mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: - a bus; - a plurality of devices (106-1, 106-2,..., 106-N) coupled to the bus and configured to communicate with each other via the bus via one or more commands; and - a master controller coupled to the bus and configured to supply power to the plurality of devices (106-1, 106-2,..., 106-N) via the bus and to control communication between the plurality of devices (106-1, 106-2, 106-N); wherein each command comprises a forward message communicated from any first device of the plurality of devices to any second device of the plurality of devices and a response message communicated from the any second device to the any first device, wherein each forward message has an associated time required for the transmission of the forward message and each response message has an associated time required for the transmission of the response message, wherein each device in the plurality of devices includes an associated energy storage circuit (110-1, 110-2,..., 110-N); wherein the master controller is configured to calculate recovery times (T R), wherein each recovery time (T R) is calculated based on the associated times of a respective command and an estimate of a time to charge an energy storage circuit (110-1, 110-2,..., 110-N) in at least one of the devices in the plurality of devices (106-1, 106-2,..., 106-N), wherein the master controller is further configured to cause the plurality of devices (106-1, 106-2, 106-N) to wait in each case for the calculated recovery time (T R) of a respective command after the end of the respective command before beginning of a subsequent command, wherein the master controller is further configured to supply power to the plurality of devices during the calculated recovery times (T R); characterized in that the master controller is further configured to monitor a voltage on the bus after the end of a respective command and before the beginning of the subsequent command and, in response to the monitored voltage to cause the plurality of devices (106-1, 106-2,..., 106-N) to wait for an extra recovery time (T ER) before waiting for the calculated recovery time (T R) to allow the voltage to return to a first level from a second level, the second level being lower than the first level. - a bus; - a plurality of devices (106-1, 106-2,..., 106-N) coupled to the bus and configured to communicate with each other via the bus via one or more commands; and - a master controller coupled to the bus and configured to supply power to the plurality of devices (106-1, 106-2,..., 106-N) via the bus and to control communication between the plurality of devices (106-1, 106-2, 106-N);
A process comprising: receiving, by a cloud server, via a communications device, log in information of a predetermined user associated with a plurality of network enabled video cameras; linking, by the cloud server, the log in information to the plurality of network enabled video cameras; simultaneously enabling, by the cloud server, each network enabled video camera of the plurality of network enabled video cameras to immediately start streaming video to a relay server; in response to receiving, from the communications device, a designation of at least one network enabled video camera of the plurality of network enabled video cameras forwarding at least one video stream from the designated at least one network enabled video camera of the plurality of network enabled video cameras to the communications device, and terminating video streams from all network enabled video cameras of the plurality of network enabled video cameras except for the designated at least one network enabled video camera of the plurality of network enabled video cameras. receiving, by a cloud server, via a communications device, log in information of a predetermined user associated with a plurality of network enabled video cameras; linking, by the cloud server, the log in information to the plurality of network enabled video cameras; simultaneously enabling, by the cloud server, each network enabled video camera of the plurality of network enabled video cameras to immediately start streaming video to a relay server; in response to receiving, from the communications device, a designation of at least one network enabled video camera of the plurality of network enabled video cameras forwarding at least one video stream from the designated at least one network enabled video camera of the plurality of network enabled video cameras to the communications device, and terminating video streams from all network enabled video cameras of the plurality of network enabled video cameras except for the designated at least one network enabled video camera of the plurality of network enabled video cameras.
A method in a user equipment for adjusting a transmit timing of uplink transmissions to a network node in a telecommunications system, which user equipment is configurable with more than one aggregated serving cells, which more than one aggregated serving cells are grouped into one or more groups of serving cells based on a timing advance value of each of the aggregated serving cells, which one or more groups of serving cells each comprises a timing reference serving cell, wherein the reception timing of a downlink transmission from a timing reference serving cell is used as a timing reference for the transmit timing of uplink transmissions for the serving cells in the group of serving cells comprising the timing reference serving cell, respectively, the method comprising: - determining a change to a second timing reference serving cell in a group of serving cells, which second timing reference serving cell is different from a first timing reference serving cell currently being used as the timing reference serving cell for the group of serving cells; and - applying an incremental adjustment of the transmit timing of uplink transmissions for the serving cells in the group of serving cells with respect to a timing reference based on the reception timing of a downlink transmission from the second timing reference serving cell in the user equipment. - determining a change to a second timing reference serving cell in a group of serving cells, which second timing reference serving cell is different from a first timing reference serving cell currently being used as the timing reference serving cell for the group of serving cells; and - applying an incremental adjustment of the transmit timing of uplink transmissions for the serving cells in the group of serving cells with respect to a timing reference based on the reception timing of a downlink transmission from the second timing reference serving cell in the user equipment.
