mhurhangee/ep-ind-claims huggingface dataset:
An automatic flushing device including an unpowered automatic water flushing toilet bowl seat, a body sensing unit installed in the unpowered automatic water flushing toilet bowl seat, and an adjustment unit installed in the unpowered automatic water flushing toilet bowl seat and having a function of controlling air discharge and intake only by a user's body weight, wherein the automatic flushing device senses a user through seat springs of the body sensing unit compressed by the weight of the user when the user sits on the toilet seat and automatically removes excreta using water from a hydrant and a water tank while the toilet seat is restored by restoring force of the seat springs when the user stands up from the toilet seat, the adjustment unit comprising: an adjusting body fixed to the toilet seat and having an air exhaust hole a cover member opening and closing the air exhaust hole; an anti-separation member preventing separation of the cover member; a vertical guide member fixed to the body sensing unit, the vertical guide member to discharge air in the adjusting body and suck air outside the adjusting body by moving up and down in the adjusting body; characterized by, the air exhaust hole being provided for sucking and discharging air in response to upward and downward movement of the toilet seat, an air adjusting filter coupled to a hole formed through the vertical guide member to adjust the amount of air flowing inside through the hole; and a bolt inserted in the hole to prevent separation of the air adjusting filter and adjust the movement amount of the air in accordance with the degree of compression of the air adjusting filter, wherein flushing time is adjusted by adjusting the amount of air that is sucked inside. an adjusting body fixed to the toilet seat and having an air exhaust hole a cover member opening and closing the air exhaust hole; an anti-separation member preventing separation of the cover member; a vertical guide member fixed to the body sensing unit, the vertical guide member to discharge air in the adjusting body and suck air outside the adjusting body by moving up and down in the adjusting body; characterized by, the air exhaust hole being provided for sucking and discharging air in response to upward and downward movement of the toilet seat, an air adjusting filter coupled to a hole formed through the vertical guide member to adjust the amount of air flowing inside through the hole; and a bolt inserted in the hole to prevent separation of the air adjusting filter and adjust the movement amount of the air in accordance with the degree of compression of the air adjusting filter, wherein flushing time is adjusted by adjusting the amount of air that is sucked inside.
System for lifting intended for the vertical displacement of persons or goods, said system being characterised in that it comprises two parallel supports, extending vertically and on which of each are rotatably mounted along a horizontal rotation axis sliding fingers that can be oriented, and an endless screw that is able, on the one hand, to engage with said sliding fingers and, on the other hand, to be mounted on a cabin for transporting passengers in order to drive said cabin in vertical translation by the intermediary of the sliding fingers.
A method for increasing the extractable rubber content of non -Hevea plant matter without unduly increasing the extractable resin content comprising: utilizing a quantity of chopped non -Hevea plant matter having an average length of 1.27 cm (1⁄2") to 10.16 cm (4") and a maximum moisture content of about 15 weight % and subjecting the chopped non -Hevea plant matter to at least one of hammer milling utilizing a screen size of less than 1.27 cm (1⁄2"); and roller milling with corrugated rolls having no more than 12 corrugations per 2.54 cm (inch), thereby producing a quantity of milled non -Hevea plant matter having a maximum moisture content of about 15 weight %, an extractable rubber content at least 30% higher than the pre-milled chopped non -Hevea plant matter. utilizing a quantity of chopped non -Hevea plant matter having an average length of 1.27 cm (1⁄2") to 10.16 cm (4") and a maximum moisture content of about 15 weight % and subjecting the chopped non -Hevea plant matter to at least one of hammer milling utilizing a screen size of less than 1.27 cm (1⁄2"); and roller milling with corrugated rolls having no more than 12 corrugations per 2.54 cm (inch), hammer milling utilizing a screen size of less than 1.27 cm (1⁄2"); and roller milling with corrugated rolls having no more than 12 corrugations per 2.54 cm (inch), thereby producing a quantity of milled non -Hevea plant matter having a maximum moisture content of about 15 weight %, an extractable rubber content at least 30% higher than the pre-milled chopped non -Hevea plant matter.
