mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: contacting a semiconductor substrate containing a Co feature with an etching composition to remove at least a portion of the Co feature, wherein the etching composition comprises: 1) a compound of formula: R 1 -O-N-R 2 R 3, in which each of R 1, R 2, and R 3, independently, is H or C 1 -C 6 alkyl; 2) at least one unsaturated C 3 -C 12 carboxylic acid; 3) at least one leveling agent comprising a sulfur-containing polymer or a nitrogen-containing polymer; and 4) water. contacting a semiconductor substrate containing a Co feature with an etching composition to remove at least a portion of the Co feature, wherein the etching composition comprises: 1) a compound of formula: R 1 -O-N-R 2 R 3, in which each of R 1, R 2, and R 3, independently, is H or C 1 -C 6 alkyl; 2) at least one unsaturated C 3 -C 12 carboxylic acid; 3) at least one leveling agent comprising a sulfur-containing polymer or a nitrogen-containing polymer; and 4) water. 1) a compound of formula: R 1 -O-N-R 2 R 3, in which each of R 1, R 2, and R 3, independently, is H or C 1 -C 6 alkyl; 2) at least one unsaturated C 3 -C 12 carboxylic acid; 3) at least one leveling agent comprising a sulfur-containing polymer or a nitrogen-containing polymer; and 4) water.
Braid holder for stabilizing a hair braid, comprising an endless helix of at least one basic body, wherein the endless helix is composed of a plurality of turns, wherein the basic body, on an inner side of the turns, is coated with at least one strip of at least one rubber lining.
A method for executing call branch and return branch instructions in a processor, the method comprising: setting a counter to an initial value each time the processor decodes any instruction, other than a call branch instruction, that writes to a link register; pushing an address of a next instruction onto a link register stack and incrementing the counter by a constant in response to the processor decoding a call branch instruction; and decrementing the counter by the constant in response to the processor decoding a return branch instruction; and in response to a conjunction of the processor decoding the return branch instruction and the counter being not equal to the initial value, popping from the link register stack a target address for the return branch instruction, and completing execution of the return branch instruction without checking the target address for correctness. setting a counter to an initial value each time the processor decodes any instruction, other than a call branch instruction, that writes to a link register; pushing an address of a next instruction onto a link register stack and incrementing the counter by a constant in response to the processor decoding a call branch instruction; and decrementing the counter by the constant in response to the processor decoding a return branch instruction; and in response to a conjunction of the processor decoding the return branch instruction and the counter being not equal to the initial value, popping from the link register stack a target address for the return branch instruction, and completing execution of the return branch instruction without checking the target address for correctness. popping from the link register stack a target address for the return branch instruction, and completing execution of the return branch instruction without checking the target address for correctness.
A kit comprising: (a) a Toxoplasma gondii-derived antigen composition selected from the group consisting of: a. isolated and purified SEQ ID NO: 2, b. a fusion protein comprising MIC1 fused to a moiety that enhances or facilitates purification, recombinant production, or immune cell stimulation, and c. combinations thereof; and (b) an applicator device comprising a patch and/or a needle and/or a prong and wherein the applicator device is configured for administration of the Toxoplasma gondii -derived antigen percutaneously, by puncturing skin of a subject. (a) a Toxoplasma gondii-derived antigen composition selected from the group consisting of: a. isolated and purified SEQ ID NO: 2, b. a fusion protein comprising MIC1 fused to a moiety that enhances or facilitates purification, recombinant production, or immune cell stimulation, and c. combinations thereof; and a. isolated and purified SEQ ID NO: 2, b. a fusion protein comprising MIC1 fused to a moiety that enhances or facilitates purification, recombinant production, or immune cell stimulation, and c. combinations thereof; and (b) an applicator device comprising a patch and/or a needle and/or a prong and wherein the applicator device is configured for administration of the Toxoplasma gondii -derived antigen percutaneously, by puncturing skin of a subject.
