mhurhangee/ep-ind-claims huggingface dataset:
Linkage of an agricultural device having a plurality of linkage sections (7, 7', 8, 8', 9, 9') which are connected to one another in an articulated fashion and can each be placed in at least two different folded positions by means of an associated motor-operated actuator element (10, 21), wherein sensor elements for detecting the working position of the respective motor-operated actuator element (10, 21) are arranged in the region of the motor-operated actuator elements (10, 21), wherein the sensor elements are embodied in such a way that they generate measurement signals relating to the detected working position and supply them to a control device, which is embodied in such a way that it actuates the motor-operated actuator elements (10, 21) as a function of the supplied measurement signals, wherein the sensor elements are embodied in such a way that they can detect one or more working positions of the respective motor-operated actuator element (10, 21) between the respective end positions of the actuator element (10, 21), characterized in that the control device is embodied in such a way that it already activates a second motor-operated actuator element for folding a second linkage section before a first motor-operated actuator element for folding a first linkage section has reached one of its end positions.
Reinforcing element (34, 34') having a cross section with a flattened overall shape having an aspect ratio greater than or equal to 5 and extending in a main direction, and comprising at least one lateral edge (44, 46) made of a polymeric composition comprising a thermoplastic polymer, the lateral edge (44, 46) extending in a general direction substantially parallel to the main direction, characterized in that, in a section plane substantially perpendicular to the main direction, the reinforcing element (34, 34') has a central point defined as the point of intersection between a first median plane of the width of the reinforcing element (34, 34') and a second median plane of the thickness of the reinforcing element (34, 34'), the first and second median planes (M1, M2) being substantially perpendicular to one another and each first and second plane (M1, M2) extending substantially parallel to the main direction, and in that, in the section plane substantially perpendicular to the main direction, R=(Uc-U1)/Uc is such that R > 11%, where: - Uc is the average value of the microhardness of the reinforcing element (34, 34') measured: - at the central point when the central point is made of the polymeric composition; - at the point of the polymeric composition that is radially closest to the central point when the central point is not made of the polymeric composition, and - U1 is the average value of the microhardness of the reinforcing element (34, 34') measured at a point of the polymeric composition, known as the measuring point, belonging to the second median plane, the measuring point being distant from a point, known as the end point, belonging to the second median plane and from an external lateral surface (48, 50) delimiting the lateral edge (44, 46), by a distance (d) in a range of [0 μm; 50 μm], and in that the lateral edge (44, 46) does not have any ridges. - Uc is the average value of the microhardness of the reinforcing element (34, 34') measured: - at the central point when the central point is made of the polymeric composition; - at the point of the polymeric composition that is radially closest to the central point when the central point is not made of the polymeric composition, and - at the central point when the central point is made of the polymeric composition; - at the point of the polymeric composition that is radially closest to the central point when the central point is not made of the polymeric composition, and - U1 is the average value of the microhardness of the reinforcing element (34, 34') measured at a point of the polymeric composition, known as the measuring point, belonging to the second median plane, the measuring point being distant from a point, known as the end point, belonging to the second median plane and from an external lateral surface (48, 50) delimiting the lateral edge (44, 46), by a distance (d) in a range of [0 μm; 50 μm],
Luminaire comprising a closed housing (2, 3) with a translucent cover in which a light source (8, 12) as well as operating devices are arranged, wherein the light source (8, 12) comprises a plurality of light emitting diodes (8, 12), which are arranged on at least one printed circuit board, wherein at least one light guide extends from the cover in the direction of the light emitting diodes (8, 12) and picks up the light emitted by the light emitting diodes (8, 12) and guides it to the cover, wherein the cover and light guide form a U-shape in cross-section, wherein the side walls of the light guide and the cover define a transverse web, characterized in that the space of the receptacle enclosed by the side walls and the transverse web serves to accommodate the operating devices.
