mhurhangee/ep-ind-claims huggingface dataset:
A method of defibring lignocellulose-bearing raw material using a polysulphide-bearing cooking liquor in a pulp cooker, wherein - the cooking liquor is mixed before the cooking into the raw material which is to be defibred, - the cooking liquor is allowed to absorb into the raw material at a temperature which is at maximum approximately 130 °C, - after that, the cooking liquor used in the absorption is separated from the raw material treated, - the separated cooking liquor is heated to a temperature of approximately 140-170 °C, after which - the generated hot cooking liquor is, as such, fed back to the treated raw material, the alkaline cooking liquor used in the cooking stage thus being the one which originally was dosed into the absorption process and the temperature of which has been increased, and - the raw material is defibred with a hot cooking liquor in order to produce pulp which has a desired kappa number, wherein the cooking liquor used for absorption is conducted in entirety from absorption to the cooking stage, without removing any of it between the absorption stage and the cooking, and the cooking liquor is absorbed into the raw material at a temperature which is approximately 80 - 125 °C. - the cooking liquor is mixed before the cooking into the raw material which is to be defibred, - the cooking liquor is allowed to absorb into the raw material at a temperature which is at maximum approximately 130 °C, - after that, the cooking liquor used in the absorption is separated from the raw material treated, - the separated cooking liquor is heated to a temperature of approximately 140-170 °C, after which - the generated hot cooking liquor is, as such, fed back to the treated raw material, the alkaline cooking liquor used in the cooking stage thus being the one which originally was dosed into the absorption process and the temperature of which has been increased, and - the raw material is defibred with a hot cooking liquor in order to produce pulp which has a desired kappa number, wherein the cooking liquor used for absorption is conducted in entirety from absorption to the cooking stage, without removing any of it between the absorption stage and the cooking, and the cooking liquor is absorbed into the raw material at a temperature which is approximately 80 - 125 °C.
A nozzle tip for atomizing a liquid feed passing into a zone that includes circulating fluidized particulates comprising: (a) a first elongated slot; and (b) a second elongated slot that intersects with the first elongated slot at an angle ranging from 45 Degrees to 135 Degrees between the major axes of the first elongated slot and the second elongated slot and at a segment such that the major axis of the first elongated slot is bisected into equal lengths and a single orifice is defined by the first elongated slot and the second elongated slot, and wherein the length of the minor axis of the first slot ranges from 5 % to 50 % of the length of the major axis of the first slot and wherein the length of the minor axis of the second slot ranges from 1 % to 10% of the length of the major axis of the second slot. (a) a first elongated slot; and (b) a second elongated slot that intersects with the first elongated slot at an angle ranging from 45 Degrees to 135 Degrees between the major axes of the first elongated slot and the second elongated slot and at a segment such that the major axis of the first elongated slot is bisected into equal lengths and a single orifice is defined by the first elongated slot and the second elongated slot, and wherein the length of the minor axis of the first slot ranges from 5 % to 50 % of the length of the major axis of the first slot and wherein the length of the minor axis of the second slot ranges from 1 % to 10% of the length of the major axis of the second slot.
Device for locking a unit in a holder, having a first locking element, which has a first latching element and is contained by the unit, and having a second locking element, which has a second latching element and is comprised by the holder, wherein - at least one of the locking elements (3, 5) is mounted in a movable manner and may be subjected to a force for the purpose of locking the two latching elements (4, 5), - the locking device comprises a first stop, for limiting maximum deflection of the movable locking element in the direction of the force, characterized in that the locking device comprises a second stop for limiting overlapping of the two latching elements (3, 5) in the locked state, and in that the two stops (18, 19) are arranged such that, when the two locking elements (3, 5) are being locked, the movable locking element strikes against the second stop before it strikes against the first stop. - at least one of the locking elements (3, 5) is mounted in a movable manner and may be subjected to a force for the purpose of locking the two latching elements (4, 5), - the locking device comprises a first stop, for limiting maximum deflection of the movable locking element in the direction of the force,
A wave absorbing block for breaking waves, the wave absorbing block comprising: A pair of left and right legs having a concavely curved arch portion at a front center thereof, and projecting sideways to have inclined side portions respectively on left and right sides thereof; and a column part unified with the pair of left and right legs and protruding vertically upward from a center portion of an upper surface of the arch portion, characterized in that a recess that is passing through the front and rear surface and inclined leftward and rightward is formed at the center portion of the bottom of the pair of left and right legs, wherein the width of the recess is formed to be wider than the sectional width of column part, so that when the wave absorbing blocks are placed in two layers, with each wave absorbing block in a first layer being supported on the end of the left and right legs and a forward edge of the column part, the first-layer wave absorbing block can properly interlock with the second-layer wave absorbing block, and waves can flow over the inclined surface of the rear side of the wave absorbing block to fall into a gap provided in front of the arch portion to dissipate wave energy using gravity.