A sealing apparatus for a cryopreservation bag, the apparatus comprising: a bag clamping device for pinching and fixing a sealed portion of the cryopreservation bag; a laser device for radiating an infrared laser beam toward the sealed portion pinched and fixed by the bag clamping device; a scanning structure for moving the bag clamping device; and a frame for supporting the respective members (56 to 58), wherein the bag clamping device includes a fixed pinching block supported by a scanning base fixed to the frame, a movable pinching block supported by a guide shaft provided to the fixed pinching block to be able to come in contact with and move away from the fixed pinching block, and a clamp actuator for bringing the movable pinching block into contact with and moving the movable pinching block away from the fixed pinching block, the laser device includes a laser oscillator and a condensing lens for condensing the infrared laser beam radiated from the laser oscillator toward the sealed portion of the cryopreservation bag, the fixed pinching block includes a block base in which a radiation window for the infrared laser beam is open, a heat radiator made of solid material configured to pass through the infrared laser, and a heat radiator holder mounted to the block base to support the heat radiator so that the heat radiator faces the radiation window, and the infrared laser beam is configured to be radiated to the sealed portion of the cryopreservation bag, to form a seal bead crossing an inlet/outlet at the sealed portion in a state in which the sealed portion is pinched and fixed by the heat radiator, the heat radiator holder, and the movable pinching block and while the bag clamping device is moved by the scanning structure, wherein the heat radiator is configured to absorb and diffuse welding heat which has been generated when forming the seal bead and has reached to a back surface of the sealed portion and the movable pinching block is configured to absorb and diffuse the welding heat which has reached a front surface of the sealed portion.
A drive axle for a vehicle, in particular for an agricultural harvester, with integrated manual transmission which can be shifted into a plurality of gear stages (N, G 1, G n) by means of at least one movable control element (3, 4) and a sensor arrangement for detecting the engaged gear stage (N, G 1, G n), characterised in that the sensor arrangement has a rotary angle encoder which is kinematically coupled to the at least one control element (3, 4) by way of mechanical guide means (7, 8, 9, 21) in order in dependence on the position of the at least one control element (3, 4) to generate an angle signal which indicates the engaged gear stage (N, G 1, G n) of the manual transmission, wherein the mechanical guide means (7, 8, 21) include a cam disc associated with the rotary angle encoder and mounted rotatably about an axis of rotation as well as an engagement element (7, 21) arranged at the control element (3, 4), wherein the engagement element (7, 21) and the cam disc are so designed and arranged relative to each other that displacement of the control element (3, 4) causes rotation of the cam disc by mutual contact of the engagement element (7, 21) and the cam disc, wherein provided on the cam disc is a guide track forming a contact region between the cam disc and the engagement element (7, 21).
Composition for masterbatch obtaining based on PMMA, polyester modified polysiloxane and reinforcing nanofiller, characterized in that it is composed by the following components, expressed in gravimetric percent: a) 60 %... 80 % PMMA characterized by a melt flow index of 3.0-5.0 g/10 min (230 °C/5 kg), as determined according to ISO 1133, a tensile modulus of 3100-3500 MPa, as determined according to ISO 527 and a gloss higher than 79 UB at 20°, as determined according to ASTM 523, b) 20 %... 40 % mixture, either in 1:1 ratio of polyester modified polysiloxane and a hydrophobic nanosilica treated at surface with a silazane or a modified silane, or in 2:1 ratio of polyester modified polysiloxane and silicate nanotube, organophylized with a quaternary ammonium salt or treated at surface with a fatty acid amide and c) 0.3 %, with respect to PMMA, sterically hindered phenolic antioxidant.
A molten glass producing apparatus comprising a melting tank for melting a glass material, a vacuum degassing apparatus having an inner part maintained in a subatmospheric pressure so that bubbles in molten glass supplied from the melting tank are removed by raising and breaking them, a first conduit structure connecting the melting tank to the vacuum degassing apparatus, and a second conduit structure disposed at a downstream side of the vacuum degassing apparatus to introduce the molten glass to a forming means, the molten glass producing apparatus being characterized in that the melting tank is provided with a separating means for separating the area for circulating the molten glass in the melting tank into an upstream circulation flow and a downstream circulation flow, the distance from the separating means to the downstream end of the molten glass flow path in the melting tank is from 0.1 L F to 0.45 L F where L F represents the length of the molten glass flow path in the melting tank, a wide portion (31,32) is formed in the first conduit structure at a upstream side in the flowing direction of molten glass, the width of the wide portion (31,32) being larger than another area of the first conduit structure, the wide portion (31,32) is provided with means for preventing the molten glass from back-flowing in the wide portion (31,32), the means for preventing the molten glass from back-flowing is a means for cooling the molten glass passing through the wide portion (31,32) and is disposed in the wide portion (31,32), said cooling means being inserted into molten glass so as to be immersed therein, and wherein the wide portion (31,32) satisfies the following formulae and: 0.2 ≦ W / L ≦ 1.5 500 ≦ h ≦ 5000 wherein in the formulae and, W represents the largest width(mm) of the molten glass flow path, h represents the height (mm) of the molten glass flow path in the portion in which a width of the molten glass flow path takes the largest width W, and L represents the length (mm) of the portion where a width of the molten glass flow path in the wide portions (31,32) takes the largest width W.
