mhurhangee/ep-ind-claims huggingface dataset:
A process for extracting from a mineral material selected from the group consisting of bauxite, limonite, and red mud, iron value and at least one metal value selected from aluminum, titanium, sodium, calcium, and, silicon, said process consisting of the following steps: • pulverizing said mineral material to a particle size in the range of 5 - 500 μ to obtain a pulverized material; • combining said pulverized material with a carbonaceous material to obtain a resultant mixture, wherein, the ratio of said pulverized material to said carbonaceous material is in the range of 88: 12 - 95: 5; • moulding said resultant mixture to obtain a formed material in a form selected from the group consisting of pellets, lumps, and briquettes; • smelting, at least partly, metal and slag in said formed material at a temperature in the range of 1200 - 1800 °C, to separate the iron values from the slag containing at least one metal value selected from aluminum, titanium, calcium, sodium, and silicon; and • separating at least one metal value from the slag by a process involving: (i) mild pulverization, (ii) air classification, and (iii) magnetic separation, to obtain at least one metal value selected from aluminum, titanium, sodium, calcium, and, silicon. • pulverizing said mineral material to a particle size in the range of 5 - 500 μ to obtain a pulverized material; • combining said pulverized material with a carbonaceous material to obtain a resultant mixture, wherein, the ratio of said pulverized material to said carbonaceous material is in the range of 88: 12 - 95: 5; • moulding said resultant mixture to obtain a formed material in a form selected from the group consisting of pellets, lumps, and briquettes; • smelting, at least partly, metal and slag in said formed material at a temperature in the range of 1200 - 1800 °C, to separate the iron values from the slag containing at least one metal value selected from aluminum, titanium, calcium, sodium, and silicon; and • separating at least one metal value from the slag by a process involving: (i) mild pulverization, (ii) air classification, and (iii) magnetic separation, to obtain at least one metal value selected from aluminum, titanium, sodium, calcium, and, silicon.
A robot comprising: a housing; a member and a joint (403, 403, 424, 800) being configured to control motion of the member; a motor disposed within the housing and at the joint (403, 403, 424, 800) a power stage printed circuit board disposed within the housing and including a plurality of field-effect transistors (FETs) disposed on a first surface of the power stage PCB facing the motor; a first connector coupled to the power stage PCB and at least one second connector configured to mate with the first connector; a logic stage PCB including (i) one or more processors in communication with the power stage PCB, and (ii) a first rotary position sensor mounted on a surface of the logic stage PCB, wherein the surface of the logic stage PCB faces a second surface of the power stage PCB opposite the first surface, wherein the power stage PCB is disposed between the motor and the logic stage PCB, and wherein the power stage PCB and logic stage PCB are arranged on respective axially spaced planes; a shaft coupled to a rotor of the motor and configured to extend through the power stage PCB; a magnet mounted at an end of the shaft facing the first rotary position sensor; a second rotary position sensor coupled to the member of the robot and configured to provide sensor information indicative of a rotary position of the member of the robot; and a flexible PCB configured to receive one or more wires (1555A, 1555B) from the second rotary position sensor, and provide one or more respective wires (1555A, 1555B) to the at least one second connector a housing; a member and a joint (403, 403, 424, 800) being configured to control motion of the member; a motor disposed within the housing and at the joint (403, 403, 424, 800) a power stage printed circuit board disposed within the housing and including a plurality of field-effect transistors (FETs) disposed on a first surface of the power stage PCB facing the motor; a first connector coupled to the power stage PCB and at least one second connector configured to mate with the first connector; a logic stage PCB including (i) one or more processors in communication with the power stage PCB, and (ii) a first rotary position sensor mounted on a surface of the logic stage PCB, wherein the surface of the logic stage PCB faces a second surface of the power stage PCB opposite the first surface, wherein the power stage PCB is disposed between the motor and the logic stage PCB, and wherein the power stage PCB and logic stage PCB are arranged on respective axially spaced planes; a shaft coupled to a rotor of the motor and configured to extend through the power stage PCB; a magnet mounted at an end of the shaft facing the first rotary position sensor; a second rotary position sensor coupled to the member of the robot and configured to provide sensor information indicative of a rotary position of the member of the robot; and a flexible PCB configured to receive one or more wires (1555A, 1555B) from the second rotary position sensor, and provide one or more respective wires (1555A, 1555B) to the at least one second connector
A mobile storage unit comprising: a) an exo-skeletal frame structure configured for supporting a seat and for framing a storage area; b) the storage area configured to hold a flexible storage bag forming a main storage compartment; and c) a top seat portion configured to sit on while the mobile storage unit is in an upright position, wherein the top seat portion is supported by the frame, characterized in that the flexible storage bag comprises one or more sleeves coupled to the exo-skeletal frame while positioned within the open storage area. a) an exo-skeletal frame structure configured for supporting a seat and for framing a storage area; b) the storage area configured to hold a flexible storage bag forming a main storage compartment; and c) a top seat portion configured to sit on while the mobile storage unit is in an upright position, wherein the top seat portion is supported by the frame, characterized in that the flexible storage bag comprises one or more sleeves coupled to the exo-skeletal frame while positioned within the open storage area.
