fiber plies; and characterised by an aperture (92a-92c) extending through the first wall into the cooling channel (90a-90c) to provide cooling fluid to the cooling channel (90a-90c).
A sleeve holder assembly for a radiation source, the sleeve holder assembly comprising: an elongate radiation transparent sleeve element; a sleeve holder receptacle portion coupled to the elongate radiation transparent sleeve element; a sleeve bolt assembly portion coupled to the sleeve holder receptacle portion; a first sealing element disposed between the sleeve holder receptacle portion and the sleeve bolt assembly portion, the first sealing element configured to provide a substantially fluid impermeable seal between the elongate radiation transparent sleeve element and the sleeve holder receptacle portion; and a locking element configured to prevent decoupling of the sleeve bolt assembly portion and the sleeve holder receptacle portion wherein the locking element comprises a first locking portion disposed on the sleeve holder receptacle portion and a second locking portion disposed on the sleeve bolt assembly, characterized in that the sleeve holder receptacle portion comprises a first threaded portion and the sleeve bolt assembly comprises a second threaded portion configured to engage the first threaded portion; in that the first locking portion comprises a ratchet portion, wherein the ratchet portion comprises a plurality of tooth elements, each tooth element configured to engage the second locking portion disposed on the sleeve bolt assembly or the ratchet portion comprises an annularly disposed plurality of tooth elements, each tooth element configured to engage the second locking portion disposed on the sleeve bolt assembly, wherein the plurality of tooth elements is configured to provide unidirectional engagement of the sleeve bolt assembly portion and the sleeve holder receptacle portion; and the second locking portion comprises at least one locking ratchet tab. an elongate radiation transparent sleeve element; a sleeve holder receptacle portion coupled to the elongate radiation transparent sleeve element; a sleeve bolt assembly portion coupled to the sleeve holder receptacle portion; a first sealing element disposed between the sleeve holder receptacle portion and the sleeve bolt assembly portion, the first sealing element configured to provide a substantially fluid impermeable seal between the elongate radiation transparent sleeve element and the sleeve holder receptacle portion; and a locking element configured to prevent decoupling of the sleeve bolt assembly portion and the sleeve holder receptacle portion wherein the locking element comprises a first locking portion disposed on the sleeve holder receptacle portion and a second locking portion disposed on the sleeve bolt assembly,