A mobile communication method used in a case where a first radio link has been set in a radio base station interface (Uu) between a first mobile station (UE#1) and a radio base station (eNB), a second radio link has been set in a radio base station interface (Uu) between a second mobile station (UE#2) and the radio base station (eNB), and a third radio link has been set in an inter-mobile station interface (Ud) between the first mobile station (UE#1) and the second mobile station (UE#2), comprising: a step of transmitting, by the first mobile station (UE#1), a data signal to the second mobile station (UE#2) via the third radio link; a step of transmitting, by the second mobile station (UE#2), timing information indicating a time, for which the reception timing of the data signal has been deviated from a desired timing, to the radio base station (eNB) via the second radio link when it is detected that the reception timing of the data signal has been deviated from the desired timing by a predetermined time or more; a step of transmitting, by the radio base station (eNB), adjustment information for adjusting a transmission timing of a data signal in the third radio link to the first mobile station (UE#1) via the first radio link on the basis of the received timing information; and a step of determining, by the first mobile station (UE#1), that the third radio link is in a non-synchronization state when a timer for the third radio link to be reset by reception of the adjustment information is expired. a step of transmitting, by the first mobile station (UE#1), a data signal to the second mobile station (UE#2) via the third radio link; a step of transmitting, by the second mobile station (UE#2), timing information indicating a time, for which the reception timing of the data signal has been deviated from a desired timing, to the radio base station (eNB) via the second radio link when it is detected that the reception timing of the data signal has been deviated from the desired timing by a predetermined time or more; a step of transmitting, by the radio base station (eNB), adjustment information for adjusting a transmission timing of a data signal in the third radio link to the first mobile station (UE#1) via the first radio link on the basis of the received timing information; and a step of determining, by the first mobile station (UE#1), that the third radio link is in a non-synchronization state when a timer for the third radio link to be reset by reception of the adjustment information is expired.
A floor processing device with a motor-driven floor processing element for processing a floor to be processed, wherein the floor processing element has a hollow space with a hollow space opening (4, 5) that joins the hollow space with the ambient air, characterized in that a fragrance element, which is designed as a solid body, is arranged in the hollow space, wherein the hollow space has a volume corresponding to a multiple of the volume of the fragrance element.
An orthopaedic device comprising a joint with - a first joint element comprising ∘ a first joint arm with a first form-fitting element and - a second joint element that can be swivelled relative to the first joint element comprising ∘ a second joint arm and ∘ a force application lever with a second form-fitting element and ∘ a mechanical energy store arranged between the force application lever and the second joint arm, wherein the mechanical energy store can be charged and discharged by swivelling the first joint arm relative to the second joint arm when the first form-fitting element is engaged with the second form-fitting element, characterised in that the device comprises a securing device which ensures that, irrespective of the position of the first form-fitting element and the second form-fitting element relative to each other, the two form-fitting elements (2,6) can be engaged in such a way that an acting force of the charged mechanical energy store is transmitted from the second form-fitting element to the first form-fitting element. a joint with - a first joint element comprising ∘ a first joint arm with a first form-fitting element and - a second joint element that can be swivelled relative to the first joint element comprising ∘ a second joint arm and ∘ a force application lever with a second form-fitting element and ∘ a mechanical energy store arranged between the force application lever and the second joint arm, - a first joint element comprising ∘ a first joint arm with a first form-fitting element and ∘ a first joint arm with a first form-fitting element and - a second joint element that can be swivelled relative to the first joint element comprising ∘ a second joint arm and ∘ a force application lever with a second form-fitting element and ∘ a mechanical energy store arranged between the force application lever and the second joint arm, ∘ a second joint arm and ∘ a force application lever with a second form-fitting element and ∘ a mechanical energy store arranged between the force application lever and the second joint arm, wherein the mechanical energy store can be charged and discharged by swivelling the first joint arm relative to the second joint arm when the first form-fitting element is engaged with the second form-fitting element, characterised in that the device comprises a securing device which ensures that, irrespective of the position of the first form-fitting element and the second form-fitting element relative to each other, the two form-fitting elements (2,6) can be engaged in such a way that an acting force of the charged mechanical energy store is transmitted from the second form-fitting element to the first form-fitting element.