Method for the temperature correction of a force-measuring device, specifically a balance, while operating in measurement mode, comprising the steps: - by means of a force-measuring cell, generating an electrical force measurement signal (mL) corresponding to the input force; - measuring a temperature (Tm) by means of a single temperature sensor that is arranged at a distance from the heat-generating components of the force-measuring device, wherein said temperature (Tm) corresponds primarily to an ambient temperature (Te) to which the force-measuring device is exposed, and generating a temperature measurement signal (mT) corresponding to the measured temperature (Tm); - processing the force measurement signal (mL) into a temperature-corrected output signal (mLc) based on the temperature measurement signal (mT) and the force measurement signal (mL); and - transmitting the output signal (mLc) to an indicator unit and/or to a further processing unit, - characterized in that in the processing step at least one correction parameter serving for the correction of the output signal (mLc) is calculated from the force measurement signal (mL) and the temperature measurement signal (mL) by means of an underlying thermodynamic model wherein said correction parameter characterizes a temperature difference (dTr, dT1, dT2) which exists A) between a system temperature (Ts, Ts1, Ts2) and the measured temperature (Tm) and/or B) between a first system temperature and a second system temperature, wherein the system temperature can be calculated for any location and component of the force-measuring device. - by means of a force-measuring cell, generating an electrical force measurement signal (mL) corresponding to the input force; - measuring a temperature (Tm) by means of a single temperature sensor that is arranged at a distance from the heat-generating components of the force-measuring device, wherein said temperature (Tm) corresponds primarily to an ambient temperature (Te) to which the force-measuring device is exposed, and generating a temperature measurement signal (mT) corresponding to the measured temperature (Tm); - processing the force measurement signal (mL) into a temperature-corrected output signal (mLc) based on the temperature measurement signal (mT) and the force measurement signal (mL); and - transmitting the output signal (mLc) to an indicator unit and/or to a further processing unit, - characterized in that in the processing step at least one correction parameter serving for the correction of the output signal (mLc) is calculated from the force measurement signal (mL) and the temperature measurement signal (mL) by means of an underlying thermodynamic model wherein said correction parameter characterizes a temperature difference (dTr, dT1, dT2) which exists A) between a system temperature (Ts, Ts1, Ts2) and the measured temperature (Tm) and/or B) between a first system temperature and a second system temperature, A) between a system temperature (Ts, Ts1, Ts2) and the measured temperature (Tm) and/or B) between a first system temperature and a second system temperature,
A yarn slack eliminating device for a textile machine which includes a roller (42; 142) with a winding range (60; 160) around which a yarn can be wound wherein the winding range (60; 160) is located between a base-end flange section on an upstream side and a tip-end flange section on a downstream side, the base-end flange section being formed in a taper shape in which an end surface side has a larger diameter, the tip-end flange section being formed in a taper shape in which an end surface side has a larger diameter, and at least a portion of the winding range (60; 160) of the roller (42; 142) includes a taper winding range (60; 160), which is formed in a taper shape in which a diameter decreases from the upstream side where a yarn, can be started to be wound around towards the downstream side, characterized in that the taper winding range (60; 160) has at least an upstream winding range (62; 162) and a downstream winding range (63; 163), the taper angle of the upstream and downstream winding ranges (62, 63; 162, 163, 164) decreases in stages towards the downstream side, the taper angle (α) of the upstream winding range (62; 162) is in the range between 1.5 degrees and 3.5 degrees, and the area of the upstream winding range (62; 162) is smaller than the area of the downstream winding range (63; 164).
A container for storing red blood cell compositions comprising: one or more container walls defining an interior chamber, said container wall(s) comprising a polymeric material that is: (a) free of phthalate; and (b) comprises at least a first extractable agent and a second extractable agent, wherein each of said at least first and second extractable agents is effective in suppressing hemolysis in red blood cells, wherein the first extractable agent is n-butyryltri-n-hexyl citrate (BTHC) and the second extractable agent is 1,2-cyclohexane dicarboxylic acid diisononyl ester (DINCH), and wherein the polymer material comprises 60-70%, by weight, PVC resin, 5-15% BTHC, 4-10% epoxidized oil and 15-30% DINCH, with 0.5-3.0% of additional co-stabilizers and lubricants. one or more container walls defining an interior chamber, said container wall(s) comprising a polymeric material that is: (a) free of phthalate; and (b) comprises at least a first extractable agent and a second extractable agent, (a) free of phthalate; and (b) comprises at least a first extractable agent and a second extractable agent, wherein each of said at least first and second extractable agents is effective in suppressing hemolysis in red blood cells, wherein the first extractable agent is n-butyryltri-n-hexyl citrate (BTHC) and the second extractable agent is 1,2-cyclohexane dicarboxylic acid diisononyl ester (DINCH), and wherein the polymer material comprises 60-70%, by weight, PVC resin, 5-15% BTHC, 4-10% epoxidized oil and 15-30% DINCH, with 0.5-3.0% of additional co-stabilizers and lubricants.
