mhurhangee/ep-ind-claims huggingface dataset:
A wheel suspension of a multi-track leaning vehicle having at least two damping elements and at least one pair of transverse links which comprises one transverse link in the right-hand direction of travel and one transverse link in the left-hand direction of travel, wherein one transverse link (22, 24) and one damping element is associated in each case with one wheel of an axle, wherein one of the damping elements is arranged between a vehicle frame and one of the transverse links (22, 24) in each case, and the wheel suspension has a double wishbone axle, characterised in that - a spring element is pivotably mounted on the vehicle frame, which element forms the upper pair of transverse links, with in each case the one end of the at least two damping elements being articulated to the vehicle frame and the other end being articulated in each case to a lower transverse link (22, 24), or - a spring element is pivotably mounted on the vehicle frame, which element forms the lower pair of transverse links, with in each case the one end of the at least two damping elements. being articulated to the vehicle frame and the other end being articulated in each case to an upper transverse link (22, 24). - a spring element is pivotably mounted on the vehicle frame, which element forms the upper pair of transverse links, with in each case the one end of the at least two damping elements being articulated to the vehicle frame and the other end being articulated in each case to a lower transverse link (22, 24), or - a spring element is pivotably mounted on the vehicle frame, which element forms the lower pair of transverse links, with in each case the one end of the at least two damping elements. being articulated to the vehicle frame and the other end being articulated in each case to an upper transverse link (22, 24).
A motor driven vehicle which runs using an electric motor to which power is applied from a vehicle-carried battery as a driving source, wherein a front wheel is supported for rotation on a front supporting member extending from a vehicle body while a rear wheel is supported for rotation on a rear supporting member extending from said vehicle body, a front fender is provided for said front wheel while a rear fender is provided for said rear wheel, and a roller is provided at a rear portion of said vehicle body or at a front portion of said vehicle body such that, when the motor driven vehicle is not used, the motor driven vehicle can be moved to an arbitrary place by said roller, characterized in that at least one of said front fender and said rear fender is attached for pivotal motion around an axle (95 or 98) to said front supporting member or said rear supporting member to move said at least one of said front fender and said rear fender from a running position at which it covers an upper portion of said front wheel or said rear wheel to a position for preventing transfer of dirt from said front wheel or said rear wheel to a person in a state in which the motor driven vehicle is erected uprightly so that the roller provided at the rear portion and the rear wheel or the roller provided at the front portion and the front wheel contact with a floor to park or move the motor driven vehicle.
A method, comprising: positioning, on a person's artery, a sensing device comprising a two-dimensional array of nanotechnology-based strain sensing elements, wherein a length and a width of the two-dimensional array exceed 0.5 cm and wherein the two-dimensional array comprises at least a first sensing element and a second sensing element which are spaced apart by at least 1 mm, wherein each sensing element comprises one or more piezoresistive materials which are gold nanoparticles; sensing, by a sensing circuit that is coupled to the sensing elements, a resistance of the first sensing element and of the second sensing element; wherein the two-dimensional array is shaped and sized so that when the sensing device is positioned on the artery, the first sensing element is located on the artery and the second sensing element is not located on the artery; and determining by the sensing circuit and based on the resistance of the first sensing element and of the second sensing element, a first parameter of a cardiac waveform of the person, wherein the cardiac waveform (i) is sensed by the first sensing element, and (ii) is not sensed by the second sensing element. positioning, on a person's artery, a sensing device comprising a two-dimensional array of nanotechnology-based strain sensing elements, wherein a length and a width of the two-dimensional array exceed 0.5 cm and wherein the two-dimensional array comprises at least a first sensing element and a second sensing element which are spaced apart by at least 1 mm, wherein each sensing element comprises one or more piezoresistive materials which are gold nanoparticles; sensing, by a sensing circuit that is coupled to the sensing elements, a resistance of the first sensing element and of the second sensing element; wherein the two-dimensional array is shaped and sized so that when the sensing device is positioned on the artery, the first sensing element is located on the artery and the second sensing element is not located on the artery; and determining by the sensing circuit and based on the resistance of the first sensing element and of the second sensing element, a first parameter of a cardiac waveform of the person, wherein the cardiac waveform (i) is sensed by the first sensing element, and (ii) is not sensed by the second sensing element.
