mhurhangee/ep-ind-claims huggingface dataset:
Lighting system comprising a transmitting device and an emergency light, wherein the emergency light has a lighting means and an operating device for operating the lighting means; the operating device has a transponder and a control apparatus; the transponder is designed to receive and store data from the transmitting device at least when the operating device is switched off; the control apparatus is designed to read the data stored in the transponder at least after the operating device is switched on and to use it to control the lighting means; the emergency light can be operated in maintained mode or in stand-by mode; the emergency light is switched on during mains network operation if the emergency light is operated in maintained mode; the emergency light is switched off during mains network operation and switched on during a power failure if the emergency light is operated in stand-by mode; and the transponder is designed to receive and store the data from the transmitting device for selecting maintained mode or stand-by mode. the operating device has a transponder and a control apparatus; the transponder is designed to receive and store data from the transmitting device at least when the operating device is switched off; the control apparatus is designed to read the data stored in the transponder at least after the operating device is switched on and to use it to control the lighting means; the emergency light can be operated in maintained mode or in stand-by mode; the emergency light is switched on during mains network operation if the emergency light is operated in maintained mode; the emergency light is switched off during mains network operation and switched on during a power failure if the emergency light is operated in stand-by mode; and the transponder is designed to receive and store the data from the transmitting device for selecting maintained mode or stand-by mode.
A method of controlling a mobile terminal, the method comprising: controlling, via a processor, a plurality of peripheral devices required for a packet data or an incoming call processing in an operating mode of the mobile terminal, the processor having a control authority for controlling plurality of peripheral devices; detecting, via an arbiter, a mode of the processor; temporarily granting, via an arbiter, a control authority for controlling predetermined peripheral devices required for an incoming call processing among the plurality of peripheral devices to a 3G modem when the processor is booted up or the mode of the processor is switched from the operating mode into a sleep mode; receiving, via a communication unit on the mobile terminal, the incoming call; and managing, via the 3G modem, circuit data and the predetermined peripheral devices for processing the incoming call until the processor is woken up and switched into an operating mode or the processor is booted up and normalized; and automatically returning, via an arbiter, the control authority that has been granted to the 3G modem to the processor when the processor is woken up and switched into the operating mode or the processor is booted up and normalized, wherein a wake-up time and a booting speed of the 3G modem are faster than those of the processor. controlling, via a processor, a plurality of peripheral devices required for a packet data or an incoming call processing in an operating mode of the mobile terminal, the processor having a control authority for controlling plurality of peripheral devices; detecting, via an arbiter, a mode of the processor; temporarily granting, via an arbiter, a control authority for controlling predetermined peripheral devices required for an incoming call processing among the plurality of peripheral devices to a 3G modem when the processor is booted up or the mode of the processor is switched from the operating mode into a sleep mode; receiving, via a communication unit on the mobile terminal, the incoming call; and managing, via the 3G modem, circuit data and the predetermined peripheral devices for processing the incoming call until the processor is woken up and switched into an operating mode or the processor is booted up and normalized; and automatically returning, via an arbiter, the control authority that has been granted to the 3G modem to the processor when the processor is woken up and switched into the operating mode or the processor is booted up and normalized, wherein a wake-up time and a booting speed of the 3G modem are faster than those of the processor.
A nonwoven cellulose fiber fabric, in particular directly manufactured from lyocell spinning solution, wherein the fabric comprises a network of substantially endless fibers differing concerning fiber diameter so that a ratio between a largest fiber diameter and a smallest fiber diameter is more than 1.5, wherein different ones of the fibers are located at least partially in different distinguishable layers (200, 202), wherein at least 80 mass percent of the fibers have an average fiber diameter in a range between 3 μm and 40 μm, and wherein at least some of the fibers are mutually aligned side-by-side at least over a portion of their length to form a superordinate fiber structure having a larger diameter than the individual fibers of the superordinate fiber structure.
Haptic interface comprising an element that interacts with a user, a rotation shaft (2, 102) with a longitudinal axis to which the user interaction element is fixed in rotation, an element that interacts with a fluid (12, 112), said fluid interaction element (12, 112) being fixed in rotation to said shaft (2, 102), said fluid being of magneto-rheological type, a system for generating a magnetic field in said fluid, and a control unit capable of generating orders to said magnetic field generation system so as to modify the magnetic field, said interaction element comprising at least one cylindrical wall with a longitudinal axis, characterized in that the cylindrical wall comprises through openings (12.3, 112.3) and/or patterns in relief and/or recessed patterns.
