mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for detecting electromyographic signals and monitoring muscle activity, said apparatus comprising - at least one sensor for detecting at least one electromyographic signal, - signal processing means for applying an integration algorithm or a frequency transformation algorithm to the detected electromyographic signal and generating an event signal, wherein the event signal triggers an event, and - first communication means for transmitting the detected electromyographic signal from the sensor to the signal processing means, characterised in that - the signal processing means further is configured to determine whether the resulting integrated or frequency transformed signal is above a predetermined power content (T h) within at least a first predetermined time window (t 1) of the electromyographic signal, and generates the event signal if the resulting integrated signal is above the predetermined power content for at least a number of times within a second predetermined time window (T w) of the electromyographic signal or if a part of the resulting frequency transformed signal continuously stays above the predetermined power content and further changes from a first frequency (f 2) to a second frequency (f 1) within the second predetermined time window (T w), wherein the at least first predetermined time window (t 1) is a sub-time window of the second predetermined time window (T w) and the first frequency (f 2) is higher than the second frequency (f 1). - at least one sensor for detecting at least one electromyographic signal, - signal processing means for applying an integration algorithm or a frequency transformation algorithm to the detected electromyographic signal and generating an event signal, wherein the event signal triggers an event, and - first communication means for transmitting the detected electromyographic signal from the sensor to the signal processing means, characterised in that - the signal processing means further is configured to determine whether the resulting integrated or frequency transformed signal is above a predetermined power content (T h) within at least a first predetermined time window (t 1) of the electromyographic signal, and generates the event signal if the resulting integrated signal is above the predetermined power content for at least a number of times within a second predetermined time window (T w) of the electromyographic signal or if a part of the resulting frequency transformed signal continuously stays above the predetermined power content and further changes from a first frequency (f 2) to a second frequency (f 1) within the second predetermined time window (T w), wherein the at least first predetermined time window (t 1) is a sub-time window of the second predetermined time window (T w) and the first frequency (f 2) is higher than the second frequency (f 1).
PROCESS FOR RECOVERY OF NICKEL AND COBALT FROM LATERITE ORES USING ION EXCHANGE RESIN", comprising the step of: (a) processing the laterite ore by crushing, scrubbing, attrition, classification, and high-intensity magnetic separation; said process for recovery of nickel and cobalt from laterite ores using ion exchange resin being characterized by the fact that it also comprises the steps of: (b) leaching of the non-magnetic fraction from the processing step; (c) neutralization of the effluent pulp from the leaching stage and/or solid-liquid separation, wherein the neutralization is carried out in steps at different pH values: the first step corresponds to pH<3 and the second step corresponds to pH>3; (d) treatment of the effluents from step (c) in a hybrid ion-exchange resin system comprising at least one circuit for removal of impurities, and at least one circuit for recovery of nickel and cobalt, wherein in a first stage ion-exchange resins are used for the removal of iron, copper, and aluminium and pH elevation and in a second stage ion exchange resins are used that allow recovery of the nickel and cobalt; (e) elution of the ion-exchange resin employed; and (f) separation, purification, and recovery of the nickel and cobalt. (a) processing the laterite ore by crushing, scrubbing, attrition, classification, and high-intensity magnetic separation; (b) leaching of the non-magnetic fraction from the processing step; (c) neutralization of the effluent pulp from the leaching stage and/or solid-liquid separation, wherein the neutralization is carried out in steps at different pH values: the first step corresponds to pH<3 and the second step corresponds to pH>3; (d) treatment of the effluents from step (c) in a hybrid ion-exchange resin system comprising at least one circuit for removal of impurities, and at least one circuit for recovery of nickel and cobalt, wherein in a first stage ion-exchange resins are used for the removal of iron, copper, and aluminium and pH elevation and in a second stage ion exchange resins are used that allow recovery of the nickel and cobalt; (e) elution of the ion-exchange resin employed; and (f) separation, purification, and recovery of the nickel and cobalt.