A clamp tool for use in a system comprising a clamp tool and at least one sleeve, comprising - an inner body having a center axis and - an outer body having a center axis, which is coaxial relative to the center axis of the inner body, wherein the inner body and the outer body are connected in a firm and pressure-tight manner to one another in the region of their end faces while forming tension elements (24, 24'), and a means is provided for applying pressure to the area of the outer body directed toward its center axis, characterized in that in the region between the tension elements (24, 24') the outer body includes a material having a modulus of elasticity lower than that of the rest of the material of the outer body. - an inner body having a center axis and - an outer body having a center axis, which is coaxial relative to the center axis of the inner body,
A glycoconjugate comprising a saccharide covalently conjugated to a carrier protein through a spacer containing ((2-oxoethyl)thio) having the general formula: wherein: A is a group (C=X)m wherein X is S or O and m is 0 or 1; B is a bond, O, or CH 2; and when m is 0, B can also be (C=O); R is selected from the groups consisting of (CH 2) 2, (CH 2) 3, (CH 2) 4, (CH 2) 5, (CH 2) 6, (CH 2) 7, (CH 2) 8, (CH 2) 9 or (CH 2) 10; or R is selected from the groups consisting of O-CH 2, O-CH 2 -CH 2, CH 2 -CH 2 -O-CH 2 -CH 2, O-CH 2 -CH 2 -O-CH 2 -CH 2, O-CH 2 -CH 2 -O-CH 2 -CH 2 -O-CH 2 -CH 2, O-CH 2 -CH 2 -(N-CH 3)-CH 2 -CH 2 -O-CH 2 -CH 2, CH 2 -CH 2 -(N-CH 3)-CH 2 -CH 2 and CH 2 -CH 2 -S-CH 2 -CH 2; with the provisio that said spacer is not the (2-((2-oxoethyl)thio)ethyl)carbamate (eTEC) spacer. A is a group (C=X)m wherein X is S or O and m is 0 or 1; B is a bond, O, or CH 2; and when m is 0, B can also be (C=O); R is selected from the groups consisting of (CH 2) 2, (CH 2) 3, (CH 2) 4, (CH 2) 5, (CH 2) 6, (CH 2) 7, (CH 2) 8, (CH 2) 9 or (CH 2) 10; or R is selected from the groups consisting of O-CH 2, O-CH 2 -CH 2, CH 2 -CH 2 -O-CH 2 -CH 2, O-CH 2 -CH 2 -O-CH 2 -CH 2, O-CH 2 -CH 2 -O-CH 2 -CH 2 -O-CH 2 -CH 2, O-CH 2 -CH 2 -(N-CH 3)-CH 2 -CH 2 -O-CH 2 -CH 2, CH 2 -CH 2 -(N-CH 3)-CH 2 -CH 2 and CH 2 -CH 2 -S-CH 2 -CH 2;
A liquid crystal alignment agent composition comprising: a polymerizable liquid crystal alignment polymer; and a catalyst precursor compound represented by Chemical Formula 1: in the Chemical Formula 1, R a is a CI-10 alkyl group, a CI-10 alkoxy group, a C6-20 aryl group, a C6-20 arylcarbonyl group, or a C6-20 aryloxy group, R b and R c are each independently, hydrogen, a C1-10 alkyl group, a C1-10 alkoxy group, a C3-20 cycloalkyl group, or a C6-30 aryl group, R d is a C2-10 alkyl group, a C2-30 arylalkyl group, a C2-30 cycloalkylalkyl group, or a C2-10 alkoxyalkyl group, each group being substituted with at least one hydroxyl group(-OH). a polymerizable liquid crystal alignment polymer; and a catalyst precursor compound represented by Chemical Formula 1: R a is a CI-10 alkyl group, a CI-10 alkoxy group, a C6-20 aryl group, a C6-20 arylcarbonyl group, or a C6-20 aryloxy group, R b and R c are each independently, hydrogen, a C1-10 alkyl group, a C1-10 alkoxy group, a C3-20 cycloalkyl group, or a C6-30 aryl group, R d is a C2-10 alkyl group, a C2-30 arylalkyl group, a C2-30 cycloalkylalkyl group, or a C2-10 alkoxyalkyl group, each group being substituted with at least one hydroxyl group(-OH).
A computer-implemented user interface method for outputting an identification of stimulation settings of a leadwire implanted in, and configured to electrically stimulate tissue of, a patient, the method comprising: determining, by a computer processor, an angle between a direction of an electrical tissue stimulation according to a first stimulation parameter set and a predefined direction; converting, by the processor, a value of an electrical amplitude of the stimulation according to the first stimulation parameter set to a radius value; and displaying, by the processor and in a display device, a single ray whose length corresponds to the radius value and whose directionality corresponds to the determined angle. determining, by a computer processor, an angle between a direction of an electrical tissue stimulation according to a first stimulation parameter set and a predefined direction; converting, by the processor, a value of an electrical amplitude of the stimulation according to the first stimulation parameter set to a radius value; and displaying, by the processor and in a display device, a single ray whose length
A pressure filter, comprising a cylindrical shell provided with a feeding port and a discharge port, and a rotary drum inside the shell, characterized by a device for reducing pressure fluctuation in the pressure filter, said device comprising a buffer plate provided on an inner wall of the shell over at least a feeding zone of the pressure filter, wherein the feeding port of the shell is located at the feeding zone, a plurality of openings for inputting slurry being provided in the buffer plate, and a plurality of supporting posts disposed within a gap between the buffer plate and the inner wall of the shell, the plurality of supporting posts fixedly connecting the inner wall of the shell with the buffer plate, wherein the plurality of openings of the buffer plate are configured such that, when the pressure filter operates, the slurry before reaching the shell of the frame firstly enters into the gap between the buffer plate and the inner wall of the shell through said openings in the buffer plate. a buffer plate provided on an inner wall of the shell over at least a feeding zone of the pressure filter, wherein the feeding port of the shell is located at the feeding zone, a plurality of openings for inputting slurry being provided in the buffer plate, and a plurality of supporting posts disposed within a gap between the buffer plate and the inner wall of the shell, the plurality of supporting posts fixedly connecting the inner wall of the shell with the buffer plate, wherein the plurality of openings of the buffer plate are configured such that, when the pressure filter operates, the slurry before reaching the shell of the frame firstly enters into the gap between the buffer plate and the inner wall of the shell through said openings in the buffer plate.