An on-body, wearable transceiver for interfacing with an implantable analyte sensor in a continuous analyte monitoring system, the transceiver comprising: an interface device configured to convey a power signal to the implantable analyte sensor and to receive data signals from the implantable analyte sensor; a battery; a processor configured to calculate an analyte concentration value based on one or more of the received data signals from the implantable analyte sensor; a notification device including a vibration motor, wherein the notification device is configured to generate: a vibrational signal having a first pattern to indicate that the calculated analyte concentration value has exceeded or has fallen below a threshold value, and a vibrational signal having a second pattern different than the first pattern to indicate that a power level of the battery is below a threshold; and a communication circuit configured to transmit data to an external device (338, 340), wherein the interface device is an antenna configured to wirelessly convey the power signal to an antenna of the implantable analyte sensor and to wirelessly receive the data signals from the antenna of the implantable analyte sensor. an interface device configured to convey a power signal to the implantable analyte sensor and to receive data signals from the implantable analyte sensor; a battery; a processor configured to calculate an analyte concentration value based on one or more of the received data signals from the implantable analyte sensor; a notification device including a vibration motor, wherein the notification device is configured to generate: a vibrational signal having a first pattern to indicate that the calculated analyte concentration value has exceeded or has fallen below a threshold value, and a vibrational signal having a second pattern different than the first pattern to indicate that a power level of the battery is below a threshold; and a vibrational signal having a first pattern to indicate that the calculated analyte concentration value has exceeded or has fallen below a threshold value, and a vibrational signal having a second pattern different than the first pattern to indicate that a power level of the battery is below a threshold; and a communication circuit configured to transmit data to an external device (338, 340), wherein the interface device is an antenna configured to wirelessly convey the power signal to an antenna of the implantable analyte sensor and to wirelessly receive the data signals from the antenna of the implantable analyte sensor.
Bearing including at least an inner ring, an outer ring, and rolling bodies arranged between said inner and outer rings, one of said rings being designed to turn and the other not, and one of said rings including an inducing element designed to generate an inducing electromagnetic field, the other of said rings including an electrical circuit in which an induced current is generated when one of the rings turns in relation to the other of said rings, and that the inducing element generates an inducing electromagnetic field, said bearing being characterized in that the inducing element designed to generate an inducing electromagnetic field includes a module having a piezoelectric effect and/or a module having a thermoelectric effect.
A compound of formula wherein - R 1 is a C 17 -C 30 saturated or unsaturated linear alkyl optionally substituted by one or more C 1 -C 3 alkyl radicals, - M 2 -Q 2 and M 3 -Q 3 are optionally present, - M 1 is selected from the group consisting of mannosyl, dimannosyl and trimannosyl, - M 2 et M 3 are independently selected from the group consisting of mannosyl, dimannosyl, trimannosyl and therapeutic agent moieties, preferably anti-infectious agent moieties, having a molecular weight of at most 800 g/mol -1, - Q 1, Q 2 and Q 3 are independently selected from the group of oligoether-based spacers comprising at least one -(R 8 O) n - moiety wherein R 8 is a linear or branched C 1 -C 4 alkyl and n is an integer from 2 to 10, - LINKER is selected among bifunctional, trifunctional and tetrafunctional linkers having a backbone of 1 to 20 carbon atoms and at least two heteroatoms independently selected from N, S and O, or a pharmaceutically acceptable salt, solvate or ester thereof, for use as a drug. - R 1 is a C 17 -C 30 saturated or unsaturated linear alkyl optionally substituted by one or more C 1 -C 3 alkyl radicals, - M 2 -Q 2 and M 3 -Q 3 are optionally present, - M 1 is selected from the group consisting of mannosyl, dimannosyl and trimannosyl, - M 2 et M 3 are independently selected from the group consisting of mannosyl, dimannosyl, trimannosyl and therapeutic agent moieties, preferably anti-infectious agent moieties, having a molecular weight of at most 800 g/mol -1, - Q 1, Q 2 and Q 3 are independently selected from the group of oligoether-based spacers comprising at least one -(R 8 O) n - moiety wherein R 8 is a linear or branched C 1 -C 4 alkyl and n is an integer from 2 to 10, - LINKER is selected among bifunctional, trifunctional and tetrafunctional linkers having a backbone of 1 to 20 carbon atoms and at least two heteroatoms independently selected from N, S and O,
Use as perfuming ingredient of a compound of formula wherein R 1 represents a hydrogen atom or a methyl group and R 2 represents a hydrogen atom or a methyl or ethyl group; to confer, enhance, improve or modify the odor of perfuming compositions having an oud character.
