mhurhangee/ep-ind-claims huggingface dataset:
A method for modifying a protein, comprising: providing a target protein having at least one lysine residue; contacting the target protein with a modifying compound having the formula R 1 -(Leu) x -Gln-(Gly) y -(A-W-B-R 2) z in the presence of a microbial transglutaminase to form a modified protein; wherein x is 0 or 1; y is 0 or 1; z is 0 or 1; R 1 is W is selected from: C 1 -C 6 linear or branched alkyl or polyethylene glycol having a molecular weight of between about 40 and about 80,000 amu; A is absent or selected from -O-, -NH-, and -S-; B is absent or selected from -O-, -C -, -NH-, -C NH-, -NHC -, -NHC O-, -OC NH-, -OC O-, -C=N -, -S(O 2)-, -NHS(O 2)-, -S(O 2)NH-, -S -, -NHS -, -S NH-; -C O-, -OC -, -S-, =NH-O-, =NH-NH- and =NH-N(C 1 -C 20 alkyl)-; R 2 is selected from the group consisting of: a fatty acid, linear or branched C 1 -C 3 alkyl-N 3, cyclooctynyl, polysaccharide, -CH(OCH 3) 2, each n is an integer independently selected from 0 to 6; each Q is selected from H and NO 2. providing a target protein having at least one lysine residue; contacting the target protein with a modifying compound having the formula R 1 -(Leu) x -Gln-(Gly) y -(A-W-B-R 2) z in the presence of a microbial transglutaminase to form a modified protein; wherein x is 0 or 1; y is 0 or 1; z is 0 or 1; R 1 is W is selected from: C 1 -C 6 linear or branched alkyl or polyethylene glycol having a molecular weight of between about 40 and about 80,000 amu; A is absent or selected from -O-, -NH-, and -S-; B is absent or selected from -O-, -C -, -NH-, -C NH-, -NHC -, -NHC O-, -OC NH-, -OC O-, -C=N -, -S(O 2)-, -NHS(O 2)-, -S(O 2)NH-, -S -, -NHS -, -S NH-; -C O-, -OC -, -S-, =NH-O-, =NH-NH- and =NH-N(C 1 -C 20 alkyl)-; R 2 is selected from the group consisting of: a fatty acid, linear or branched C 1 -C 3 alkyl-N 3, cyclooctynyl, polysaccharide, -CH(OCH 3) 2, each n is an integer independently selected from 0 to 6; each Q is selected from H and NO 2.
Device for generating a wave profile in water, comprising a platform which is able to float in a body of water and which has a wave pool situated therein, wherein water is able to be made to flow from the body of water surrounding the platform through an inlet opening and into the wave pool and is able to be guided out of the wave pool through an outlet opening and into the surrounding body of water, wherein there is provided in the wave pool an interference body arrangement which forms in the water flow inside the wave pool a wave profile with a wave slope which is suitable for surfing, characterized in that the inlet opening opens into the wave pool below a water surface of the surrounding body of water, and in that arranged upstream of the inlet opening is a calming zone, by means of which the speed and/or the direction of the flow is made uniform, with the result that the water flows from the inlet opening into the wave pool at the same speed and/or in the same direction.
A data transmission control method, comprising: receiving, by a first communications apparatus, radio frequency signals; processing, by the first communications apparatus, the radio frequency signals in at least two functional split manners, to generate at least two parts of transmission signals; and sending, by the first communications apparatus through a common public radio interface, CPRI, the at least two parts of transmission signals to a second communications apparatus, wherein each part of the transmission signals in the radio frequency signals is processed in one functional split manner; different parts of the transmission signals in the radio frequency signals are processed in different functional split manners; and each of the at least two functional split manners is used to determine functional split on the first communications apparatus and the second communications apparatus when the radio frequency signals are processed. receiving, by a first communications apparatus, radio frequency signals; processing, by the first communications apparatus, the radio frequency signals in at least two functional split manners, to generate at least two parts of transmission signals; and sending, by the first communications apparatus through a common public radio interface, CPRI, the at least two parts of transmission signals to a second communications apparatus, wherein each part of the transmission signals in the radio frequency signals is processed in one functional split manner; different parts of the transmission signals in the radio frequency signals are processed in different functional split manners; and each of the at least two functional split manners is used to determine functional split on the first communications apparatus and the second communications apparatus when the radio frequency signals are processed.