Plug-in connector for providing an electrical connection, comprising: a collective seal having at least one through-opening and at least one electrically conductive plug-in contact, which can be guided through the at least one through-opening of the collective seal, wherein a template is provided for the through-opening in order to support the plug-in contact as it is guided through the through-opening of the collective seal, wherein the template has guide elements that can be swung out and can be opened in the through-opening of the collective seal by the plug-in contact, characterized in that the template has a predetermined breaking geometry between the guide elements that can be swung out, which geometry can be opened in the direction of the through-opening by the plug-in contact. a collective seal having at least one through-opening and at least one electrically conductive plug-in contact, which can be guided through the at least one through-opening of the collective seal, wherein a template is provided for the through-opening in order to support the plug-in contact as it is guided through the through-opening of the collective seal, wherein the template has guide elements that can be swung out and can be opened in the through-opening of the collective seal by the plug-in contact, characterized in that the template has a predetermined breaking geometry between the guide elements that can be swung out, which geometry can be opened in the direction of the through-opening by the plug-in contact.
Motor vehicle secondary electric device having a housing, an electronically commutated drive motor, a working means driven by the drive motor, a peripheral connector arrangement having at least two exposed connector pins, and a motor control circuit board at least partly potted in a cast body, wherein the connector pins are each formed by a single rigid pin element, which is directly electrically connected to the motor control circuit board, characterized in that the cast body has a connector core that is integrally molded on in one piece and encloses the pin elements between the motor control board and a connector base formed by the connector core, such that the pin elements are completely potted in the cast body between the connector pins and the motor control board, the connector core is plugged into a housing opening of a housing body, such that the connector base closes the housing opening completely, and the pin elements project outward from the connector base through the housing opening, and the cast body or the housing body has at least two axial support noses (44, 44') by which the cast body is axially supported at the housing body.
A method for controlling rotational speeds of reels of a temporary banknote storage module, comprising: counting the number of identifiers detected by a first sensor corresponding to a large reel in a preset time period, and recording the number of identifiers detected by the first sensor as a first identifier number, wherein the identifiers are uniformly arranged in a longitudinal direction of a tape; counting the number of identifiers detected by a second sensor corresponding to a small reel in the preset time period, and recording the number of identifiers detected by the second sensor as a second identifier number; calculating a line speed of the large reel and a line speed of the small reel based on the preset time period, the first identifier number, the second identifier number and a distance between the identifiers; and substituting the line speed of the large reel, the line speed of the small reel and an expected line speed into a PID algorithm, to calculate a first angular speed and a second angular speed, adjusting a rotational speed of a first power motor corresponding to the large reel to be the first angular speed, and adjusting a rotational speed of a second power motor corresponding to the small reel to be the second angular speed. counting the number of identifiers detected by a first sensor corresponding to a large reel in a preset time period, and recording the number of identifiers detected by the first sensor as a first identifier number, wherein the identifiers are uniformly arranged in a longitudinal direction of a tape; counting the number of identifiers detected by a second sensor corresponding to a small reel in the preset time period, and recording the number of identifiers detected by the second sensor as a second identifier number; calculating a line speed of the large reel and a line speed of the small reel based on the preset time period, the first identifier number, the second identifier number and a distance between the identifiers; and substituting the line speed of the large reel, the line speed of the small reel and an expected line speed into a PID algorithm, to calculate a first angular speed and a second angular speed, adjusting a rotational speed of a first power motor corresponding to the large reel to be the first angular speed, and adjusting a rotational speed of a second power motor corresponding to the small reel to be the second angular speed.