A single-use adapter (104, 109) for coupling a single-use container to a reusable sensor transducer, the single-use adapter comprising: an attachment region; a deflectable diaphragm sealingly coupled to the attachment region and configured to contact a media sample; a radio-frequency identification (RFID) tag coupled to the single-use adapter (104, 109) and configured to store and transmit data; and wherein the RFID tag comprises an open antenna circuit, with exposed contacts, configured to be closed upon physically coupling the adapter (104, 109) to the sensor transducer, wherein, upon closing the antenna circuit, the antenna circuit is configured to receive radio frequency energy from an RFID reader. an attachment region; a deflectable diaphragm sealingly coupled to the attachment region and configured to contact a media sample; a radio-frequency identification (RFID) tag coupled to the single-use adapter (104, 109) and configured to store and transmit data; and wherein the RFID tag comprises an open antenna circuit, with exposed contacts, configured to be closed upon physically coupling the adapter (104, 109) to the sensor transducer, wherein, upon closing the antenna circuit, the antenna circuit is configured to receive radio frequency energy from an RFID reader.
A phenolic molecular glass having at least one fluoroalcohol containing group, the phenolic molecular glass being a calix resorcinarene of structural formula: wherein R' comprises the at least one fluoroalcohol containing group, R is independently selected from the group consisting of hydrogen and an acid labile functional group, and X and Y are each independently selected from the group consisting of hydrogen, alkyl, alkenyl, alkynyl, alkoxy, aryl, aralkyl, alkaryl, halo, cyano, nitro and carboxylate.
A method for operating a wind turbine that has a rotor with at least one rotor blade passing over a rotor area, having the following steps: • directing a lighting beam toward the rotor area, • detecting the light intensities of returned shares of the lighting beam, wherein a first light intensity (I 1) comprises light reflected back by the at least one rotor blade, and a second light intensity (I 2) comprises none of the light reflected back by the at least one rotor blade, but rather is caused by the backscatter from the lighting beam in the air, • determining an icing hazard based on the detected light intensities. • directing a lighting beam toward the rotor area, • detecting the light intensities of returned shares of the lighting beam, wherein a first light intensity (I 1) comprises light reflected back by the at least one rotor blade, and a second light intensity (I 2) comprises none of the light reflected back by the at least one rotor blade, but rather is caused by the backscatter from the lighting beam in the air, • determining an icing hazard based on the detected light intensities.
A cold rolled steel sheet comprising a chemical composition containing, in mass%, C: 0.0003 to 0.010%, Si: 0.01 to 1.0%, Mn: 0.10 to 3.0%, P: 0.005 to 0.15%, S: 0.020% or less, Al: 0.01 to 1.00%, and N: 0.005% or less, further containing any one or more of Nb: 0.005 to 0.10%, Ti: 0.01 to 0.10%, B: 0.0001 to 0.0030%, and optionally any one or more of Cr, Cu, Ni, Sn, As, Sb, Ca, Mg, Pb, Co, Ta, W, REMs, Zn, Sr, Cs, Hf, and V at 1% or less in total, and a balance being iron and incidental impurities, and having a steel microstructure in which an average aspect ratio of ferrite crystal grains is 2.0 or less, determined by the measurement method described in the description, wherein an r ave value that is an average value of values obtained by measuring an r-value represented by Formula below in three places apart with spacings of 200 mm in a sheet width direction is 1.20 or more, and |Δr ave | that is an average value of values obtained by measuring, in three places apart with spacings of 200 mm in the sheet width direction, |Δr| that is an absolute value of Δr represented by Formula below