mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for excavating and transporting away materials with two impeller wheels (12, 14) which can be rotated about an axis of rotation (y) in a direction of rotation (u) and which have a conically extending guide surface arranged about the axis of rotation (y) in a rotationally symmetrical manner and with guide vanes which project radially from the conical guide surface, wherein the projection of the guide vanes in radial direction forms an acute angle with respect to the axis of rotation (y), and with a longitudinal conveyor for transporting away excavated material that is arranged between the impeller wheels, wherein the conically extending guide surface of the impeller wheel (12, 14) has its narrowed end adjoining a conveyor belt and forms a run-off surface for excavated material, characterized in that the guide vanes are bounded by two lateral edges (24, 26) which are parallel to one another, and the width of the guide vanes corresponds substantially to the width of the conically extending guide surface and in that inner lateral edge of the guide vanes adjoins a fixed guide plate, at least in a region below the conveyor belt
A multi-well-based cell culture test device having an array structure of a plurality of aligned well units (110, 210, 310), each of which comprises a first sub-well (120, 220, 320, 420, 520) adapted to accommodate a first fluid, a second sub-well (130, 230, 330, 430) adapted to accommodate a second fluid, and a barrier (140, 440) located between the first sub-well (120, 220, 320, 420, 520) and the second sub-well (130, 230, 330, 430) to partition the first sub-well (120, 220, 320, 420, 520) and the second sub-well (130, 230, 330, 430), wherein the first sub-well (120, 220, 320, 420, 520) has a recess (121, 221, 321, 421) in the depth direction with respect to its bottom to accommodate a solid thin film formed by solidifying the first fluid and the barrier (140, 440) has such a height that the first fluid does not overflow into the second sub-well (130, 230, 330, 430) when the first fluid is loaded into the first sub-well (120, 220, 320, 420, 520) to fill the recess (121, 221, 321, 421).
Shed forming device for a weaving machine, comprising an at least partially enclosed working space in which a series of shed forming systems having selection means for the positioning of warp threads are provided, and ventilation means to create an air flow in the working space, characterized in that the ventilation means interact with regulating means (8, 9, 10) for automatically regulating the air flow rate as a function of at least one of the following measured parameters, - the flow rate of the said air flow - the velocity of the said air flow, - the air pressure in the working space. - the flow rate of the said air flow - the velocity of the said air flow, - the air pressure in the working space.
A urinary incontinence device comprising: a support (100,1100,1200) having a first end and a second end (102,104); a hanger attached to the first end, the hanger comprising a segment that is curved and so configured to hang over a surface of a pubic bone; an interconnecting member (110,129) attached to the second end; and an anchor movably engaged with the interconnecting member (110,129), the anchor implantable into tissue of an obturator foramen of a patient; wherein the interconnecting member (110.129) is movable relative to the implanted anchor to adjust an elevation of the support relative to a urethra of the patient characterized in that said segment is curved to correspond to a curvature of the pubic ramus bone of the pelvis. a support (100,1100,1200) having a first end and a second end (102,104); a hanger attached to the first end, the hanger comprising a segment that is curved and so configured to hang over a surface of a pubic bone; an interconnecting member (110,129) attached to the second end; and an anchor movably engaged with the interconnecting member (110,129), the anchor implantable into tissue of an obturator foramen of a patient; wherein the interconnecting member (110.129) is movable relative to the implanted anchor to adjust an elevation of the support relative to a urethra of the patient characterized in that said segment is curved to correspond to a curvature of the pubic ramus bone of the pelvis.
A support structure, comprising: a three-dimensional, cross-linked wire truss structure comprising a plurality of thermoplastic wire segments (431a, 431b, 431c) bonded together, wherein the plurality of thermoplastic wire segments (431a, 431b, 431c) comprises: a first wire segment of thermoplastic material, the first wire segment having a first saw tooth pattern; a second wire segment of thermoplastic material positioned over and adhered to the first wire segment, the second wire segment having a second saw tooth pattern offset from the first saw tooth pattern; a third wire segment of thermoplastic material positioned over the second wire segment, the third wire segment having the first saw tooth pattern, the third wire segment aligned with and adhered to the first wire segment and offset from the second wire segment. a first wire segment of thermoplastic material, the first wire segment having a first saw tooth pattern; a second wire segment of thermoplastic material positioned over and adhered to the first wire segment, the second wire segment having a second saw tooth pattern offset from the first saw tooth pattern; a third wire segment of thermoplastic material positioned over the second wire segment, the third wire segment having the first saw tooth pattern, the third wire segment aligned with and adhered to the first wire segment and offset from the second wire segment.
Human DNAse selected from the group consisting of human DNAsel, human Dnase-1-like 3, human Dnase-1-like 2, or human Dnase-1-like 1 for use in a method of treating or preventing tissue adhesion in a subject, wherein said method does not involve the administration of plasmin.