A wearable device, characterized by comprising: a dial plate, wherein the dial plate is provided with an accommodating groove; a watch body, wherein the watch body is at least partially disposed in the accommodating groove and is rotatably connected to the dial plate, and the watch body is provided with a functional component, wherein the functional component comprises a camera component, and the camera component is adjusted to different positions in a case that the watch body rotates relative to the dial plate; and an angle detection member, comprising an annular resistor and a conductive connector electrically connected to the annular resistor, wherein one of the annular resistor and the conductive connector is disposed at the dial plate, and the other is disposed at the watch body, and the annular resistor is in sliding connection with the conductive connector; the angle detection member is configured to determine a position of the watch body relative to the dial plate by measuring electrical parameters. a dial plate, wherein the dial plate is provided with an accommodating groove; a watch body, wherein the watch body is at least partially disposed in the accommodating groove and is rotatably connected to the dial plate, and the watch body is provided with a functional component, wherein the functional component comprises a camera component, and the camera component is adjusted to different positions in a case that the watch body rotates relative to the dial plate; and an angle detection member, comprising an annular resistor and a conductive connector electrically connected to the annular resistor, wherein one of the annular resistor and the conductive connector is disposed at the dial plate, and the other is disposed at the watch body, and the annular resistor is in sliding connection with the conductive connector; the angle detection member is configured to determine a position of the watch body relative to the dial plate by measuring electrical parameters.
A method of measuring a flow rate of a fluid flowing through a flow passage within an existing control valve assembly that includes a throttling element moveable within the flow passage and an intelligent positioner communicatively coupled to a control system, the intelligent positioner adapted to receive a position setpoint signal from the control system, sense a position of the throttling element within the flow passage, and generate a positioning signal to position the throttling element, wherein the existing control valve assembly does not include a device for measuring flow within the flow passage; the method comprising: providing a flow measurement module, wherein the flow measurement module includes a controller and at least a first communication port (46, 48, 50, 52, 54); communicatively coupling the flow measurement module to the intelligent positioner via the first communication port (46, 48, 50, 52, 54) without disrupting the flow of the fluid flowing through the flow passage; receiving in the flow measurement module a signal representative of the sensed position of the throttling element from the intelligent positioner via the first communication port (46, 48, 50, 52, 54), and generating with the flow measurement module a flow rate signal representative of the flow rate of the fluid flowing through the flow passage based on sensed pressures upstream and downstream of the throttling element and based on the sensed position of the throttling element within the flow passage. providing a flow measurement module, wherein the flow measurement module includes a controller and at least a first communication port (46, 48, 50, 52, 54); communicatively coupling the flow measurement module to the intelligent positioner via the first communication port (46, 48, 50, 52, 54) without disrupting the flow of the fluid flowing through the flow passage; receiving in the flow measurement module a signal representative of the sensed position of the throttling element from the intelligent positioner via the first communication port (46, 48, 50, 52, 54), and generating with the flow measurement module a flow rate signal representative of the flow rate of the fluid flowing through the flow passage based on sensed pressures upstream and downstream of the throttling element and based on the sensed position of the throttling element within the flow passage.
Method for identifying an assignment of control loops (RK1; RK2;...; RKn), which each have an actuator and a sensor, to at least one control apparatus (RV; RV'), having the steps of: providing an actuation pattern which is suitable for actuating each individual control loop (RK1; RK2;...; RKn) by means of the control apparatus (RV; RV'), wherein the provided actuation pattern has actuation phases which describe a selection of control loops to be actuated and are executed in particular orders; actuating the actuators in the control loops (RK1; RK2;...; RKn) by means of the control apparatus (RV; RV') according to the actuation phases; reading the sensors in the actuated control loops (RK1; RK2;...; RKn) according to the actuation phases; repeating the steps of actuation and reading for each of the actuation phases in order to measure state changes of the actuated control loops, wherein the measured state changes are combined to form a measured actuation pattern (AM') which indicates which control loops have actually been actuated during actuation according to the provided actuation pattern; and identifying the assignment of each of the control loops (RK1; RK2;...; RKn) to the at least one control apparatus (RV; RV') by comparing the provided actuation pattern and the measured actuation pattern (AM'). providing an actuation pattern which is suitable for actuating each individual control loop (RK1; RK2;...; RKn) by means of the control apparatus (RV; RV'), wherein the provided actuation pattern has actuation phases which describe a selection of control loops to be actuated and are executed in particular orders; actuating the actuators in the control loops (RK1; RK2;...; RKn) by means of the control apparatus (RV; RV') according to the actuation phases; reading the sensors in the actuated control loops (RK1; RK2;...; RKn) according to the actuation phases; repeating the steps of actuation and reading for each of the actuation phases in order to measure state changes of the actuated control loops, wherein the measured state changes are combined to form a measured actuation pattern (AM') which indicates which control loops have actually been actuated during actuation according to the provided actuation pattern; and identifying the assignment of each of the control loops (RK1; RK2;...; RKn) to the at least one control apparatus (RV; RV') by comparing the provided actuation pattern and the measured actuation pattern (AM').