is 0.40 or less and a difference between a largest value and a smallest value of |Δr| among the three places is 0.15 or less, r − value = r 0 + 2 r 45 + r 90 / 4 Δ r = r 0 − 2 r 45 + r 90 / 2 in Formula and Formula above, r 0, r 45, and r 90 being Lankford values in directions of 0°, 45°, and 90°, respectively, based on a rolling direction of the steel sheet, measure by a tensile test with a predistortion of 15% by using No. 5 test pieces described in JIS Z 2201. C: 0.0003 to 0.010%, Si: 0.01 to 1.0%, Mn: 0.10 to 3.0%, P: 0.005 to 0.15%, S: 0.020% or less, Al: 0.01 to 1.00%, and N: 0.005% or less, further containing any one or more of Nb: 0.005 to 0.10%, Ti: 0.01 to 0.10%, B: 0.0001 to 0.0030%, and optionally any one or more of Cr, Cu, Ni, Sn, As, Sb, Ca, Mg, Pb, Co, Ta, W, REMs, Zn, Sr, Cs, Hf, and V at 1% or less in total, and a balance being iron and incidental impurities, and having a steel microstructure in which an average aspect ratio of ferrite crystal grains is 2.0 or less, determined by the measurement method described in the description, wherein an r ave value that is an average value of values obtained by measuring an r-value represented by Formula below in three places apart with spacings of 200 mm in a sheet width direction is 1.20 or more, and |Δr ave | that is an average value of values obtained by measuring, in three places apart with spacings of 200 mm in the sheet width direction, |Δr| that is an absolute value of Δr represented by Formula below is 0.40 or less and a difference between a largest value and a smallest value of |Δr| among the three places is 0.15 or less, r − value = r 0 + 2 r 45 + r 90 / 4 Δ r = r 0 − 2 r 45 + r 90 / 2 in Formula and Formula above, r 0, r 45, and r 90 being Lankford values in directions of 0°, 45°, and 90°, respectively, based on a rolling direction of the steel sheet, measure by a tensile test with a predistortion of 15% by using No. 5 test pieces described in JIS Z 2201.
A resistance spot welding method for joining together a plurality of overlapping steel sheets (1, 2) of a sheet combination, the method comprising squeezing the sheet combination between a pair of electrodes (3, 4) and passing a current through the sheet combination while applying an electrode force thereto, wherein at least one of the plurality of steel sheets (1, 2) is a surface-treated steel sheet including a metal coating layer and being characterised in that: the method satisfies the following relationships, 2 ⋅ D ⋅ t ⋅ T / F ⋅ d 1 / 2 ≤ H when 0.5 ≤ D < 2 6 ⋅ D − 8 ⋅ t ⋅ T / F ⋅ d 1 / 2 ≤ H when 2 ≤ D < 5 D + 17 ⋅ t ⋅ T / F ⋅ d 1 / 2 ≤ H when 5 ≤ D < 10 where H (ms) is an electrode force retaining time after completion of current passage, D (mm) is an amount of axis misalignment between the electrodes (3, 4), t (mm) is a total sum of sheet thicknesses of the plurality of overlapping steel sheets (1, 2), T (MPa) is a tensile strength of a steel sheet having a highest tensile strength among the plurality of steel sheets (1, 2), F is an electrode force, and d (mm) is a tip diameter of one electrode of the pair of electrodes (3, 4), the one electrode having a smaller tip diameter than another electrode of the pair of electrodes (3, 4). the method satisfies the following relationships, 2 ⋅ D ⋅ t ⋅ T / F ⋅ d 1 / 2 ≤ H when 0.5 ≤ D < 2 6 ⋅ D − 8 ⋅ t ⋅ T / F ⋅ d 1 / 2 ≤ H when 2 ≤ D < 5 D + 17 ⋅ t ⋅ T / F ⋅ d 1 / 2 ≤ H when 5 ≤ D < 10 where H (ms) is an electrode force retaining time after completion of current passage, D (mm) is an amount of axis misalignment between the electrodes (3, 4), t (mm) is a total sum of sheet thicknesses of the plurality of overlapping steel sheets (1, 2), T (MPa) is a tensile strength of a steel sheet having a highest tensile strength among the plurality of steel sheets (1, 2), F is an electrode force, and d (mm) is a tip diameter of one electrode of the pair of electrodes (3, 4), the one electrode having a smaller tip diameter than another electrode of the pair of electrodes (3, 4).
