mhurhangee/ep-ind-claims huggingface dataset:
Arrangement for securing plate-like material, comprising: a carrier, on which the plate-like material is arranged in a stack; a first and a second retaining means (4A, 4B), which extends in each case around the plate-like material and the carrier so as to secure the plate-like material, characterized by a a first to fourth angled securing device (5A-5D) having respectively a first limb and a second limb which are arranged on respectively one corner of the plate-like material, respectively enclose the corners on two sides of the plate-like material in certain regions, and is fixedly arranged on one of the two limbs by means of the first and second retaining means (4A, 4B) on the plate-like material so as to secure the plate-like material; wherein the first to fourth angled securing device (5A-5D) are each fixed only on the second limb; and wherein the first retaining means respectively encloses and fixes the second limb of the first and second securing device (5A, 5D) and the second retaining means respectively encloses and fixes the second limb of the third and fourth securing device (5A, 5D). a carrier, on which the plate-like material is arranged in a stack; a first and a second retaining means (4A, 4B), which extends in each case around the plate-like material and the carrier so as to secure the plate-like material, characterized by a a first to fourth angled securing device (5A-5D) having respectively a first limb and a second limb which are arranged on respectively one corner of the plate-like material, respectively enclose the corners on two sides of the plate-like material in certain regions, and is fixedly arranged on one of the two limbs by means of the first and second retaining means (4A, 4B) on the plate-like material so as to secure the plate-like material; wherein the first to fourth angled securing device (5A-5D) are each fixed only on the second limb; and wherein the first retaining means respectively encloses and fixes the second limb of the first and second securing device (5A, 5D) and the second retaining means respectively encloses and fixes the second limb of the third and fourth securing device (5A, 5D).
An engineered T cell receptor comprising at least one of the following amino acid residues: L96 of the α chain; R9 of the β chain; Y10 of the β chain; T24 of the α chain; T20 of the α chain; M50 of the α chain; T5 of the α chain; Q8 of the α chain; S86 of the α chain; F39 of the α chain; D55 of the α chain; R43 of the β chain; A66 of the α chain; L21 of the β chain; L103 of the β chain; T3 of the α chain; P9 of the α chain; A16 of the α chain; T18 of the α chain; L21 of the α chain; S22 of the α chain; D26 of the α chain; F40 of the α chain; S47 of the α chain; R48 of the α chain; Q49 of the α chain; I51 of the α chain; L52 of the α chain; V53 of the α chain; T67 of the α chain; E68 of the α chain; N74 of the α chain; F76 of the α chain; N79 of the α chain; Q81 of the α chain; A83 of the α chain; K90 of the α chain; S92 of the α chain; D93 of the α chain; and M101 of the α chain; wherein the at least one amino acid residue is not present in the corresponding germline TCR amino acid sequence and wherein said TCR has a higher level of cell surface expression when expressed in a cell relative to an equivalent TCR comprising the amino acid sequence encoded by the germline sequence. L96 of the α chain; R9 of the β chain; Y10 of the β chain; T24 of the α chain; T20 of the α chain; M50 of the α chain; T5 of the α chain; Q8 of the α chain; S86 of the α chain; F39 of the α chain; D55 of the α chain; R43 of the β chain; A66 of the α chain; L21 of the β chain; L103 of the β chain; T3 of the α chain; P9 of the α chain; A16 of the α chain; T18 of the α chain; L21 of the α chain; S22 of the α chain; D26 of the α chain; F40 of the α chain; S47 of the α chain; R48 of the α chain; Q49 of the α chain; I51 of the α chain; L52 of the α chain; V53 of the α chain; T67 of the α chain; E68 of the α chain; N74 of the α chain; F76 of the α chain; N79 of the α chain; Q81 of the α chain; A83 of the α chain; K90 of the α chain; S92 of the α chain; D93 of the α chain; and M101 of the α chain;
An unloader assembly for a compressor, comprising: one or more fingers configured to engage one or more valve elements of a suction valve of the compressor, the one or more valve elements being configured to move downward from a closed position to an open position and being biased toward the closed position; a biasing member coupled to the one or more fingers and configured to bias the one or more fingers downward such that the one or more fingers follow the one or more valve elements; an actuating rod coupled to the one or more fingers and extending longitudinally therefrom; a housing in which the one or more fingers and the actuating rod are at least partially disposed; characterized by comprising: a first reservoir containing a smart fluid and adapted to receive the actuating rod; a pressure balance line extending from within the housing to the first reservoir, such that a pressure in the first reservoir is referenced to a pressure in the housing; and a coil disposed at least one of proximal to and within the first reservoir, the coil being configured to produce a field when an electrical current is supplied to the coil, to change one or more viscoelastic properties of the smart fluid. one or more fingers configured to engage one or more valve elements of a suction valve of the compressor, the one or more valve elements being configured to move downward from a closed position to an open position and being biased toward the closed position; a biasing member coupled to the one or more fingers and configured to bias the one or more fingers downward such that the one or more fingers follow the one or more valve elements; an actuating rod coupled to the one or more fingers and extending longitudinally therefrom; a housing in which the one or more fingers and the actuating rod are at least partially disposed; a first reservoir containing a smart fluid and adapted to receive the actuating rod; a pressure balance line extending from within the housing to the first reservoir, such that a pressure in the first reservoir is referenced to a pressure in the housing; and a coil disposed at least one of proximal to and within the first reservoir, the coil being configured to produce a field when an electrical current is supplied to the coil, to change one or more viscoelastic properties of the smart fluid.