A device (100; 200; 300) for exposing at least a part of the body of a person to a magnetic field, characterized in that it comprises: an insulating belt (102; 202; 302) intended to be applied in contact with a part of the body of the person; at least one substantially rectangular flat dipolar antenna (104 a, 104 b; 204; 304 a, 304 b) emitting a magnetic field on a vector perpendicular to its surface, the antenna being positioned longitudinally on the belt in the lengthwise direction thereof; and an alternating or pulsed current power supply source (106; 206; 306) for the antenna, in which the power supply current for the antenna is an alternating current having a voltage of between 5 and 25 V, and an intensity of between 0.3 and 0.8 A, in which the antenna is dimensioned to emit a magnetic field with a maximum intensity of 200 μT, and the ratio between the length and the width of the antenna is 5:1 and 20:1. an insulating belt (102; 202; 302) intended to be applied in contact with a part of the body of the person; at least one substantially rectangular flat dipolar antenna (104 a, 104 b; 204; 304 a, 304 b) emitting a magnetic field on a vector perpendicular to its surface, the antenna being positioned longitudinally on the belt in the lengthwise direction thereof; and an alternating or pulsed current power supply source (106; 206; 306) for the antenna,
A machine type communication user equipment, MTC-UE, comprising: a reception unit configured to monitor first Machine Type Communication Physical Downlink Control CHannel, MPDCCH candidates at an aggregation level of 24 so as to detect a first MPDCCH in a UE-specific search space when a first parameter is configured by higher layer signaling, wherein the first parameter indicates a MPDCCH Physical Resource Block, PRB set with 6 PRB pairs, the reception unit is further configured to monitor second MPDCCH candidates at an aggregation level of 24 so as to detect a second MPDCCH in a common search space, wherein only the MPDCCH PRB set with 6 PRB pairs is allocated for the second MPDCCH, wherein a number of the first MPDCCH candidates is defined for each aggregation level of the first MPDCCH and each of numbers for the first MPDCCH, each of the numbers indicating a number of PRB pairs allocated for the first MPDCCH, and wherein one or more repetition levels for the first MPDCCH are allocated independently from one or more repetition levels for the second MPDCCH. a reception unit configured to monitor first Machine Type Communication Physical Downlink Control CHannel, MPDCCH candidates at an aggregation level of 24 so as to detect a first MPDCCH in a UE-specific search space when a first parameter is configured by higher layer signaling, wherein the first parameter indicates a MPDCCH Physical Resource Block, PRB set with 6 PRB pairs, the reception unit is further configured to monitor second MPDCCH candidates at an aggregation level of 24 so as to detect a second MPDCCH in a common search space, wherein only the MPDCCH PRB set with 6 PRB pairs is allocated for the second MPDCCH, wherein a number of the first MPDCCH candidates is defined for each aggregation level of the first MPDCCH and each of numbers for the first MPDCCH, each of the numbers indicating a number of PRB pairs allocated for the first MPDCCH, and wherein one or more repetition levels for the first MPDCCH are allocated independently from one or more repetition levels for the second MPDCCH.
A loudspeaker (102; 302), comprising: a first group (103; 303) of drivers (102a-102j; 302a-302j) to output a first beam pattern; a first tapped transmission line (105; 305) that controls an input to the first group (103; 303) of drivers (102a-102j; 302a-302j); a second group (104; 304) of drivers (102k-102t; 302k-302t) that is different from the first group (103; 303) of drivers (102a-102j; 302a-302j), wherein the second group (104; 304) of drivers (102k-102t; 302k-302t) is configured to output a second beam pattern; and a second tapped transmission line (107; 307) that controls an input to the second group (104; 304) of drivers (102k-102t; 302k-302t), the second tapped transmission line (107; 307) being different from the first tapped transmission line (105; 305); wherein the first tapped transmission line (105; 305) includes a plurality of processing stages corresponding to a number of the first group (103; 303) of drivers (102a-102j; 302a-302j); wherein the second tapped transmission line (107; 307) includes a plurality of delay stages (108j-t) corresponding to a number of the second group (104; 304) of drivers (102k-102t; 302k-302t), wherein the first beam pattern is a narrow beam and the second beam pattern is a wide beam pattern that is wider than the narrow beam of the first beam pattern, and wherein each of the driver groups (103, 104; 303, 304) is controlled by a separate transmission line and the beam patterns (503, 515) for each of the groups of drivers are controlled by an individual transmission line. a first group (103; 303) of drivers (102a-102j; 302a-302j) to output a first beam pattern; a first tapped transmission line (105; 305) that controls an input to the first group (103; 303) of drivers (102a-102j; 302a-302j); a second group (104; 304) of drivers (102k-102t; 302k-302t) that is different from the first group (103; 303) of drivers (102a-102j; 302a-302j), wherein the second group (104; 304) of drivers (102k-102t; 302k-302t) is configured to output a second beam pattern; and a second tapped transmission line (107; 307) that controls an input to the second group (104; 304) of drivers (102k-102t; 302k-302t), the second tapped transmission line (107; 307) being different from the first tapped transmission line (105; 305); wherein the first tapped transmission line (105; 305) includes a plurality of processing stages corresponding to a number of the first group (103; 303) of drivers (102a-102j; 302a-302j); wherein the second tapped transmission line (107; 307) includes a plurality of delay stages (108j-t) corresponding to a number of the second group (104; 304) of drivers (102k-102t; 302k-302t), wherein the first beam pattern is a narrow beam and the second beam pattern is a wide beam pattern that is wider than the narrow beam of the first beam pattern, and wherein each of the driver groups (103, 104; 303, 304) is controlled by a separate transmission line and the beam patterns (503, 515) for each of the groups of drivers are controlled by an individual transmission line.