Camera system (1, 1') comprising: - a housing; and - an optoelectronic sensor unit, arranged in the housing, having at least one detector device and at least one optical unit connected upstream of the at least one detector device, wherein the optoelectronic sensor unit is elastically mounted in relation to the housing, characterised in that at least one elastic mounting device (6.1-6.7) is formed from multiple ring segments (6.10-6.70) arranged spaced apart from one another. - a housing; and - an optoelectronic sensor unit, arranged in the housing, having at least one detector device and at least one optical unit connected upstream of the at least one detector device, wherein the optoelectronic sensor unit is elastically mounted in relation to the housing,
Method for assisting the management of at least one command list managed by at least one pilot of an aircraft, comprising - an identification step, implemented by an identification unit, consisting in identifying at least one actuation element to be actuated in order to implement a current command from a command list; characterized in that the method furthermore comprises - a signalling step, implemented by a signalling unit, consisting in visually highlighting the identified actuation element through a visual signal close to, on or around said actuation element; - a detection step (E4A), implemented by a detection unit, consisting in detecting a position of at least one hand of a pilot; - a checking step (E4B), implemented by a checking unit, consisting in checking whether the detected position of the hand of the pilot matches the position of the identified and highlighted actuation element for the purpose of actuating it; and - a first warning step, implemented by a warning unit, consisting in warning the pilot of a risk of incorrect actuation in the event of a lack of a match between the detected position of the hand of the pilot and the position of the actuation element. - an identification step, implemented by an identification unit, consisting in identifying at least one actuation element to be actuated in order to implement a current command from a command list; characterized in that the method furthermore comprises - a signalling step, implemented by a signalling unit, consisting in visually highlighting the identified actuation element through a visual signal close to, on or around said actuation element; - a detection step (E4A), implemented by a detection unit, consisting in detecting a position of at least one hand of a pilot; - a checking step (E4B), implemented by a checking unit, consisting in checking whether the detected position of the hand of the pilot matches the position of the identified and highlighted actuation element for the purpose of actuating it; and - a first warning step, implemented by a warning unit, consisting in warning the pilot of a risk of incorrect actuation in the event of a lack of a match between the detected position of the hand of the pilot and the position of the actuation element.
A thermal flow meter that measures a flow rate of a measurement target gas passing in a passage by transferring heat to the measurement target gas through a heat transfer surface in the passage, the thermal flow meter comprising: a semiconductor member in which a thin area constituting the heat transfer surface is provided; a heat generator that is provided in the thin area to heat the measurement target gas; the thermal flow meter characterized by temperature difference detecting means for detecting at least one of a temperature difference in a flow direction of the measurement target gas in the thin area and in an upstream area of an area on an upstream side of the heat generator, and a temperature difference in the flow direction of the measurement target gas in the thin area and in a downstream area of an area on a downstream side of the heat generator; heat capacity calculating means for calculating heat capacity in the thin area based on a temperature difference detected by the temperature difference detecting means; and thermal conductivity change amount estimating means for estimating a thermal conductivity change amount in the thin area based on the heat capacity calculated by the heat capacity calculating means. a semiconductor member in which a thin area constituting the heat transfer surface is provided; a heat generator that is provided in the thin area to heat the measurement target gas; the thermal flow meter characterized by temperature difference detecting means for detecting at least one of a temperature difference in a flow direction of the measurement target gas in the thin area and in an upstream area of an area on an upstream side of the heat generator, and a temperature difference in the flow direction of the measurement target gas in the thin area and in a downstream area of an area on a downstream side of the heat generator; heat capacity calculating means for calculating heat capacity in the thin area based on a temperature difference detected by the temperature difference detecting means; and thermal conductivity change amount estimating means for estimating a thermal conductivity change amount in the thin area based on the heat capacity calculated by the heat capacity calculating means.