A glove base made of fiber and having a hand shape, wherein water-absorbing properties of a first fiber exposed mainly to inside of the glove base are higher than water-absorbing properties of a second fiber exposed mainly to outside of the glove base, the first fiber absorbs and moves moisture on a surface of a hand on the inside to the second fiber, and the second fiber moves the moisture moved from the first fiber mainly in a surface direction, characterized in that moisture mobility of the first fiber is higher in the substantially perpendicular direction than in the surface direction, moisture mobility of the second fiber is higher in the surface direction than in the substantially perpendicular direction, and by using twisted union yarn formed of the first fiber and the second fiber, the first fiber is exposed to the inside and the second fiber is exposed to the outside.
An expression vector comprising a reporter gene operably linked to the 3' end of any one of DNAs of the following (a) to (g) wherein said DNA consists of: (a) the nucleotide sequence consisting of the nucleotide numbers 1 to 9690, the nucleotide numbers 19134 to 19946, and the nucleotide numbers 23030 to 24448 in SEQ ID NO: 1, (b) the nucleotide sequence consisting of the nucleotide numbers 1 to 19946 and the nucleotide numbers 23030 to 24448 in SEQ ID NO: 1, (c) the nucleotide sequence consisting of the nucleotide numbers 1 to 5658 and the nucleotide numbers 23030 to 24448 in SEQ ID NO: 1, (d) the nucleotide sequence consisting of the nucleotide numbers 1 to 2866 and the 23030 to 24448 in SEQ ID NO: 1, (e) the nucleotide sequence consisting of the nucleotide numbers 1 to 2866 and the nucleotide numbers 22167 to 24448 in SEQ ID NO: 1, (f) the nucleotide sequence consisting of the nucleotide numbers 1242 to 2866 and the nucleotide numbers 23697 to 24448 in SEQ ID NO: 1, or (g) a nucleotide sequence consisting of the nucleotide numbers 1 to 5658 and the nucleotide numbers 23030 to 24448 in SEQ ID NO: 1 including deletion of any of the nucleotide numbers 1535 to 1541, the nucleotide numbers 1930 to 1936, the nucleotide numbers 2018 to 2024, the nucleotide numbers 2093 to 2099, and the nucleotide numbers 2411 to 2417. (a) the nucleotide sequence consisting of the nucleotide numbers 1 to 9690, the nucleotide numbers 19134 to 19946, and the nucleotide numbers 23030 to 24448 in SEQ ID NO: 1, (b) the nucleotide sequence consisting of the nucleotide numbers 1 to 19946 and the nucleotide numbers 23030 to 24448 in SEQ ID NO: 1, (c) the nucleotide sequence consisting of the nucleotide numbers 1 to 5658 and the nucleotide numbers 23030 to 24448 in SEQ ID NO: 1, (d) the nucleotide sequence consisting of the nucleotide numbers 1 to 2866 and the 23030 to 24448 in SEQ ID NO: 1, (e) the nucleotide sequence consisting of the nucleotide numbers 1 to 2866 and the nucleotide numbers 22167 to 24448 in SEQ ID NO: 1, (f) the nucleotide sequence consisting of the nucleotide numbers 1242 to 2866 and the nucleotide numbers 23697 to 24448 in SEQ ID NO: 1, or (g) a nucleotide sequence consisting of the nucleotide numbers 1 to 5658 and the
An ink comprising: a polyurethane polymer which has units respectively derived from a polyisocyanate, a polyether polyol having no acid group and a diol having an acid group and has an acid value of 40 mg KOH/g or more and 140 mg KOH/g or less; a carbon black; and at least one antioxidant selected from the group consisting of a compound represented by the following general formula, a compound represented by the following general formula and a compound represented by the following general formula: wherein R 1 is an alkyl group having 1 to 20 carbon atoms; wherein R 2 is a methylene group or an ethylene group; and wherein R 3 is an alkyl group having 1 to 16 carbon atoms. a polyurethane polymer which has units respectively derived from a polyisocyanate, a polyether polyol having no acid group and a diol having an acid group and has an acid value of 40 mg KOH/g or more and 140 mg KOH/g or less; a carbon black; and at least one antioxidant selected from the group consisting of a compound represented by the following general formula, a compound represented by the following general formula and a compound represented by the following general formula: wherein R 1 is an alkyl group having 1 to 20 carbon atoms; wherein R 2 is a methylene group or an ethylene group; and wherein R 3 is an alkyl group having 1 to 16 carbon atoms.