A computer readable medium having instructions stored thereon that, when executed by a processor, cause the processor to provide cloud- based identity and access management, the processor: receiving a request to perform an identity management service comprising a login service, wherein responding to the request comprises a plurality of tasks; accessing a microservice via an application programming interface, API, unique to the microservice and based on the identity management service; determining one or more real-time tasks of the plurality of tasks and one or more near-real-time tasks of the plurality of tasks that are required to be executed to complete the identity management service; synchronously executing the one or more real-time tasks by the microservice to allow a user to start the login service; and sending the one or more near-real-time tasks to a queue to be asynchronously executed after the user has initiated the login service. receiving a request to perform an identity management service comprising a login service, wherein responding to the request comprises a plurality of tasks; accessing a microservice via an application programming interface, API, unique to the microservice and based on the identity management service; determining one or more real-time tasks of the plurality of tasks and one or more near-real-time tasks of the plurality of tasks that are required to be executed to complete the identity management service; synchronously executing the one or more real-time tasks by the microservice to allow a user to start the login service; and sending the one or more near-real-time tasks to a queue to be asynchronously executed after the user has initiated the login service.
An isolated TIMP-3 mutein, wherein the isolated TIMP-3 mutein is selected from the group consisting of the polypeptide as in SEQ ID NO: 18 comprising the mutations K45N, V47T, T63E, T74E, H78E as compared to wild-type TIMP-3 as in SEQ ID NO:2; the polypeptide as in SEQ ID NO: 23 comprising the mutations K45S, F57N as compared to wild-type TIMP-3 as in SEQ ID NO:2; and the polypeptide as in SEQ ID NO: 24 comprising the mutations K45S, K133S, F57N as compared to wild-type TIMP-3 as in SEQ ID NO:2. the polypeptide as in SEQ ID NO: 18 comprising the mutations K45N, V47T, T63E, T74E, H78E as compared to wild-type TIMP-3 as in SEQ ID NO:2; the polypeptide as in SEQ ID NO: 23 comprising the mutations K45S, F57N as compared to wild-type TIMP-3 as in SEQ ID NO:2; and the polypeptide as in SEQ ID NO: 24 comprising the mutations K45S, K133S, F57N as compared to wild-type TIMP-3 as in SEQ ID NO:2.
A system, comprising: one of a splice tray (200, 500), a fiber optic connector having a connector housing, or an optical module having a module housing; first and second optical fibers (504a and 504b, 260 and 252, 504c and 504d, 916 and 918); and an optical splice package (120, 120a, 120b, 120c, 120d, 120e, 120f) splicing together the first and second optical fibers, the first and second optical fibers having elastic bending characteristics, the optical splice package being installed or stored at the splice tray, or housed in the connector housing or in an interior of the module housing, in a free-floating configuration such that the splice package is not fixated to the splice tray, the fiber optic connector, or the module housing, characterized in the optical splice package comprising: a splice housing (126, 322, 360, 372, 380, 402, 1100) including a mechanical alignment feature (326, 364, 366, 368, 370, 382, 384, 386, 390, 400, 404, 406, 1112, 1118, 1120) for co-axially aligning ends of the first and second optical fibers within the splice housing, the splice housing containing adhesive for securing the ends of the first and second optical fibers within the splice housing, the optical splice package having a weight less than: a spring force corresponding to the elastic bending characteristics of the first and second optical fibers, or less than a spring force generated by the inherent elastic bending characteristics of the spliced optical fibers when the spliced optical fibers are bent at their minimum bend radius. one of a splice tray (200, 500), a fiber optic connector having a connector housing, or an optical module having a module housing; first and second optical fibers (504a and 504b, 260 and 252, 504c and 504d, 916 and 918); and an optical splice package (120, 120a, 120b, 120c, 120d, 120e, 120f) splicing together the first and second optical fibers, the first and second optical fibers having elastic bending characteristics, the optical splice package being installed or stored at the splice tray, or housed in the connector housing or in an interior of the module housing, in a free-floating configuration such that the splice package is not fixated to the splice tray, the fiber optic connector, or the module housing, characterized in the optical splice package comprising: a splice housing (126, 322, 360, 372, 380, 402, 1100) including a mechanical alignment feature (326, 364, 366, 368, 370, 382, 384, 386, 390, 400, 404, 406, 1112, 1118, 1120) for co-axially aligning ends of the first and second optical fibers within the splice housing, the splice housing containing adhesive for securing the ends of the first and second optical fibers within the splice housing, the optical splice package having a weight less than: a spring force corresponding to the elastic bending characteristics of the first and second optical fibers, or less than a spring force generated by the inherent elastic bending characteristics of the spliced optical fibers when the spliced optical fibers are bent at their minimum bend radius.