A method of control in a system having multiple pumps (18a-18d), wherein the multiple pumps (18a-18d) are operated and run together at a substantially synchronous torque to achieve a desired setpoint, wherein the method comprises: responding with a controller to signaling containing information about the desired setpoint, and providing a control output signal; responding with a lead variable speed drive to the control output signal, providing a lead variable speed drive signal for driving one of the multiple pumps, and also providing one or more torque signals; and responding with a lag variable speed drive (14b; 14c; 14d) to the one or more torque signals, and providing a lag variable speed drive signal for driving another one of the multiple pumps (18b; 18c; 18d); the one or more torque signals containing information so that the lead variable speed drive and the lag variable speed drive (14b; 14c; 14d) operate and run the multiple pumps together at the substantially synchronous torque to achieve the desired setpoint. responding with a controller to signaling containing information about the desired setpoint, and providing a control output signal; responding with a lead variable speed drive to the control output signal, providing a lead variable speed drive signal for driving one of the multiple pumps, and also providing one or more torque signals; and responding with a lag variable speed drive (14b; 14c; 14d) to the one or more torque signals, and providing a lag variable speed drive signal for driving another one of the multiple pumps (18b; 18c; 18d); the one or more torque signals containing information so that the lead variable speed drive and the lag variable speed drive (14b; 14c; 14d) operate and run the multiple pumps together at the substantially synchronous torque to achieve the desired setpoint.
An encoder (1a, 1b, 1c) comprising: a scale having a pattern column with a plurality of patterns for periodically changing a physical characteristic; a detection element array (202, 204) disposed movable relatively to the scale and including a plurality of detection elements configured to detect light from the pattern column are arranged in a moving direction; a signal processor configured to convert an output signal from the detection element array into position information, characterized in that the detection element array includes first detection elements, second detection elements, third detection elements, and fourth detection elements, wherein the first to fourth detection elements are arranged in order of the first detection elements, the fourth detection elements, the first detection elements, the fourth detection elements, the third detection elements, the second detection elements, the third detection elements, and the second detection elements, and wherein the signal processor generates a first signal based on an output signal from the first and third detection elements and a second signal based on an output signal from the second and fourth detection elements. a scale having a pattern column with a plurality of patterns for periodically changing a physical characteristic; a detection element array (202, 204) disposed movable relatively to the scale and including a plurality of detection elements configured to detect light from the pattern column are arranged in a moving direction; a signal processor configured to convert an output signal from the detection element array into position information, characterized in that the detection element array includes first detection elements, second detection elements, third detection elements, and fourth detection elements, wherein the first to fourth detection elements are arranged in order of the first detection elements, the fourth detection elements, the first detection elements, the fourth detection elements, the third detection elements, the second detection elements, the third detection elements, and the second detection elements, and wherein the signal processor generates a first signal based on an output signal from the first and third detection elements and a second signal based on an output signal from the second and fourth detection elements.