Method for operating a motorcycle, wherein an environment of the motorcycle is detected and free areas in the environment that are usable by the motorcycle are identified, wherein a change in the free areas and a trajectory of the motorcycle are predicted and evaluated for conflicts, characterized in that, in the event of a conflict, a conflict-free alternative trajectory for the motorcycle is ascertained and communicated to a rider of the motorcycle.
A flexible container carrier for unitizing a plurality of containers comprising: a plurality of flexible bands that form two longitudinal rows of container receiving apertures, wherein the flexible bands in a center of the carrier are wider than the flexible bands along outer edges of the carrier; two center apertures formed between the two longitudinal rows of container receiving apertures; a set of perforations formed on each side of each center aperture; and a handle formed along each longitudinal edge of the array of container receiving apertures; characterized in that each center aperture is asymmetric relative to a transverse axis of the carrier; and in that the flexible container further comprises a notch positioned at each distal end of each center aperture, the notch generally longitudinally aligned with each set of perforations. a plurality of flexible bands that form two longitudinal rows of container receiving apertures, wherein the flexible bands in a center of the carrier are wider than the flexible bands along outer edges of the carrier; two center apertures formed between the two longitudinal rows of container receiving apertures; a set of perforations formed on each side of each center aperture; and a handle formed along each longitudinal edge of the array of container receiving apertures;
A computer implemented method of controlling a thermal cycler for use in Polymerase Chain Reaction comprising; determining a current temperature ramp rate for a sample being processed in a thermal block; characterised in that the method further comprises: predicting an expected time interval for the sample to reach a target setpoint temperature based upon the current temperature ramp rate for the sample; operating the thermal block at a target block ramp rate according to the predicted time interval for the sample to reach the target setpoint temperature; repeating determination of the current temperature ramp rate for the sample as the thermal protocol for PCR is performed in real-time; determining whether the predicted time interval for sample to reach target setpoint temperature has changed based on the current temperature ramp rate; and modifying the predicted time interval and the target block ramp rate to ensure target block and sample both reach target setpoint temperature at approximately same time. predicting an expected time interval for the sample to reach a target setpoint temperature based upon the current temperature ramp rate for the sample; operating the thermal block at a target block ramp rate according to the predicted time interval for the sample to reach the target setpoint temperature; repeating determination of the current temperature ramp rate for the sample as the thermal protocol for PCR is performed in real-time; determining whether the predicted time interval for sample to reach target setpoint temperature has changed based on the current temperature ramp rate; and modifying the predicted time interval and the target block ramp rate to ensure target block and sample both reach target setpoint temperature at approximately same time.
A pneumatic actuator comprising: a diaphragm plate; a yoke housing; and a tube (305, 405) to convey pressurized fluid between the yoke housing and the diaphragm plate; characterized in that; a first end (342, 426) of the tube extends through a first seal gland (324, 440) in the diaphragm plate to form a seal against an outer surface of the tube and a second end (346, 430) of the tube extends through a second seal gland (334, 444) in the yoke housing to form a seal against the outer surface of the tube, and wherein the first end of the tube has a first cross-sectional area that is greater than a second cross-sectional area of the second end of the tube to bias the tube toward the yoke housing during operation of the pneumatic actuator. a diaphragm plate; a yoke housing; and a tube (305, 405) to convey pressurized fluid between the yoke housing and the diaphragm plate; characterized in that; a first end (342, 426) of the tube extends through a first seal gland (324, 440) in the diaphragm plate to form a seal against an outer surface of the tube and a second end (346, 430) of the tube extends through a second seal gland (334, 444) in the yoke housing to form a seal against the outer surface of the tube, and wherein the first end of the tube has a first cross-sectional area that is greater than a second cross-sectional area of the second end of the tube to bias the tube toward the yoke housing during operation of the pneumatic actuator.