A method for adapting the sensitivity of a sensor system, in particular of a capacitive sensor system, which provides a sensor signal, wherein - a first lower threshold value is adapted, if the sensor signal fulfills a first switching threshold criterion, - a first upper threshold value is adapted, if the sensor signal fulfills a second switching threshold criterion, and - at least one switching threshold value is adapted such that the switching threshold value has a predetermined first distance from the first upper threshold value and/or a predetermined second distance from the first lower threshold value. - a first lower threshold value is adapted, if the sensor signal fulfills a first switching threshold criterion, - a first upper threshold value is adapted, if the sensor signal fulfills a second switching threshold criterion, and - at least one switching threshold value is adapted such that the switching threshold value has a predetermined first distance from the first upper threshold value and/or a predetermined second distance from the first lower threshold value.
A method for producing three-dimensional moulded parts in a device, comprising the steps of: a. producing a material layer by applying a slurry with an application means onto a construction plane in a predetermined layer thickness, the slurry comprising a carrier fluid and particulate material, wherein the particulate material is or comprises an at least partially fusible material, wherein the particulate material is a sinterable material and is selected from the group consisting of a thermoplastic, a polycondensate, preferably a polyamide, metallic and/or ceramic particles or a mixture thereof, b. applying a liquid binder material onto selected areas of the material layer, c. energy input, for sintering or at least partial fusion, wherein the energy input takes place in the form of electromagnetic energy, by means of a radiator in the IR-A or/and IR-B range or by means of an IR radiator or by means of a laser, d. lowering the construction plane by a desired layer thickness or lifting the application means and, if necessary, other means of the device by a desired layer thickness, e. repeating steps a.) - d.), wherein the binder material contains or consists of an energy-absorbing material, said energy-absorbing material containing graphite or carbon black, and absorbs and releases energy and heat to the surrounding material, thereby causing a local temperature increase, f. removing the material surrounding the moulded parts to obtain the moulded parts. a. producing a material layer by applying a slurry with an application means onto a construction plane in a predetermined layer thickness, the slurry comprising a carrier fluid and particulate material, wherein the particulate material is or comprises an at least partially fusible material, wherein the particulate material is a sinterable material and is selected from the group consisting of a thermoplastic, a polycondensate, preferably a polyamide, metallic and/or ceramic particles or a mixture thereof, b. applying a liquid binder material onto selected areas of the material layer, c. energy input, for sintering or at least partial fusion, wherein the energy input takes place in the form of electromagnetic energy, by means of a radiator in the IR-A or/and IR-B range or by means of an IR radiator or by means of a laser, d. lowering the construction plane by a desired layer thickness or lifting the application means and, if necessary, other means of the device by a desired layer thickness, e. repeating steps a.) - d.), wherein the binder material contains or consists of an energy-absorbing material, said energy-absorbing material containing graphite or carbon black, and absorbs and releases energy and heat to the surrounding material, thereby causing a local temperature increase, f. removing the material surrounding the moulded parts to obtain the moulded parts.
A method of wireless communication performed by a user equipment, UE, comprising: receiving, at the UE, from a source UE, a first sidelink communication; generating, at the UE, a transmit power control command based at least in part on: a signal to interference noise ratio measurement associated with the first sidelink communication; and one or more transmit power control commands received by the UE from one or more other UEs; transmitting, to control a transmit power for a second side link communication, the transmit power control command from the UE to the source UE. receiving, at the UE, from a source UE, a first sidelink communication; generating, at the UE, a transmit power control command based at least in part on: a signal to interference noise ratio measurement associated with the first sidelink communication; and one or more transmit power control commands received by the UE from one or more other UEs; transmitting, to control a transmit power for a second side link communication, the transmit power control command from the UE to the source UE.