A reinforcing material for rubber comprising amorphous aluminosilicate particles having a composition of the following Chemical Formula 1, wherein the aluminosilicate particles satisfy the following conditions: in a data plot obtained by X-ray diffraction, a full width at half maximum (FWHM) in a 2θ range of 20° to 37° is 3° to 8.5°, and a maximum peak intensity (I max) is in a 2θ range of 26° to 31°, an average primary particle diameter is 10 to 100 nm, a Brunauer-Emmett-Teller surface area (S BET) is 80 to 250 m 2 /g, an external specific surface area (S EXT) is 60 to 200 m 2 /g according to an analysis of nitrogen adsorption/desorption, and a volume of micropores (V micro) having a pore size of less than 2 nm calculated from the S BET by a t-plot method is less than 0.05 cm 3 /g, [Chemical Formula 1] M a N b [(AlO 2) x, (SiO 2) y]·m(H 2 O) wherein, in Chemical Formula 1, M is an element selected from the group consisting of Li, Na, K, Rb, Cs, Be, and Fr, or an ion thereof; N is a NH 4 + ion; 0<a<1, 0<b<1,x>0,y>0, and m ≥ 0; and 1.0 ≤ y/x ≤ 5.0. in a data plot obtained by X-ray diffraction, a full width at half maximum (FWHM) in a 2θ range of 20° to 37° is 3° to 8.5°, and a maximum peak intensity (I max) is in a 2θ range of 26° to 31°, an average primary particle diameter is 10 to 100 nm, a Brunauer-Emmett-Teller surface area (S BET) is 80 to 250 m 2 /g, an external specific surface area (S EXT) is 60 to 200 m 2 /g according to an analysis of nitrogen adsorption/desorption, and a volume of micropores (V micro) having a pore size of less than 2 nm calculated from the S BET by a t-plot method is less than 0.05 cm 3 /g, [Chemical Formula 1] M a N b [(AlO 2) x, (SiO 2) y]·m(H 2 O) wherein, in Chemical Formula 1, M is an element selected from the group consisting of Li, Na, K, Rb, Cs, Be, and Fr, or an ion thereof; N is a NH 4 + ion; 0<a<1, 0<b<1,x>0,y>0, and m ≥ 0; and 1.0 ≤ y/x ≤ 5.0. M is an element selected from the group consisting of Li, Na, K, Rb, Cs, Be, and Fr, or an ion thereof; N is a NH 4 + ion; 0<a<1, 0<b<1,x>0,y>0, and m ≥ 0; and 1.0 ≤ y/x ≤ 5.0.
A method for producing fine silver particles, the method comprising the steps of: (i) making a reduction fluid containing water, ammonia water, hexanoic acid, and an aqueous fluid of hydrazine hydrate; (ii) adding aqueous silver nitrate fluid into the reduction fluid; and (iii) recovering the product of step (ii) and washing the product with water. (i) making a reduction fluid containing water, ammonia water, hexanoic acid, and an aqueous fluid of hydrazine hydrate; (ii) adding aqueous silver nitrate fluid into the reduction fluid; and (iii) recovering the product of step (ii) and washing the product with water.
A method of operating a wind turbine, wherein the wind turbine comprises a rotor with at least one rotor blade which can be adjusted in its blade pitch angle (ß), a generator connected to the rotor for generating electric power and at least one measuring device for capturing an actual value of a variable which is representative for a rotational speed of the generator, wherein a desired value for a generator torque (M G) is preset depending on a rotational speed (n) and the desired value for the generator torque (M G) is corrected depending on a parameter for an air density (ρ), with the following procedural steps: • capturing an actual value of a variable which is representative for a rotational speed of the generator (n G) • setting a desired value for the generator torque (M G) depending on the actual value of the variable which is representative for the rotational speed of the generator (n G), and correcting the desired value for the generator torque (M G) depending on a parameter for the air density (ρ) • capturing a value for the blade pitch angle (ß) and • increasing the desired value for the generator torque (M G) which was corrected depending on the air density if the captured value for the blade pitch angle (ß) exceeds a preset minimum value (ß min), wherein an additional generator torque (ΔM G) is identified in such a manner that an additional power (ΔP) or an additional generator torque (ΔM G) of the wind turbine depends on the captured or averaged value for the blade pitch angle (ß), and the desired value for the generator torque (M G) which was corrected depending on the air density, is increased by the additional generator torque (ΔM G). • capturing an actual value of a variable which is representative for a rotational speed of the generator (n G) • setting a desired value for the generator torque (M G) depending on the actual value of the variable which is representative for the rotational speed of the generator (n G), and correcting the desired value for the generator torque (M G) depending on a parameter for the air density (ρ) • capturing a value for the blade pitch angle (ß) and • increasing the desired value for the generator torque (M G) which was corrected depending on the air density if the captured value for the blade pitch angle (ß) exceeds a preset minimum value (ß min), wherein an additional generator torque (ΔM G) is identified in such a manner that an additional power (ΔP) or an additional generator torque (ΔM G) of the wind turbine depends on the captured or averaged value for the blade pitch angle (ß), and the desired value for the generator torque (M G) which was corrected depending on the air density, is increased by the additional generator torque (ΔM G).