A silencing system comprising: one or more silencers that are disposed on a tubular member provided to penetrate a wall separating two spaces, wherein the silencer silences sound having a frequency that includes a frequency of first resonance occurring in the tubular member, the silencer includes a cavity portion and an opening portion that allows the cavity portion and the outside to communicate with each other, at least one of the opening portions of the silencers is connected to a sound field space of the first resonance of the tubular member in the silencing system, a conversion mechanism for converting sound energy into thermal energy is disposed in at least a part of the cavity portion of the silencer or at a position where the conversion mechanism covers at least a part of the opening portion of the silencer, a depth L d of the cavity portion in a traveling direction of an acoustic wave in the silencer is larger than a width L o of the opening portion in an axial direction of the tubular member, characterized in that, in a case where a wavelength of an acoustic wave at a resonant frequency of the first resonance is denoted by λ, the depth L d of the cavity portion in the traveling direction of an acoustic wave in the silencer satisfies "0.0 11×λ<L d <0.25×λ", and the silencer does not resonate with sound having the frequency of the first resonance occurring in the tubular member, and silences the sound having the frequency of the first resonance by the conversion mechanism without silencing the sound with resonance of the silencer. one or more silencers that are disposed on a tubular member provided to penetrate a wall separating two spaces, wherein the silencer silences sound having a frequency that includes a frequency of first resonance occurring in the tubular member, the silencer includes a cavity portion and an opening portion that allows the cavity portion and the outside to communicate with each other, at least one of the opening portions of the silencers is connected to a sound field space of the first resonance of the tubular member in the silencing system, a conversion mechanism for converting sound energy into thermal energy is disposed in at least a part of the cavity portion of the silencer or at a position where the conversion mechanism covers at least a part of the opening portion of the silencer, a depth L d of the cavity portion in a traveling direction of an acoustic wave in the silencer is larger than a width L o of the opening portion in an axial direction of the tubular member, characterized in that, in a case where a wavelength of an acoustic wave at a resonant frequency of the first resonance is denoted by λ, the depth L d of the cavity portion in the traveling direction of an acoustic wave in the silencer satisfies "0.0 11×λ<L d <0.25×λ", and the silencer does not resonate with sound having the frequency of the first resonance occurring in the tubular member, and silences the sound having the frequency of the first resonance by the conversion mechanism without silencing the sound with resonance of the silencer.
A method for reducing the acrylamide content of a liquid extract from roasted beans i.e. coffee, cocoa, cereal and any other grains, comprising on its production process the step of submitting the liquid extract in contact to a charge of cationic adsorbent resin for a time sufficient to ensure, by replacing the charge by a new or regenerated one, a reduction of at least 50% of the acrylamide content of the treated liquid extract to be released from the charge of the cationic adsorbent resin, characterized in that the cationic adsorbent resin is a porous resin with a superficial area of 700 to 1200 m 2 /g and with a pore diameter between 700-1000 Angstrom, and in that the charge of the cationic adsorbent resin is strongly acidic.
An aluminum can, wherein: the outer surface of the can is not coated with resin; a maximum height of roughness Rz1 in the circumferential direction is not more than 0.5 μ m on the outer surface of the thinnest portion of the body portion; and when a light reflected by the outer surface of the body portion of the aluminum can is evaluated based on the LCH method by using a multi-angle spectral colorimeter, the aluminum can features a ratio C 15h /C 15w of 0.6 to 1.4, the ratio C 15h /C 15w being that of a saturation value C 15h of the light reflected at 15 degrees in the direction of height and a saturation value C 15w of the light reflected at 15 of degrees in the circumferential direction based on the light regularly reflected from the light that is incident at 45 degrees in the direction of height and in the circumferential direction. the outer surface of the can is not coated with resin; a maximum height of roughness Rz1 in the circumferential direction is not more than 0.5 μ m on the outer surface of the thinnest portion of the body portion; and when a light reflected by the outer surface of the body portion of the aluminum can is evaluated based on the LCH method by using a multi-angle spectral colorimeter, the aluminum can features a ratio C 15h /C 15w of 0.6 to 1.4, the ratio C 15h /C 15w being that of a saturation value C 15h of the light reflected at 15 degrees in the direction of height and a saturation value C 15w of the light reflected at 15 of degrees in the circumferential direction based on the light regularly reflected from the light that is incident at 45 degrees in the direction of height and in the circumferential direction.
A mouse artificial chromosome vector comprising: a natural centromere derived from mouse chromosome 10; a long-arm fragment derived from mouse chromosome 10 by deleting gene Gm8155 and the entire long-arm region of mouse chromosome 10 distal to Gm8155; and a telomere sequence, wherein the vector is stably retained in a rodent cell, tissue, or individual and is capable of transmission to progeny. a natural centromere derived from mouse chromosome 10; a long-arm fragment derived from mouse chromosome 10 by deleting gene Gm8155 and the entire long-arm region of mouse chromosome 10 distal to Gm8155; and a telomere sequence, wherein the vector is stably retained in a rodent cell, tissue, or individual and is capable of transmission to progeny.