A process for producing (meth)acrylic acid, comprising the step of repeating a crystallization operation "n" times [providing "n" is an integer 2 or more] to produce purified (meth)acrylic acid from crude (meth)acrylic acid, wherein a (meth)acrylic acid solution is crystallized and the crystallized (meth)acrylic acid is melted to obtain a (meth)acrylic acid melt in the crystallization operation; wherein a constant amount A k of the (meth)acrylic acid solution is subjected to the k th crystallization operation [providing "k" is an integer 1 or more and n-1 or less], and the (meth)acrylic acid melt obtained by the k th crystallization operation is utilized as the (meth)acrylic acid solution for the k+1 th crystallization operation without being discharged from a crystallizer or is transferred from the crystallizer to a k+1 th storage tank for storing the (meth)acrylic acid solution to be used in the k+1 th crystallization operation in accordance with the following Rules or: Rule: when an amount of the (meth)acrylic acid melt obtained by the k th crystallization operation is B k and an amount of the (meth)acrylic acid solution stored in the k+1 th storage tank is A k+1 -B k or more, the (meth)acrylic acid melt obtained by the k th crystallization operation is not discharged from the crystallizer and the (meth)acrylic acid solution from the k+1 th storage tank is added to the (meth)acrylic acid melt obtained by the k th crystallization operation to be utilized as the (meth)acrylic acid solution for the k+1 th crystallization operation; and Rule: when the amount of the (meth)acrylic acid solution stored in the k+1 th storage tank is less than A k+1 -B k, the (meth)acrylic acid melt obtained by the k th crystallization operation is transferred to the k+1 th storage tank from the crystallizer. Rule: when an amount of the (meth)acrylic acid melt obtained by the k th crystallization operation is B k and an amount of the (meth)acrylic acid solution stored in the k+1 th storage tank is A k+1 -B k or more, the (meth)acrylic acid melt obtained by the k th crystallization operation is not discharged from the crystallizer and the (meth)acrylic acid solution from the k+1 th storage tank is added to the (meth)acrylic acid melt obtained by the k th crystallization operation to be utilized as the (meth)acrylic acid solution for the k+1 th crystallization operation; and Rule: when the amount of the (meth)acrylic acid solution stored in the k+1 th storage tank is less than A k+1 -B k, the (meth)acrylic acid melt obtained by the k th crystallization operation is transferred to the k+1 th storage tank from the crystallizer.
Optoelectronic device with - a housing body made at least partially of a plastic material, - at least one chip emitting and/or receiving electromagnetic radiation, attached to at least one chip carrier part of a conductor frame, wherein the conductor frame has at least two external electrical connection parts (4, 5), which are electrically conductively connected to the chip, wherein - the chip carrier part and partial regions of the external electrical connection parts (4, 5) are enclosed by the housing body, from which the external electrical connection parts (4, 5) project, - the housing body has a recess, in which the chip is arranged on the chip carrier part, characterized in that - the plastic material of the housing body is mixed with filler particles, wherein the filler particles have a spherical shape, and - the filler particles inhibit a migration of silver in an electric field (22, 12) between the connection parts (4, 5) in the plastic material. - a housing body made at least partially of a plastic material, - at least one chip emitting and/or receiving electromagnetic radiation, attached to at least one chip carrier part of a conductor frame, wherein the conductor frame has at least two external electrical connection parts (4, 5), which are electrically conductively connected to the chip, wherein - the chip carrier part and partial regions of the external electrical connection parts (4, 5) are enclosed by the housing body, from which the external electrical connection parts (4, 5) project, - the housing body has a recess, in which the chip is arranged on the chip carrier part, - the plastic material of the housing body is mixed with filler particles, wherein the filler particles have a spherical shape, and - the filler particles inhibit a migration of silver in an electric field (22, 12) between the connection parts (4, 5) in the plastic material.
An electrospinning device comprising an electrode having a concave curved surface and a needle-shaped spinning nozzle surrounded by the concave curved surface of the electrode and being configured to jet a spinning solution from a tip of the nozzle with an electric field applied between the electrode and the nozzle to form a nanofiber from the jetted spinning solution, the concave curved surface of the electrode having an open end defining a circle, the nozzle being located in such a manner that a direction in which the nozzle extends passes through or near the center of the circle defined by the open end of the concave curved surface of the electrode, and that the tip of the nozzle is positioned in or near a plane including the circle defined by the open end of the concave curved surface of the electrode.
A strapping device, comprising: a handle including an input device and a first switch, the input device including at least one of a trigger, a button, a lever, and a second switch; a body coupled with a handle, the body including a base and a tensioner, the base including a strap receiver opposite the tensioner; the strapping device being characterized by the input device being spaced from the first switch by a biasing element that applies a bias force to the input device, wherein the input device moves from a first state spaced from the first switch to a second state contacting the first switch responsive to receiving a force greater than the bias force, wherein a circuit of the first switch is closed responsive to the input device moving from the first state to the second state, the first switch outputs an actuation signal responsive to the circuit being closed; and an actuator that the actuation signal causes to move the tensioner from a first tensioner position to a second tensioner position further from the strap receiver than the first tensioner position based on a movement force that is greater than the bias force. a handle including an input device and a first switch, the input device including at least one of a trigger, a button, a lever, and a second switch; a body coupled with a handle, the body including a base and a tensioner, the base including a strap receiver opposite the tensioner; the strapping device being characterized by the input device being spaced from the first switch by a biasing element that applies a bias force to the input device, wherein the input device moves from a first state spaced from the first switch to a second state contacting the first switch responsive to receiving a force greater than the bias force, wherein a circuit of the first switch is closed responsive to the input device moving from the first state to the second state, the first switch outputs an actuation signal responsive to the circuit being closed; and an actuator that the actuation signal causes to move the tensioner from a first tensioner position to a second tensioner position further from the strap receiver than the first tensioner position based on a movement force that is greater than the bias force.