A method, comprising: generating a sine wave that is synchronized with an alternating current, AC, power input from an AC power line and of an equivalent amplitude to the AC power input; comparing the AC power input to the generated sine wave to detect when an instantaneous voltage level of the AC power input is different from a corresponding voltage level on the generated sine wave; upon determining that the instantaneous voltage level of the AC power input is different from the corresponding value on the generated sine wave, applying a momentary load to the AC power line; determining that a difference between a voltage of the AC power line before application of the momentary load and a voltage of the AC power line after application of the momentary load is greater than a specified amount; and at least in part in response to determining that the difference between the voltage of the AC power line before application of the momentary load and the voltage of the AC power line after application of the momentary load is greater than a specified amount, determining that the AC power line has lost power. generating a sine wave that is synchronized with an alternating current, AC, power input from an AC power line and of an equivalent amplitude to the AC power input; comparing the AC power input to the generated sine wave to detect when an instantaneous voltage level of the AC power input is different from a corresponding voltage level on the generated sine wave; upon determining that the instantaneous voltage level of the AC power input is different from the corresponding value on the generated sine wave, applying a momentary load to the AC power line; determining that a difference between a voltage of the AC power line before application of the momentary load and a voltage of the AC power line after application of the momentary load is greater than a specified amount; and at least in part in response to determining that the difference between the voltage of the AC power line before application of the momentary load and the voltage of the AC power line after application of the momentary load is greater than a specified amount, determining that the AC power line has lost power.
Method for sensing a vehicle environment, a sensor (2a, 2b, 2c, 2d, 3, 24, 25) sensing an environment of the vehicle, and an object being detected in the sensed environment, characterized in that an ultrasonic system is actuated on the basis of the detected object in order to sense the detected object, the environment sensed by the sensor (2a, 2b, 2c, 2d, 3, 24, 25) being laterally segmented into regions (11a, 11b, 11c, 11d) which are assigned to one ultrasonic sensor (2a, 2b, 2c, 2d) and/or to a plurality of ultrasonic sensors (2a, 2b, 2c, 2d), the regions in which the object is situated being allocated to the detected object, and those ultrasonic sensors (2a, 2b, 2c, 2d) which correspond to the regions being actuated.
Sheathing (10; 35) having a longitudinal direction and a transverse direction for restoring the function of venous valves of varicose veins in the form of a planar, flexible piece of material, wherein the piece of material includes a nonwoven material, characterized in that the piece of material has shank-like projections (16; 38), has an approximately rectangular shape and has on one narrow side a U-shaped cutout with the width thereof being adapted to the diameter of the vein to be enveloped, and the nonwoven material is in the form of a film, wherein the film is a cast film or a sprayed film.
Thermoplastic polymer material comprising PEEK including radiopaque particles selected from the group comprising BaZrO 3, YbF 3, Yb 2 O 3, SrO, SrZrO 3, SiO 2 -ZrO 2, SiO 2 -Yb 2 O 3, Lu 2 O 3, LuF 3.