A method of transmitting a plurality of packets in a broadcasting and communication system, the method comprising: dividing each symbol corresponding to each row of a two-dimensional array having a predetermined symbol size, T, as a width into a predetermined number, m, of regions; determining a number of columns in each region based on T and m according to a predetermined rule; sequentially arranging source packets to be transmitted within the symbol size T in the two-dimensional array, starting from a first column of a first row of the two-dimensional array; setting a remaining part of an end region in which last data of a first source packet of the plurality of source packets is allocated in a last row in which the first source packet is arranged, to a predetermined value; arranging a next source packet, starting from a starting point of a region next to the end region, after the first source packet is arranged; constructing a source block by arranging all of the source packets in the two-dimensional array; Forward Error Correction, FEC,-encoding the source block; transmitting the FEC-encoded source block to a receiving device; and transmitting information indicating a number of the regions in the each symbol to the receiving device, wherein the predetermined rule comprises that each of the first n regions has T/m + 1 columns and each of the remaining m-n regions has T/m columns, where n is a remainder of dividing T by m, n being less than m. dividing each symbol corresponding to each row of a two-dimensional array having a predetermined symbol size, T, as a width into a predetermined number, m, of regions; determining a number of columns in each region based on T and m according to a predetermined rule; sequentially arranging source packets to be transmitted within the symbol size T in the two-dimensional array, starting from a first column of a first row of the two-dimensional array; setting a remaining part of an end region in which last data of a first source packet of the plurality of source packets is allocated in a last row in which the first source packet is arranged, to a predetermined value; arranging a next source packet, starting from a starting point of a region next to the end region, after the first source packet is arranged; constructing a source block by arranging all of the source packets in the two-dimensional array; Forward Error Correction, FEC,-encoding the source block; transmitting the FEC-encoded source block to a receiving device; and transmitting information indicating a number of the regions in the each symbol to the receiving device, wherein the predetermined rule comprises that each of the first n regions has T/m + 1 columns and each of the remaining m-n regions has T/m columns, where n is a remainder of dividing T by m, n being less than m.
A continuous process for preparing titanium dioxide pigment comprising: a) preparing an aqueous slurry of titanium dioxide base particles at a temperature below 75°C and at a pH of from 2.0 to 9.0; b) forming silica coated base titanium dioxide particles in the slurry, while maintaining the temperature of the slurry below 75°C, by: i) adding a silica compound in a first silica precipitation vessel while maintaining the pH of the slurry in the range of from 9.6 to 9.8; ii) transferring the slurry to a second silica precipitation tank while maintaining the pH at between 9.2 and 9.5 and with a residence time in the second tank of between 10 and 20 minutes; iii) transferring the slurry to a third silica precipitation tank while maintaining the pH at a range of from 2.4 to 6.6; and c) adding an alumina compound while maintaining the pH of the slurry in the range of from 5.5 to 7.5 and the temperature of the slurry below 75°C so as to form the titanium dioxide pigment. a) preparing an aqueous slurry of titanium dioxide base particles at a temperature below 75°C and at a pH of from 2.0 to 9.0; b) forming silica coated base titanium dioxide particles in the slurry, while maintaining the temperature of the slurry below 75°C, by: i) adding a silica compound in a first silica precipitation vessel while maintaining the pH of the slurry in the range of from 9.6 to 9.8; ii) transferring the slurry to a second silica precipitation tank while maintaining the pH at between 9.2 and 9.5 and with a residence time in the second tank of between 10 and 20 minutes; iii) transferring the slurry to a third silica precipitation tank while maintaining the pH at a range of from 2.4 to 6.6; and c) adding an alumina compound while maintaining the pH of the slurry in the range of from 5.5 to 7.5 and the temperature of the slurry below 75°C so as to form the titanium dioxide pigment.
A chromatograph comprising: a column; a mobile phase supply unit (3, 10, 12) for supplying a mobile phase including a liquid or a supercritical fluid to the column; and a flow rate control unit for controlling a flow rate of the mobile phase supplied from the mobile phase supply unit to the column, wherein, the flow rate control unit is configured to control, when a first mobile phase in the column is replaced by a second mobile phase having different viscosity, a flow rate of the second mobile phase so that the second mobile phase is supplied at a preset constant pressure, and is supplied at a constant flow rate after reaching a predetermined flow rate, wherein, the flow rate control unit is further configured to control, when the liquid in the column is replaced by the supercritical fluid, a flow rate of the supercritical fluid so that the supercritical fluid is supplied at a preset constant pressure, and is supplied at a constant flow rate after reaching a predetermined flow rate. a column; a mobile phase supply unit (3, 10, 12) for supplying a mobile phase including a liquid or a supercritical fluid to the column; and a flow rate control unit for controlling a flow rate of the mobile phase supplied from the mobile phase supply unit to the column, wherein, the flow rate control unit is configured to control, when a first mobile phase in the column is replaced by a second mobile phase having different viscosity, a flow rate of the second mobile phase so that the second mobile phase is supplied at a preset constant pressure, and is supplied at a constant flow rate after reaching a predetermined flow rate, wherein, the flow rate control unit is further configured to control, when the liquid in the column is replaced by the supercritical fluid, a flow rate of the supercritical fluid so that the supercritical fluid is supplied at a preset constant pressure, and is supplied at a constant flow rate after reaching a predetermined flow rate.