A method for managing a biometric smart card associated to a user, said biometric smart card comprising a reference biometric data previously enrolled by said user, a secure element, a biometric sensor and a controller coupled to the biometric sensor, said controller comprising a first firmware, wherein the method comprises the steps: - Receiving, by the secure element, a second firmware originated from a remote server, - Establishing a secure channel between said secure element and controller by using keys pre-stored in said secure element and controller, - Sending the second firmware to the controller through the secure channel, - Collecting by the biometric sensor a first captured biometric data of the user, - Generating by the controller a first treated biometric data from the first captured biometric data using said first firmware, - Collecting by the biometric sensor a second captured biometric data of the user, - Generating by said controller a second treated biometric data from the second captured biometric data using said second firmware, - Providing, by the controller, the secure element with said first and second treated biometric data (71, 72), - Performing by the secure element a checking to verify that both said first and second treated biometric data (71, 72) match the reference biometric data, - Sending, by the secure element, a switch command to the controller only when said checking is successful and, - Upon receipt of the switch command, permanently deactivating, by the controller, said first firmware and activating said second firmware. - Receiving, by the secure element, a second firmware originated from a remote server, - Establishing a secure channel between said secure element and controller by using keys pre-stored in said secure element and controller, - Sending the second firmware to the controller through the secure channel, - Collecting by the biometric sensor a first captured biometric data of the user, - Generating by the controller a first treated biometric data from the first captured biometric data using said first firmware, - Collecting by the biometric sensor a second captured biometric data of the user, - Generating by said controller a second treated biometric data from the second captured biometric data using said second firmware, - Providing, by the controller, the secure element with said first and second treated biometric data (71, 72), - Performing by the secure element a checking to verify that both said first and second treated biometric data (71, 72) match the reference biometric data, - Sending, by the secure element, a switch command to the controller only when said checking is successful and, - Upon receipt of the switch command, permanently deactivating, by the controller, said first firmware and activating said second firmware.
A molecular sensor for detecting target molecules in a flowing solution using dichroism, the molecular sensor comprising: a flow path containing a solution potentially containing a target molecule; a source of polarised light; a detector arranged to receive light from the source after it has passed through the flowpath; and a plurality of sensor elements disposed in the solution, each sensor element comprising (i) a scaffold moiety and (ii) one or more receptor molecules for the target molecule attached to the scaffold moiety to form a scaffold/receptor complex, wherein the scaffold/receptor complex is modified to incorporate a chromophore, the chromophore being attached to the scaffold/receptor complex in such a way that it is not in free exchange with the other scaffold/receptor complex, and wherein the modified scaffold/receptor complex has an aspect ratio greater than 5:1. a flow path containing a solution potentially containing a target molecule; a source of polarised light; a detector arranged to receive light from the source after it has passed through the flowpath; and a plurality of sensor elements disposed in the solution, each sensor element comprising (i) a scaffold moiety and (ii) one or more receptor molecules for the target molecule attached to the scaffold moiety to form a scaffold/receptor complex, wherein the scaffold/receptor complex is modified to incorporate a chromophore, the chromophore being attached to the scaffold/receptor complex in such a way that it is not in free exchange with the other scaffold/receptor complex, and wherein the modified scaffold/receptor complex has an aspect ratio greater than 5:1.