A disc segment adapted to be attached to other disc segments to form a disc assembly, the disc segment including at least one isosceles trapezoid frame, the frame comprising a left side rail and a right side rail, and a plurality of spaced apart parallel horizontally extending ribs, connected between the side rails, each rib being connected to one side rail and then extending over to and being connected to the other side rail, the frame defining a first disc side and an opposite second disc side, each disc side including a corrugated left bottom clamp list adjacent the left side rail and supported by the ribs, and a corrugated right bottom clamp list adjacent the right side rail and supported by the ribs, a corrugated wire mesh supported by the left and right clamp lists (52, 56), and supported by the frame ribs, a left corrugated top clamp list adjacent the left side rail and attached to the frame, sandwiching the wire mesh between the left bottom clamp list and the left top clamp list, and a right corrugated top clamp list adjacent the right side rail and attached to the frame, sandwiching the wire mesh between the right bottom clamp list and the right top clamp list.
A drone comprising one or more propellers and one or more actuators for actuating said one or more propellers to generating a thrust force which enables the drone to fly; a controller which is configured such that it can control the flight of the drone, characterized in that, the controller comprises a memory having stored therein a plurality of predefined sets of positions which define a virtual rail which can be used to guide the flight of the drone so that the drone can avoid collision with an subject; and wherein the controller further comprises a mathematical model of the drone; wherein the controller is configured to control the flight of the drone by performing at least the following steps, (a) approximating a lag error based on the position of the drone measured by a sensor and the virtual rail, wherein the lag error is the distance between a point along the virtual rail which is closest to the drone and an estimate of said point along the virtual rail which is closest to the drone; (b) approximating a contour error based on the position of the drone as measured by a sensor and the virtual rail, wherein the contour error is the distance between a point along the virtual rail which is closest to the drone and the position of the drone; (c) defining a cost function which comprises at least said approximation of the lag error and said approximation of the contour error; (d) minimizing the defined cost function, while also respecting at least limitations of the drone which are defined in said mathematical model, to determine a plurality of control inputs over a predefined time period into the future, and (e) applying the first control input only to the one or more actuators. (a) approximating a lag error based on the position of the drone measured by a sensor and the virtual rail, wherein the lag error is the distance between a point along the virtual rail which is closest to the drone and an estimate of said point along the virtual rail which is closest to the drone; (b) approximating a contour error based on the position of the drone as measured by a sensor and the virtual rail, wherein the contour error is the distance between a point along the virtual rail which is closest to the drone and the position of the drone; (c) defining a cost function which comprises at least said approximation of the lag error and said approximation of the contour error; (d) minimizing the defined cost function, while also respecting at least limitations of the drone which are defined in said mathematical model, to determine a plurality of control inputs over a predefined time period into the future, and (e) applying the first control input only to the one or more actuators.
A turbine blade comprising: an airfoil including a pressure side and a suction side; a platform including a pressure side wall and a suction side wall, and having a leading edge end wall and a trailing edge end wall, wherein a radially inwardly extending extension extends from a radially inner face of said platform, and to define a space; a pocket positioned under the platform on the pressure side; and a hole having a first end communicating with the pocket, characterized in that: the hole further comprises a second end communicating with the pressure side wall, said second end being spaced toward said trailing edge end wall relative to said radially inwardly extending extension. an airfoil including a pressure side and a suction side; a platform including a pressure side wall and a suction side wall, and having a leading edge end wall and a trailing edge end wall, wherein a radially inwardly extending extension extends from a radially inner face of said platform, and to define a space; a pocket positioned under the platform on the pressure side; and a hole having a first end communicating with the pocket, characterized in that: the hole further comprises a second end communicating with the pressure side wall, said second end being spaced toward said trailing edge end wall relative to said radially inwardly extending extension.