Continuous method for the simultaneous production of lactic acid and of a second fermentation product from cereals, which comprises the following steps consisting of: • dry milling the grains and/or the ears of corn in a mill; • recovering the milled product and mixing it with a stream of water in a mixer so as to create a slurry; • subjecting the slurry to a saccharification in a reactor and producing a stream of crude dextrose; • separating, in a separator (106 and 107), the stream of crude dextrose into two flows, the first consisting of a liquid flow and the second comprising the solid part; • removing the oil resulting from the milling and present in the liquid flow for subsequent treatment and recovering a purified dextrose flow; Characterized in that it entails: • subjecting the purified dextrose flow to a selective separation of the sugars and recovering a purified flow before subjecting it to a fermentation; and on the other hand recovering a flow rich in oligosaccharides; • subjecting the purified flow to a fermentation in the presence of a microorganism appropriate for producing lactic acid; • recovering the solid dextrose flow via a pipe containing the products which are difficult to ferment, as well as a flow rich in oligosaccharides via a pipe, in order to hydrolyze them in a reactor under hydrolysis conditions and transform them into a fermentable dextrose flow; • subjecting the fermentable dextrose flow to a fermentation in a fermenter in order to produce a second fermentation product. • dry milling the grains and/or the ears of corn in a mill; • recovering the milled product and mixing it with a stream of water in a mixer so as to create a slurry; • subjecting the slurry to a saccharification in a reactor and producing a stream of crude dextrose; • separating, in a separator (106 and 107), the stream of crude dextrose into two flows, the first consisting of a liquid flow and the second comprising the solid part; • removing the oil resulting from the milling and present in the liquid flow for subsequent treatment and recovering a purified dextrose flow; • subjecting the purified dextrose flow to a selective separation of the sugars and recovering a purified flow before subjecting it to a fermentation; and on the other hand recovering a flow rich in oligosaccharides; • subjecting the purified flow to a fermentation in the presence of a microorganism appropriate for producing lactic acid; • recovering the solid dextrose flow via a pipe containing the products which are difficult to ferment, as well as a flow rich in oligosaccharides via a pipe, in order to hydrolyze them in a reactor under hydrolysis conditions and transform them into a fermentable dextrose flow; • subjecting the fermentable dextrose flow to a fermentation in a fermenter in order to produce a second fermentation product.
Container comprising a plurality of walls (1, 2) that define a compartment; said plurality of walls (1, 2) comprising at least two adjacent walls, namely a first wall and a second wall; said container comprising connection means disposed between the two walls (1, 2) and suitably configured to connect the two walls (1, 2); wherein said connection means comprise: - a slot obtained on the second wall; - a tab obtained on the first wall and inserted in said slot; said tab comprising a first portion disposed in the slot and a second ending portion that protrudes from the slot; and - a clip fastened to the second ending portion of the tab in such a way that the clip prevents the tab from coming out of the slot, wherein said clip is fastened to the second ending portion of the tab; characterized in that: - said second ending portion comprises a tooth; - said clip is a forked-shaped clip and is fastened in intermediate position between the tooth and the second wall; said tooth and said second wall of the container being engaged against two opposite faces (3a, 3b) of the fork-shaped clip. - a slot obtained on the second wall; - a tab obtained on the first wall and inserted in said slot; said tab comprising a first portion disposed in the slot and a second ending portion that protrudes from the slot; and - a clip fastened to the second ending portion of the tab in such a way that the clip prevents the tab from coming out of the slot, wherein said clip is fastened to the second ending portion of the tab; - said second ending portion comprises a tooth; - said clip is a forked-shaped clip and is fastened in intermediate position between the tooth and the second wall; said tooth and said second wall of the container being engaged against two opposite faces (3a, 3b) of the fork-shaped clip.