An image guidance system, comprising: a workstation comprising a processor and a memory coupled to the processor; an imaging system coupled to the processor, and comprising an ultrasound imaging probe, the imaging system configured to generate images based on use of the ultrasound imaging probe, the imaging system further including a display to permit user selection of areas of interest in the images, the images and the user-selected areas of interest being referenced to an imaging coordinate system the memory including a computation engine configured to receive tracking data describing real-time spatial tracking of the position and pose of at least one spatially tracked device and of the ultrasound imaging probe in the tracking coordinate system, the computation engine further being configured to combine the images, the areas of interest, and real time spatially tracked data of the at least one spatially tracked device by registering the imaging coordinate system and the tracking coordinate system into a global coordinate system, in order to provide measurement and/or location information, the registering comprising mapping the images in the imaging coordinate system to the tracking coordinate system, or vice versa, using a mathematical transform, wherein the imaging system and computation engine are coupled by a bidirectional communication channel configured to permit transmission of the images and the areas of interest to the computation engine and transmission of the measurement and/or location information to the imaging system. a workstation comprising a processor and a memory coupled to the processor; an imaging system coupled to the processor, and comprising an ultrasound imaging probe, the imaging system configured to generate images based on use of the ultrasound imaging probe, the imaging system further including a display to permit user selection of areas of interest in the images, the images and the user-selected areas of interest being referenced to an imaging coordinate system the memory including a computation engine configured to receive tracking data describing real-time spatial tracking of the position and pose of at least one spatially tracked device and of the ultrasound imaging probe in the tracking coordinate system, the computation engine further being configured to combine the images, the areas of interest, and real time spatially tracked data of the at least one spatially tracked device by registering the imaging coordinate system and the tracking coordinate system into a global coordinate system, in order to provide measurement and/or location information, the registering comprising mapping the images in the imaging coordinate system to the tracking coordinate system, or vice versa, using a mathematical transform, wherein the imaging system and computation engine are coupled by a bidirectional communication channel configured to permit transmission of the images and the areas of interest to the computation engine and transmission of the measurement and/or location information to the imaging system.
A compound of formula, or solvate or pharmaceutically acceptable salt thereof: wherein R is independently selected from the group consisting of H, OH, C1-C4 alkyl, C2-C4 alkenyl, C2-X4 alkynyl and halogen.
A method of manufacture for an extreme ultraviolet reflective element (302, 1402) comprising: providing a substrate; forming a multilayer stack (306, 1406) on the substrate, the multilayer stack includes a plurality of reflective layer pairs having a first reflective layer (312, 1412) formed from silicon and a second reflective layer (314, 1414) having a preventative layer separating a lower amorphous molybdenum layer and an upper amorphous molybdenum layer for preventing crystallization of the lower amorphous molybdenum layer and the upper amorphous molybdenum layer; and forming a capping layer on and over the multilayer stack (306, 1406) for protecting the multilayer stack by reducing oxidation and mechanical erosion. providing a substrate; forming a multilayer stack (306, 1406) on the substrate, the multilayer stack includes a plurality of reflective layer pairs having a first reflective layer (312, 1412) formed from silicon and a second reflective layer (314, 1414) having a preventative layer separating a lower amorphous molybdenum layer and an upper amorphous molybdenum layer for preventing crystallization of the lower amorphous molybdenum layer and the upper amorphous molybdenum layer; and forming a capping layer on and over the multilayer stack (306, 1406) for protecting the multilayer stack by reducing oxidation and mechanical erosion.
A compression coil spring formed by spirally bending a rod-shaped spring material, comprising: an outside surface region comprising a surface on the outside of a bend of the coil spring and having a compressive residual stress; a compressive stress reduction region in which the compressive residual stress is reduced from the outside surface region toward the center of the material; a stress change portion which exists between the outside surface region and the center of the material and at which a change from the compressive residual stress to a tensile residual stress occurs; a tensile stress peak portion which exists between the stress change portion and the center of the material and at which the tensile residual stress is maximum; a tensile stress reduction region in which the tensile residual stress is reduced from the tensile stress peak portion toward the inside of the bend of the coil spring; and an inside surface region comprising a surface on the inside of the bend and having a tensile residual stress or a compressive residual stress with an absolute value smaller than that of the compressive residual stress of the outside surface region. an outside surface region comprising a surface on the outside of a bend of the coil spring and having a compressive residual stress; a compressive stress reduction region in which the compressive residual stress is reduced from the outside surface region toward the center of the material; a stress change portion which exists between the outside surface region and the center of the material and at which a change from the compressive residual stress to a tensile residual stress occurs; a tensile stress peak portion which exists between the stress change portion and the center of the material and at which the tensile residual stress is maximum; a tensile stress reduction region in which the tensile residual stress is reduced from the tensile stress peak portion toward the inside of the bend of the coil spring; and an inside surface region comprising a surface on the inside of the bend and having a tensile residual stress or a compressive residual stress with an absolute value smaller than that of the compressive residual stress of the outside surface region.