Method for decoding at least one data stream representative of a multi-view video, said at least one data stream comprising at least coded data representative of at least one view, referred to as a basic view, of the multi-view video and of at least one sub-image, the coded data of the at least one basic view comprising texture data and depth data associated with said texture data, said sub-image comprising a zone referred to as a useful zone and a zone referred to as a non-useful zone, said useful zone corresponding to a zone extracted from a view of the multi-view video that is not coded in the data stream, referred to as an intermediate view, the coded data of the at least one sub-image comprising texture data and depth data associated with said texture data, the useful zone being intended to be used to generate at least one image of at least one other view, the decoding method comprising: - decoding, from said at least one data stream, an indicator indicating whether the sub-image is coded according to a first method or according to a second method, - when the indicator indicates that the sub-image is coded according to the first method, decoding, for the sub-image, a binary map indicating, for at least one pixel of the sub-image, whether or not said pixel belongs to the useful zone and, if said pixel belongs to the useful zone, decoding, for the sub-image, the texture data and the depth data associated with said texture data, - decoding the texture data and the depth data of the sub-image, when the indicator indicates that the sub-image is coded according to the second method, the texture data, respectively depth data, of said sub-image, for pixels located outside the useful zone, comprising an assignment texture value, respectively an assignment depth value. - decoding, from said at least one data stream, an indicator indicating whether the sub-image is coded according to a first method or according to a second method, - when the indicator indicates that the sub-image is coded according to the first method, decoding, for the sub-image, a binary map indicating, for at least one pixel of the sub-image, whether or not said pixel belongs to the useful zone and, if said pixel belongs to the useful zone, decoding, for the sub-image, the texture data and the depth data associated with said texture data, - decoding the texture data and the depth data of the sub-image, when the indicator indicates that the sub-image is coded according to the second method, the texture data, respectively depth data, of said sub-image, for pixels located outside the useful zone, comprising an assignment texture value, respectively an assignment depth value.
A method of producing fatty acid esters by means of transesterification of fats and/or oils and an alcohol, the method comprising the steps of: - supplying the fats and/or oils and the alcohol to a reactor, - reacting the fats and/or oils with the alcohol at a temperature falling in the range between 240°C and 450°C and a pressure falling in the range between 0.5 MPa and 25 MPa to obtain a reaction mixture comprising unreacted alcohol, characterised in that the method comprises the steps of: - cooling the reaction mixture followed by depressurizing the reaction mixture to obtain a vapour phase and one or more phases of higher density than the vapour phase, wherein the vapour phase and one or more phases of higher density are intimately mixed, and wherein the unreacted alcohol is concentrated in the vapour phase, and the reaction products, intermediates and unreacted oil are concentrated in the one or more phases with higher density, - feeding the mixture of vapour phase and the one or more phases of higher density to a separator (17, 27, 371, 47, 571) and separating the vapour phase to obtain a first stream and the one or more phases of higher density to obtain a second stream, being a liquid stream, wherein the first stream comprises at least 90% by weight of unreacted alcohol and the second stream comprises a smaller fraction of unreacted alcohol than the first stream and - continuously recycling said first stream to the reactor. - supplying the fats and/or oils and the alcohol to a reactor, - reacting the fats and/or oils with the alcohol at a temperature falling in the range between 240°C and 450°C and a pressure falling in the range between 0.5 MPa and 25 MPa to obtain a reaction mixture comprising unreacted alcohol, - cooling the reaction mixture followed by depressurizing the reaction mixture to obtain a vapour phase and one or more phases of higher density than the vapour phase, wherein the vapour phase and one or more phases of higher density are intimately mixed, and wherein the unreacted alcohol is concentrated in the vapour phase, and the reaction products, intermediates and unreacted oil are concentrated in the one or more phases with higher density, - feeding the mixture of vapour phase and the one or more phases of higher density to a separator (17, 27, 371, 47, 571) and separating the vapour phase to obtain a first stream and the one or more phases of higher density to obtain a second stream, being a liquid stream, wherein the first stream comprises at least 90% by weight of unreacted alcohol and the second stream comprises a smaller fraction of unreacted alcohol than the first stream and - continuously recycling said first stream to the reactor.
A fluid management system for use in an endoscopic procedure, comprising: a pump system for providing a fluid inflow from a fluid source to a uterine cavity of a patient and fluid outflow returning to the fluid source from the uterine cavity; a controller and control algorithms; and a filter system having selected characteristics for filtering the outflows that return to the fluid source; characterized in that: the filter system characteristics are selected to insure that a filtrate returning to the fluid source: causes no substantial effect on an extrinsic coagulation pathway as verified by a Prothrombin Time assay, and/or causes no substantial effect on an intrinsic coagulation pathway as verified by an Unactivated Partial Thromboplastic Time assay. a pump system for providing a fluid inflow from a fluid source to a uterine cavity of a patient and fluid outflow returning to the fluid source from the uterine cavity; a controller and control algorithms; and a filter system having selected characteristics for filtering the outflows that return to the fluid source; characterized in that: the filter system characteristics are selected to insure that a filtrate returning to the fluid source: causes no substantial effect on an extrinsic coagulation pathway as verified by a Prothrombin Time assay, and/or causes no substantial effect on an intrinsic coagulation pathway as verified by an Unactivated Partial Thromboplastic Time assay. the filter system characteristics are selected to insure that a filtrate returning to the fluid source: causes no substantial effect on an extrinsic coagulation pathway as verified by a Prothrombin Time assay, and/or causes no substantial effect on an intrinsic coagulation pathway as verified by an Unactivated Partial Thromboplastic Time assay.