A management controller, of a host system, comprising: a memory subsystem including a memory controller and a memory; firmware able to boot said management controller, wherein booting said management controller includes initializing said memory subsystem; and characterized by: the management controller further comprising a failsafe boot timer and a memory initialization module, comprising a hardware state machine dedicated to initializing said memory subsystem, to initialize said memory subsystem if the hardware state machine receives a signal from said failsafe boot timer indicating that the firmware failed to properly initialize the memory subsystem, such that the memory subsystem can be initialized without the host system having access to the memory controller. a memory subsystem including a memory controller and a memory; firmware able to boot said management controller, wherein booting said management controller includes initializing said memory subsystem; and characterized by: the management controller further comprising a failsafe boot timer and a memory initialization module, comprising a hardware state machine dedicated to initializing said memory subsystem, to initialize said memory subsystem if the hardware state machine receives a signal from said failsafe boot timer indicating that the firmware failed to properly initialize the memory subsystem, such that the memory subsystem can be initialized without the host system having access to the memory controller. the management controller further comprising a failsafe boot timer and a memory initialization module, comprising a hardware state machine dedicated to initializing said memory subsystem, to initialize said memory subsystem if the hardware state machine receives a signal from said failsafe boot timer indicating that the firmware failed to properly initialize the memory subsystem, such that the memory subsystem can be initialized without the host system having access to the memory controller.
A method of making a semi-finished or finished optical lens comprising: determining the position of at least a portion of a front surface or a back surface of a lens blank and/or the position of at least a portion of at least one of one or more light filtering layers within a lens surfacing system, wherein the one or more light filtering layers are located between a front surface and a back surface of a lens blank, shaping at least a portion of the front surface or the back surface of the lens blank according to shaping instructions, where the instructions comprise shaping map data indicative of a front surface or back surface of the optical lens such that the front surface or the back surface of the optical lens will not intersect with the one or more light filtering layers, and positioning the lens blank so that at least a portion of the one or more light filtering layers is disposed at a zeroed position on a coordinate axis, where the coordinate axis is an axis that extends between the front surface and the back surface of the lens blank. determining the position of at least a portion of a front surface or a back surface of a lens blank and/or the position of at least a portion of at least one of one or more light filtering layers within a lens surfacing system, wherein the one or more light filtering layers are located between a front surface and a back surface of a lens blank, shaping at least a portion of the front surface or the back surface of the lens blank according to shaping instructions, where the instructions comprise shaping map data indicative of a front surface or back surface of the optical lens such that the front surface or the back surface of the optical lens will not intersect with the one or more light filtering layers, and positioning the lens blank so that at least a portion of the one or more light filtering layers is disposed at a zeroed position on a coordinate axis, where the coordinate axis is an axis that extends between the front surface and the back surface of the lens blank.
A sealant discharging nozzle comprising: a nozzle body; a flat surface provided on the nozzle body, the flat surface being formed on a discharge port side of a through hole that extends along a central axis of the nozzle body; a nozzle positioning portion that comprises a pair of tapered surfaces (108a, 108b) disposed on both sides of the flat surface in a width direction of the flat surface; and a locating pin formed between the pair of tapered surfaces (108a, 108b), characterized in that a cutout is formed on a first side with respect to the flat surface, the cutout having a shape in which a separated distance from the discharge port becomes larger as the cutout becomes closer to a center in the width direction of the flat surface. a nozzle body; a flat surface provided on the nozzle body, the flat surface being formed on a discharge port side of a through hole that extends along a central axis of the nozzle body; a nozzle positioning portion that comprises a pair of tapered surfaces (108a, 108b) disposed on both sides of the flat surface in a width direction of the flat surface; and a locating pin formed between the pair of tapered surfaces (108a, 108b), characterized in that a cutout is formed on a first side with respect to the flat surface, the cutout having a shape in which a separated distance from the discharge port becomes larger as the cutout becomes closer to a center in the width direction of the flat surface.