A computer-implemented method of displaying an assembly of digitally modeled objects (RO, HO) in a three-dimensional scene, the method comprising the steps of: a) acquiring an input from a user for defining at least one object of the assembly as being revealable; b) generating, from three-dimensional digital models of the objects, a graphical representation of the assembly as seen from a point of view, wherein said revealable object is located at least partially behind at least another object, called hiding object; and displaying said graphical representation; c) using a graphical tool (RC, RC1, RC2) for selecting a region of said graphical representation of the assembly, called a revealing zone (RZ, RZ1, RZ2); and d) rendering a three-dimensional scene comprising a three-dimensional representation of the assembly as seen from said point of view, wherein a portion of the revealable object located behind the hiding object and comprised within the revealing zone is shown by transparency through said hiding object, while portions of the revealable object located behind the hiding object and not comprised within the revealing zone are not visible, and the portions of objects not defined as being revealable and located behind the hiding object, comprised within the revealing zone or not, are not visible. a) acquiring an input from a user for defining at least one object of the assembly as being revealable; b) generating, from three-dimensional digital models of the objects, a graphical representation of the assembly as seen from a point of view, wherein said revealable object is located at least partially behind at least another object, called hiding object; and displaying said graphical representation; c) using a graphical tool (RC, RC1, RC2) for selecting a region of said graphical representation of the assembly, called a revealing zone (RZ, RZ1, RZ2); and d) rendering a three-dimensional scene comprising a three-dimensional representation of the assembly as seen from said point of view, wherein a portion of the revealable object located behind the hiding object and comprised within the revealing zone is shown by transparency through said hiding object, while portions of the revealable object located behind the hiding object and not comprised within the revealing zone are not visible, and the portions of objects not defined as being revealable and located behind the hiding object, comprised within the revealing zone or not, are not visible.
Aqueous resorcinol-formaldehyde-latex dispersion comprising at least one carbodiimide based on compounds of the formula R'-(-N=C=N-R-) m -R", in which m is an integer from 1 to 500, R = C 1 -C 18 -alkylene, C 5 -C 18 -cycloalkylene-, arylene and/or C 7 -C 12 -aralkylene, R' = R-NCO, R-NHCONHR 1, R-NHCONR 1 R 2, R-NHCOOR 3 or R-NHCO-R 5 and R"= -NCO, -NHCONHR 1, -NHCONR 1 R 2, -NHCO-R 5 or -NHCOOR 3, where R 1 and R 2 in R' are mutually independently identical or different and are a C 1 -C 6 -alkyl moiety, C 6 -C 10 -cycloalkyl moiety or C 7 -C 12 -aralkyl moiety, and R 3 is as defined for R 1 or is a polyester moiety or a polyamide moiety or -(CH 2) 1 -(O-(CH 2) k -O) g -R 4, -C 6 H 4 or -C 6 H 3 -((CH 2) h -C 6 H 4) y, and R 5 = epoxide, phenol, oxime, resorcinol, polyethylene glycols and/or lactam, preferably caprolactam, where 1= from 1 to 3, k= from 1 to 3, g = from 0 to 12, h = from 1 to 2 and y = from 1 to 50, and R 4 = H or C 1 -C 4 -alkyl. m is an integer from 1 to 500, R = C 1 -C 18 -alkylene, C 5 -C 18 -cycloalkylene-, arylene and/or C 7 -C 12 -aralkylene, R' = R-NCO, R-NHCONHR 1, R-NHCONR 1 R 2, R-NHCOOR 3 or R-NHCO-R 5 and R"= -NCO, -NHCONHR 1, -NHCONR 1 R 2, -NHCO-R 5 or -NHCOOR 3,
A system, system, comprising: a transmitter to generate a power beam; a receiver to receive at least a portion of the power beam; a plurality of sensors arranged to independently detect when an object (122, 124) is impinging on the power beam, at least a first set of one or more sensors of the plurality of sensors arranged to detect the object at or within a first detection volume between the transmitter and the receiver, at least a second set of one or more sensors of the plurality of sensors arranged to detect the object at or within a second detection volume between the transmitter and the receiver, the first detection volume different from the second detection volume; a third sensor arranged to detect the object at or within a third detection volume between the transmitter and the receiver, wherein the first detection volume includes a first distance range closest to the transmitter, wherein the second detection volume includes a second distance range partially overlapping a portion of the first distance range, and wherein the third detection volume includes a third distance range closest to the receiver and partially overlapping a portion of the second distance range; and a controller to interrupt transmission of the power beam to the receiver when, based on information from one or more of the plurality of sensors, the object is determined to be impinging on the power beam. a transmitter to generate a power beam; a receiver to receive at least a portion of the power beam; a plurality of sensors arranged to independently detect when an object (122, 124) is impinging on the power beam, at least a first set of one or more sensors of the plurality of sensors arranged to detect the object at or within a first detection volume between the transmitter and the receiver, at least a second set of one or more sensors of the plurality of sensors arranged to detect the object at or within a second detection volume between the transmitter and the receiver, the first detection volume different from the second detection volume; a third sensor arranged to detect the object at or within a third detection volume between the transmitter and the receiver, wherein the first detection volume includes a first distance range closest to the transmitter, wherein the second detection volume includes a second distance range partially overlapping a portion of the first distance range, and wherein the third detection volume includes a third distance range closest to the receiver and partially overlapping a portion of the second distance range; and a controller to interrupt transmission of the power beam to the receiver when, based on information from one or more of the plurality of sensors, the object is determined to be impinging on the power beam.