A multi-stage thermal isolator apparatus comprising: a first interface platform and a second interface platform, one of the interface platforms (202, 204) configured to be coupled to a support structure and the other interface platform (204, 202) configured to be coupled to a device that operates at a temperature different than a temperature of the support structure; at least one intermediate stage platform; struts connecting the first interface platform to the at least one intermediate stage platform; and struts connecting the second interface platform to the at least one intermediate stage platform; wherein top surfaces of the first and second interface platforms (202, 204) are substantially coplanar; and wherein at least a portion of the second interface platform resides within an opening of the first interface platform, and wherein a gap exists between the first interface platform and the second interface platform along an outer periphery of the second interface platform. a first interface platform and a second interface platform, one of the interface platforms (202, 204) configured to be coupled to a support structure and the other interface platform (204, 202) configured to be coupled to a device that operates at a temperature different than a temperature of the support structure; at least one intermediate stage platform; struts connecting the first interface platform to the at least one intermediate stage platform; and struts connecting the second interface platform to the at least one intermediate stage platform; wherein top surfaces of the first and second interface platforms (202, 204) are substantially coplanar; and wherein at least a portion of the second interface platform resides within an opening of the first interface platform, and wherein a gap exists between the first interface platform and the second interface platform along an outer periphery of the second interface platform.
A method of fabricating packaged semiconductor devices in panel format, comprising: providing a flat panel sheet as a carrier including a stiff substrate of an insulating plate suitable to maintain panel flatness, and a tape having a surface layer of a first adhesive releasable at elevated temperatures, a core base film, and a bottom layer with a second adhesive, the bottom layer attached to the substrate, the panel having lateral dimensions suitable for a set of contiguous semiconductor chips; attaching a set of contiguous semiconductor chips onto the first adhesive layer, the set forming a rectangle with sidewalls, the chip terminals having metal bumps facing away from the first adhesive layer; laminating, under vacuum suction, a compliant insulating material to cohesively cover the chip terminal bumps and to fill gaps between the bumps, and to form an insulating frame surrounding the rectangle sidewalls, the material having a coefficient of thermal expansion approaching the coefficient of the semiconductor chips; grinding lamination material uniformly until the tops of the metal bumps are exposed; plasma-cleaning and cooling the panel and attached chip set in an equipment for sputtering metals; and sputtering, at uniform energy and rate, at least one layer of metal onto the exposed lamination and terminal bumps. providing a flat panel sheet as a carrier including a stiff substrate of an insulating plate suitable to maintain panel flatness, and a tape having a surface layer of a first adhesive releasable at elevated temperatures, a core base film, and a bottom layer with a second adhesive, the bottom layer attached to the substrate, the panel having lateral dimensions suitable for a set of contiguous semiconductor chips; attaching a set of contiguous semiconductor chips onto the first adhesive layer, the set forming a rectangle with sidewalls, the chip terminals having metal bumps facing away from the first adhesive layer; laminating, under vacuum suction, a compliant insulating material to cohesively cover the chip terminal bumps and to fill gaps between the bumps, and to form an insulating frame surrounding the rectangle sidewalls, the material having a coefficient of thermal expansion approaching the coefficient of the semiconductor chips; grinding lamination material uniformly until the tops of the metal bumps are exposed; plasma-cleaning and cooling the panel and attached chip set in an equipment for sputtering metals; and sputtering, at uniform energy and rate, at least one layer of metal onto the exposed lamination and terminal bumps.
Housing component, comprising at least two bodies of light metal, wherein the first body is a light metal and the second body is a light metal with welding promotion materials in the form of alloy components of the light metal and a welded joint is formed between the first and second body and molten material of the first body and molten material of the second body resulting in a mixture is present in the welded joint, characterized in that the first body is a housing part with an opening for accommodating the second body and is made of aluminum, preferably ultra-pure aluminum; the second body is a base body with an electrical conductor and a glass or glass-ceramic material, wherein the electrical conductor in the glass or glass-ceramic material is passed through the base body, the second body consists of an aluminum alloy and the welding promotion materials in the aluminum alloy comprise Mn and/or Mg and/or Si and/or Zr, wherein the welding promotion materials in total comprise 2 to 10% by weight of Mn and/or Mg and/or Si and/or Zr, in particular 3 to 8 % by weight, more preferably 4 to 6 % by weight, and the content of the welding promotion materials in the mixture is lower than the content of the welding promotion materials in the second component. the first body is a housing part with an opening for accommodating the second body and is made of aluminum, preferably ultra-pure aluminum; the second body is a base body with an electrical conductor and a glass or glass-ceramic material, wherein the electrical conductor in the glass or glass-ceramic material is passed through the base body, the second body consists of an aluminum alloy and the welding promotion materials in the aluminum alloy comprise Mn and/or Mg and/or Si and/or Zr, wherein the welding promotion materials in total comprise 2 to 10% by weight of Mn and/or Mg and/or Si and/or Zr, in particular 3 to 8 % by weight, more preferably 4 to 6 % by weight, and the content of the welding promotion materials in the mixture is lower than the content of the welding promotion materials in the second component.