A microfluidic delivery device comprising: a reservoir that forms a hollow body with an opening, the reservoir having a reservoir volume; a transport member having a first end portion and a second end portion, wherein at least a portion of the first end portion of the transport member is in fluid communication with the reservoir, and wherein the transport member has a transport member volume that is less than 60% of the reservoir volume, preferably less than 40% of the reservoir volume, preferably less than 20% of the reservoir volume; an enclosure at least partly closing the opening of the reservoir; and a microfluidic delivery member comprising a microfluidic die, the microfluidic die having a fluid chamber in fluid communication with at least a portion of the second end portion of the transport member at an inlet of the fluid chamber, the microfluidic die also including a nozzle at an outlet of the fluid chamber, and an adapter disposed adjacent at least a portion of the second end portion of the transport member, the adapter having a wall that forms a cavity for receiving the second end portion of the transport member, wherein a capillary passage is formed at an interface between the wall of the adapter and the second end portion of the transport member, wherein the capillary passage has a largest effective pore size and wherein the transport member has an average effective pore size, and wherein the largest effective pore size of the capillary passage is smaller than the average effective pore size of the transport member, such that obstruction of the nozzle by air bubbles is hindered. a reservoir that forms a hollow body with an opening, the reservoir having a reservoir volume; a transport member having a first end portion and a second end portion, wherein at least a portion of the first end portion of the transport member is in fluid communication with the reservoir, and wherein the transport member has a transport member volume that is less than 60% of the reservoir volume, preferably less than 40% of the reservoir volume, preferably less than 20% of the reservoir volume; an enclosure at least partly closing the opening of the reservoir; and a microfluidic delivery member comprising a microfluidic die, the microfluidic die having a fluid chamber in fluid communication with at least a portion of the second end portion of the transport member at an inlet of the fluid chamber, the microfluidic die also including a nozzle at an outlet of the fluid chamber, and an adapter disposed adjacent at least a portion of the second end portion of the transport member, the adapter having a wall that forms a cavity for receiving the second end portion of the transport member, wherein a capillary passage is formed at an interface between the wall of the adapter and the second end portion of the transport member, wherein the capillary passage has a largest effective pore size and wherein the transport member has an average effective pore size, and wherein the largest effective pore size of the capillary passage is smaller than the average effective pore size of the transport member, such that obstruction of the nozzle by air bubbles is hindered.
A dolly comprising a deck with: - a top side for receiving parcelled goods, the top side having a flat periphery, which defines a quadrilateral cargo carrying surface, and - a flank extending from the periphery of the top side so as to create the thickness of the deck, characterized by at least one demountable restrainer, which is attached to the flank of the dolly through a shape coupling between the restrainer and the deck such to extend from the flank and to project past the top side for supporting parcelled goods on the deck. - a top side for receiving parcelled goods, the top side having a flat periphery, which defines a quadrilateral cargo carrying surface, and - a flank extending from the periphery of the top side so as to create the thickness of the deck,
Mounting device (10; 110) for mounting a pair of balise (11A, 11B; 11C, 11D) to the sleepers (T1, T2) of a track (T_R) of a railway line or similar, comprising: - a first support base to support a first balise of said pair; - first fastening elements associated with the first support base to fix the mounting device (10; 110) to a first sleeper of said track (T_R); characterised in that it comprises: - a second support base to support a second balise of said pair; - second fastening elements associated with the second support base to fix the mounting device (10; 110) to a second sleeper of said track (T_R) that is located a given distance from the first sleeper; and - mechanical connection elements (15, 115) interposed between said first and second support base (12A, 12B); the distance between the first and the second fastening elements (13A, 13B) being selectively modifiable. - a first support base to support a first balise of said pair; - first fastening elements associated with the first support base to fix the mounting device (10; 110) to a first sleeper of said track (T_R); characterised in that it comprises: - a second support base to support a second balise of said pair; - second fastening elements associated with the second support base to fix the mounting device (10; 110) to a second sleeper of said track (T_R) that is located a given distance from the first sleeper; and - mechanical connection elements (15, 115) interposed between said first and second support base (12A, 12B); the distance between the first and the second fastening elements (13A, 13B) being selectively modifiable.