A can changer for a spinnery preparation machine, preferably for a draw frame, carding machine, or comber, for displacing spinning cans, - the can changer comprising at least one first carrier and a second carrier disposed upstream of the first carrier in a defined transport direction of the spinning cans, - the first carrier and the second carrier being supported on a displaceably guided support structure of the can changer, - the support structure, together with the first carrier and the second carrier, being displaceable in said transport direction from a first position into a second position and from there back into the first position by means of a drive, - the carriers (3; 5) being implemented for pushing a spinning can each in the transport direction from the first position into the second position while displacing, and - at least the first carrier being displaceably supported on the support structure so as to be displaceable relative to the support structure starting from a basic position, characterized in that at least the first carrier can at first be displaced opposite the transport direction into a third position, starting from the second position thereof, wherein the can changer comprises a stop located such that the first carrier makes contact with the stop when displacing into the third position and is herein displaced relative to the support structure. - the can changer comprising at least one first carrier and a second carrier disposed upstream of the first carrier in a defined transport direction of the spinning cans, - the first carrier and the second carrier being supported on a displaceably guided support structure of the can changer, - the support structure, together with the first carrier and the second carrier, being displaceable in said transport direction from a first position into a second position and from there back into the first position by means of a drive, - the carriers (3; 5) being implemented for pushing a spinning can each in the transport direction from the first position into the second position while displacing, and - at least the first carrier being displaceably supported on the support structure so as to be displaceable relative to the support structure starting from a basic position,
A method of producing a recombinant glycoprotein having O-Man-GlcNAc; O-Man-GlcNAc-Gal; or O-Man-GlcNAc-Gal-Sia as the predominant O-glycan thereof in a Pichia pastoris host cell which comprises: (a) providing Pichia pastoris host cells which (i) do not express functional beta-mannosyltransferase enzymes Bmt 1, 2, 3 and 4, and phospho-mannose transferase enzymes Mnn4a, Mnn4b and Pno1; and (ii) do express functional protein O-linked mannose β-1,2-N-linked acetylglucosaminyltransferase 1 ("POMGnT1") derived from human, murine or frog POMGnT1 species, UDP-GlcNAc transporter, and α-1,2-mannosidase enzymes; (b) transfecting or transforming the Pichia pastoris host cells with nucleic acid encoding the glycoprotein of interest; and (c) culturing the host cells so that the recombinant glycoprotein is produced. (a) providing Pichia pastoris host cells which (i) do not express functional beta-mannosyltransferase enzymes Bmt 1, 2, 3 and 4, and phospho-mannose transferase enzymes Mnn4a, Mnn4b and Pno1; and (ii) do express functional protein O-linked mannose β-1,2-N-linked acetylglucosaminyltransferase 1 ("POMGnT1") derived from human, murine or frog POMGnT1 species, UDP-GlcNAc transporter, and α-1,2-mannosidase enzymes; (i) do not express functional beta-mannosyltransferase enzymes Bmt 1, 2, 3 and 4, and phospho-mannose transferase enzymes Mnn4a, Mnn4b and Pno1; and (ii) do express functional protein O-linked mannose β-1,2-N-linked acetylglucosaminyltransferase 1 ("POMGnT1") derived from human, murine or frog POMGnT1 species, UDP-GlcNAc transporter, and α-1,2-mannosidase enzymes; (b) transfecting or transforming the Pichia pastoris host cells with nucleic acid encoding the glycoprotein of interest; and (c) culturing the host cells so that the recombinant glycoprotein is produced.