A pressing apparatus associated with an absorbent article, comprising: i. a pair of rollers that are driven and rotate with outer circumferential surfaces thereof facing each other, when a fibrous continuous sheet (4; 6) overlapped with an article to be overlapped with a thermoplastic adhesive therebetween is passed in a continuous direction of the fibrous continuous sheet (4; 6) through a roller gap (Gr) between the pair of rollers, ii. the pressing apparatus sandwiching and pressing the article to be overlapped and the fibrous continuous sheet between the outer circumferential surfaces, characterized by iii. an adhesive application device that includes a nozzle for applying the thermoplastic adhesive; and iv. a heating mechanism that heats at least a roller of the pair of rollers that is positioned on a side of the fibrous continuous sheet, v. the heating mechanism heating the roller so as to keep a temperature of the outer circumferential surface of the roller within a range from 70°C to 120°C vi. wherein the thermoplastic adhesive just before reaching the roller gap (Gr) being substantially in a cohesive state, vii. the heating mechanism includes a heating element inserted in a receiving hole, viii. the receiving hole receives the heating element along a rotational shaft (cm 2) of the roller and is formed so that a center of the receiving hole corresponds to the rotational shaft. i. a pair of rollers that are driven and rotate with outer circumferential surfaces thereof facing each other, when a fibrous continuous sheet (4; 6) overlapped with an article to be overlapped with a thermoplastic adhesive therebetween is passed in a continuous direction of the fibrous continuous sheet (4; 6) through a roller gap (Gr) between the pair of rollers, ii. the pressing apparatus sandwiching and pressing the article to be overlapped and the fibrous continuous sheet between the outer circumferential surfaces, characterized by iii. an adhesive application device that includes a nozzle for applying the thermoplastic adhesive; and iv. a heating mechanism that heats at least a roller of the pair of rollers that is positioned on a side of the fibrous continuous sheet, v. the heating mechanism heating the roller so as to keep a temperature of the outer circumferential surface of the roller within a range from 70°C to 120°C vi. wherein the thermoplastic adhesive just before reaching the roller gap (Gr) being substantially in a cohesive state, vii. the heating mechanism includes a heating element inserted in a receiving hole, viii. the receiving hole receives the heating element along a rotational shaft (cm 2) of the roller and is formed so that a center of the receiving hole corresponds to the rotational shaft.
A method of automatically modifying a data-bearing image, comprising: determining a number of white modules and a number of black modules of the data-bearing image used to encode first data and extra data, corresponding to the first data, when the number of white modules is greater than or equal to the number of black modules, modifying at least some of the number of white modules to encode at least some of the first data and at least some of the extra data; and when the number of white modules is less than the number of black modules, modifying at least some of the number of white modules to encode the first data. determining a number of white modules and a number of black modules of the data-bearing image used to encode first data and extra data, corresponding to the first data, when the number of white modules is greater than or equal to the number of black modules, modifying at least some of the number of white modules to encode at least some of the first data and at least some of the extra data; and when the number of white modules is less than the number of black modules, modifying at least some of the number of white modules to encode the first data.
Disc brake disc comprising a braking band and a bell, the braking band and the bell being made separately from each other as separate components and being subsequently connected together to make said disc, wherein the bell is connected to the braking band at a central hole of said braking band coaxial to an axis of the disc by means of a connection ring which is circumferentially interposed between the braking band and the bell coaxially to said central hole, said connection ring is intimately connected to the braking band, being made by co-moulding with the braking band, characterised in that the bell is connected to the connection ring by means of a shape coupling, wherein the connection ring comprises a toothed annular surface facing radially towards the inside of the disc and wherein the bell is provided with an annular insert portion, which is suitable to insert inside the connection ring and is counter-shaped to the toothed annular surface of the connection ring to engage on it in locking.