An antenna adaptor intended to be placed between an antenna and a receiving channel, and including: - a first conductive wire crossed by an external current (i ext) corresponding to a signal delivered at the output of the antenna, the first conductive wire generating in its vicinity an external magnetic field (B ext); - a magnetometric sensor placed in the vicinity of the first conductive wire, sensitive to a flux of the external magnetic field and able to generate an output signal corresponding to the external current, characterized in that the magnetometric sensor includes: - a magnetometer having an active surface and generating a response signal (V(φ)) when it is immersed in a magnetic field generating a magnetic flux (φ) through the active surface; - a control circuit, taking as an input the response signal of the magnetometer and generating at the output a feedback current (i CR); and, - a second conductive wire positioned in the vicinity of the magnetometer and connected at the output of the control circuit, the second conductive wire being crossed by the feedback current, the control circuit and the second conductive wire being such that a feedback magnetic field is generated, the flux of which through the active surface of the magnetometer substantially compensates, at each instant, for the flux of the external magnetic field, the output signal of the antenna adaptor corresponding to the feedback current, the first and second wires (806, 816) being located in a plane of the surface of the magnetometer. - a first conductive wire crossed by an external current (i ext) corresponding to a signal delivered at the output of the antenna, the first conductive wire generating in its vicinity an external magnetic field (B ext); - a magnetometric sensor placed in the vicinity of the first conductive wire, sensitive to a flux of the external magnetic field and able to generate an output signal corresponding to the external current, - a magnetometer having an active surface and generating a response signal (V(φ)) when it is immersed in a magnetic field generating a magnetic flux (φ) through the active surface; - a control circuit, taking as an input the response signal of the magnetometer and generating at the output a feedback current (i CR); and, - a second conductive wire positioned in the vicinity of the magnetometer and connected at the output of the control circuit, the second conductive wire being crossed by the feedback current,
A positive electrode for an all-solid secondary battery, the positive electrode comprising a positive active material and a sulfide-based solid electrolyte, wherein: the positive active material has a structure containing a core and a shell, the shell comprises a first nickel-based active material containing cobalt (Co), a coating layer, on a surface of the positive active material, comprising at least one lithium ion conductor selected from a lanthanum oxide and a lithium lanthanum oxide, and an amount of the lithium ion conductor is in a range of about 0.1 parts to about 10 parts by weight based on 100 parts by weight of the total weight of the positive active material and the lithium ion conductor. the positive electrode comprising a positive active material and a sulfide-based solid electrolyte, wherein: the positive active material has a structure containing a core and a shell, the shell comprises a first nickel-based active material containing cobalt (Co), a coating layer, on a surface of the positive active material, comprising at least one lithium ion conductor selected from a lanthanum oxide and a lithium lanthanum oxide, and an amount of the lithium ion conductor is in a range of about 0.1 parts to about 10 parts by weight based on 100 parts by weight of the total weight of the positive active material and the lithium ion conductor. the positive active material has a structure containing a core and a shell, the shell comprises a first nickel-based active material containing cobalt (Co), a coating layer, on a surface of the positive active material, comprising at least one lithium ion conductor selected from a lanthanum oxide and a lithium lanthanum oxide, and an amount of the lithium ion conductor is in a range of about 0.1 parts to about 10 parts by weight based on 100 parts by weight of the total weight of the positive active material and the lithium ion conductor.
An electroless copper plating composition comprising: one or more sources of copper ions; one or more carboxymethyl-thio compounds having a formula: wherein R is a moiety selected from the group consisting of pyridinyl and dicarboxyethyl; one or more complexing agents; one or more reducing agents; and, optionally, one or more pH adjusting agents, wherein a pH of the electroless copper plating composition is greater than 7. one or more sources of copper ions; one or more carboxymethyl-thio compounds having a formula: wherein R is a moiety selected from the group consisting of pyridinyl and dicarboxyethyl; one or more complexing agents; one or more reducing agents; and, optionally, one or more pH adjusting agents, wherein a pH of the electroless copper plating composition is greater than 7.
A method for controlling an intelligent robot, comprising: obtaining, by an intelligent robot, a first position at which the intelligent robot is presently located and a target position to be reached by the intelligent robot; determining, by the intelligent robot, a movement path from the first position to the target position, wherein the movement path comprises a particular roadblock; and transmitting, by the intelligent robot, a removal request when the intelligent robot has moved from the first position to a second position and when a distance between the second position and a third position at which the particular roadblock is located and that is to be reached reaches a target distance, wherein the removal request is used for requesting a removal instruction to be transmitted to the particular roadblock at the third position, and the removal instruction is used for instructing to remove the particular roadblock at the third position before the intelligent robot arrives, characterized in that the method further comprises: before transmitting, by the intelligent robot, the removal request, obtaining, by the intelligent robot, a control removal time matching the particular roadblock at the third position, wherein the control removal time comprises a time for removing the particular roadblock at the third position before the intelligent robot arrives; and determining, by the intelligent robot, the target distance according to the control removal time. obtaining, by an intelligent robot, a first position at which the intelligent robot is presently located and a target position to be reached by the intelligent robot; determining, by the intelligent robot, a movement path from the first position to the target position, wherein the movement path comprises a particular roadblock; and transmitting, by the intelligent robot, a removal request when the intelligent robot has moved from the first position to a second position and when a distance between the second position and a third position at which the particular roadblock is located and that is to be reached reaches a target distance, wherein the removal request is used for requesting a removal instruction to be transmitted to the particular roadblock at the third position, and the removal instruction is used for instructing to remove the particular roadblock at the third position before the intelligent robot arrives, characterized in that the method further comprises: before transmitting, by the intelligent robot, the removal request, obtaining, by the intelligent robot, a control removal time matching the particular roadblock at the third position, wherein the control removal time comprises a time for removing the particular roadblock at the third position before the intelligent robot arrives; and determining, by the intelligent robot, the target distance according to the control removal time.