A display for an electronic measurement device, wherein the display is configured to display a linear straight scale comprising a value range from a lower limit value to an upper limit value, characterised in that the display is further configured to display a non-linear curved scale comprising the same value range as the linear straight scale, wherein the linear straight scale and the non-linear curved scale delimit a numeric value input area, wherein the display is configured to receive a user input on the numeric value input area, and wherein the display is configured to determine a setting of a numeric value of the electronic measurement device based on the user input on the numeric value input area, wherein a rate of change of the numerical value when moving an input pointer from a first to a second position on the numerical value input area depends on a position of the user input on the numeric value input area, based on the distance of the position of the user input to the linear straight scale and the non-linear curved scale. wherein the display is configured to display a linear straight scale comprising a value range from a lower limit value to an upper limit value, characterised in that the display is further configured to display a non-linear curved scale comprising the same value range as the linear straight scale, wherein the linear straight scale and the non-linear curved scale delimit a numeric value input area, wherein the display is configured to receive a user input on the numeric value input area, and wherein the display is configured to determine a setting of a numeric value of the electronic measurement device based on the user input on the numeric value input area, wherein a rate of change of the numerical value when moving an input pointer from a first to a second position on the numerical value input area depends on a position of the user input on the numeric value input area, based on the distance of the position of the user input to the linear straight scale and the non-linear curved scale.
An adeno-associated Virus having at least one chemically-modified tyrosine residue in its capsid, wherein said chemically-modified tyrosine residue is of formula: Wherein: - X 1 is selected from the group consisting of: and - Ar is an aryl or a heteroaryl moiety optionally substituted. - X 1 is selected from the group consisting of: and - Ar is an aryl or a heteroaryl moiety optionally substituted.
Method for recovering a first treatment liquid comprising hydrolysis by-products in a displacement batch pulping process in a digester filled with comminuted cellulosic material and equipped with a bottom liquid exchange position, a top liquid exchange position and a middle liquid exchange position, said method comprising filling the digester with a first treatment liquid during a liquid phase prehydrolysis or after a steam prehydrolyzing step, characterized in that the process continues by, - after filling the digester with the first treatment liquid during or after the prehydrolyzing step the first treatment liquid contained in the digester is subjected to circulation within the digester by withdrawing the first treatment liquid from the middle liquid exchange position and reintroducing the same to the top and bottom liquid exchange position of the digester such that the first treatment liquid volume passes the chip volume at least one time, thus washing out the carbohydrates dissolved in the hydrolysate or removed from the cellulosic material; - draining of the first treatment liquid now comprising by-products, preferably carbohydrates from the digester via one of the middle and/or bottom liquid exchange positions in at least a first draining phase; - sending at least a part of the liquid obtained in the first draining phase to a dedicated processing position either for use in a different phase of the batch pulping process or for further processing, wherein at least a part of the content of the liquid obtained in the first draining phase is used for recovering hydrolysis by-products, preferably carbohydrates. - after filling the digester with the first treatment liquid during or after the prehydrolyzing step the first treatment liquid contained in the digester is subjected to circulation within the digester by withdrawing the first treatment liquid from the middle liquid exchange position and reintroducing the same to the top and bottom liquid exchange position of the digester such that the first treatment liquid volume passes the chip volume at least one time, thus washing out the carbohydrates dissolved in the hydrolysate or removed from the cellulosic material; - draining of the first treatment liquid now comprising by-products, preferably carbohydrates from the digester via one of the middle and/or bottom liquid exchange positions in at least a first draining phase; - sending at least a part of the liquid obtained in the first draining phase to a dedicated processing position either for use in a different phase of the batch pulping process or for further processing, wherein at least a part of the content of the liquid obtained in the first draining phase is used for recovering hydrolysis by-products, preferably carbohydrates.
A launch vehicle to transport at least one payload into an earth orbit, wherein the launch vehicle has a plurality of solar cells on its outer surface, wherein the plurality is integrated into at least one photovoltaic module which comprises a plurality of connection lines bundled in a cable harness and is inserted into a depression in an insulation, and wherein the plurality of solar cells comprises - at least one solar cell which is configured to be detachably connected to an electrical and/or an electronic component of a transported payload or payload to be transported, wherein the cable harness is to be connected to the electrical and/or electronic component by means of a connection in the depression; and/or - at least one accumulator and at least one solar cell, wherein the solar cell is configured to be detachably or permanently connected to the at least one accumulator which is to be detachably connected to an electrical and/or an electronic component of the transported payload or payload to be transported, wherein the cable harness is connected or to be connected to the accumulator by means of a connection in the depression. - at least one solar cell which is configured to be detachably connected to an electrical and/or an electronic component of a transported payload or payload to be transported, wherein the cable harness is to be connected to the electrical and/or electronic component by means of a connection in the depression; and/or - at least one accumulator and at least one solar cell, wherein the solar cell is configured to be detachably or permanently connected to the at least one accumulator which is to be detachably connected to an electrical and/or an electronic component of the transported payload or payload to be transported, wherein the cable harness is connected or to be connected to the accumulator by means of a connection in the depression.