Assembly of a medical device adapted to be implanted in a human or animal body and a packaging, wherein: - said medical device comprises a casing enclosing a fluid reservoir and a fluid outlet forming a fluid link between the reservoir and a volume outside the casing, - the packaging includes a tank comprising a bottom, a side wall and a top face opposite the bottom in a vertical direction, the bottom of the tank extending in a horizontal plane perpendicular to the vertical direction, at least one of the bottom the side wall and the top face comprises a first holding element adapted to hold the casing in the tank, characterised in that the tank further comprises an opening configured to fill the tank with a biocompatible fluid so as to fill with said biocompatible fluid a fluid circuit extending from the fluid outlet to the reservoir of the medical device, the casing being held in the tank by said first holding element so that the reservoir is positioned between the bottom of the tank and the fluid outlet to allow the fluid circuit to be drained without manipulation of the medical device, said fluid outlet being arranged below the opening so that, when the tank is filled with the biocompatible fluid, said fluid outlet is immersed in the fluid. - said medical device comprises a casing enclosing a fluid reservoir and a fluid outlet forming a fluid link between the reservoir and a volume outside the casing, - the packaging includes a tank comprising a bottom, a side wall and a top face opposite the bottom in a vertical direction, the bottom of the tank extending in a horizontal plane perpendicular to the vertical direction, at least one of the bottom the side wall and the top face comprises a first holding element adapted to hold the casing in the tank, characterised in that the tank further comprises an opening configured to fill the tank with a biocompatible fluid so as to fill with said biocompatible fluid a fluid circuit extending from the fluid outlet to the reservoir of the medical device,
A method for identifying Foundation Fieldbus linking devices which communicate with Foundation Fieldbus devices, characterized in that the method comprising: identifying, by a gateway device comprising one or more computers, a pair of redundant Foundation Fieldbus linking devices in an online state to facilitate communications with associated Foundation Fieldbus linking devices; wherein identifying a pair of redundant Foundation Fieldbus linking devices comprises receiving status information for the linking devices from a controller that manages the linking devices, whether the redundant Foundation Fieldbus linking device is online or offline; determining, by the gateway device, a single virtual address representative of the pair of redundant Foundation Fieldbus linking devices; identifying at least one other Foundation Fieldbus linking device in an offline state; providing, by the gateway device to an external system, information associated with operation of at least one of the pair of redundant linking devices, wherein the virtual address is utilized to represent the at least one linking device; and communicating with the pair of redundant linking devices with the single virtual address instead of the at least one other Foundation Fieldbus linking device in the offline state. identifying, by a gateway device comprising one or more computers, a pair of redundant Foundation Fieldbus linking devices in an online state to facilitate communications with associated Foundation Fieldbus linking devices; wherein identifying a pair of redundant Foundation Fieldbus linking devices comprises receiving status information for the linking devices from a controller that manages the linking devices, whether the redundant Foundation Fieldbus linking device is online or offline; determining, by the gateway device, a single virtual address representative of the pair of redundant Foundation Fieldbus linking devices; identifying at least one other Foundation Fieldbus linking device in an offline state; providing, by the gateway device to an external system, information associated with operation of at least one of the pair of redundant linking devices, wherein the virtual address is utilized to represent the at least one linking device; and communicating with the pair of redundant linking devices with the single virtual address instead of the at least one other Foundation Fieldbus linking device in the offline state.
A material handling system comprising: an automated storage and retrieval system comprising vertically spaced levels storing articles and each level having at least one pickup and deposit station that is horizontally positioned to define a ramped orientation; a wave conveyor having the ramped orientation to move the articles selectively in at least one flow direction to each of the pickup and deposit stations, wherein each pickup and deposit station connects to an inclined conveyor; an article transfer mechanism at each pickup and deposit station respectively to move an article in a selected at least one direction between the wave conveyor and the respective pickup and deposit station; characterized in that: the automated storage and retrieval system is a shuttle rack system; and the material handling system further comprises: left and right buffer locations (1528a-1528b), wherein a pickup and deposit station is flanked by left and right buffer locations (1528a-1528b) within a rack; and shuttle drops (1535a-153 5b) on the left and right buffer locations (1528a-1528b), respectively, wherein the articles are received on the shuttle drops (1535a-1535b). an automated storage and retrieval system comprising vertically spaced levels storing articles and each level having at least one pickup and deposit station that is horizontally positioned to define a ramped orientation; a wave conveyor having the ramped orientation to move the articles selectively in at least one flow direction to each of the pickup and deposit stations, wherein each pickup and deposit station connects to an inclined conveyor; an article transfer mechanism at each pickup and deposit station respectively to move an article in a selected at least one direction between the wave conveyor and the respective pickup and deposit station; characterized in that: the automated storage and retrieval system is a shuttle rack system; and the material handling system further comprises: left and right buffer locations (1528a-1528b), wherein a pickup and deposit station is flanked by left and right buffer locations (1528a-1528b) within a rack; and shuttle drops (1535a-153 5b) on the left and right buffer locations (1528a-1528b), respectively, wherein the articles are received on the shuttle drops (1535a-1535b). the automated storage and retrieval system is a shuttle rack system; and the material handling system further comprises: left and right buffer locations (1528a-1528b), wherein a pickup and deposit station is flanked by left and right buffer locations (1528a-1528b) within a rack; and shuttle drops (1535a-153 5b) on the left and right buffer locations (1528a-1528b), respectively, wherein the articles are received on the shuttle drops (1535a-1535b). left and right buffer locations (1528a-1528b), wherein a pickup and deposit station is flanked by left and right buffer locations (1528a-1528b) within a rack; and shuttle drops (1535a-153 5b) on the left and right buffer locations (1528a-1528b), respectively, wherein the articles are received on the shuttle drops (1535a-1535b).
A combine harvester fan housing assembly comprising: a fan enclosure formed as a single unitary body out of a polymeric material, the fan enclosure comprising a spiral duct spiraling about an axis, a first axial inlet opening sized to axially receive a fan therethrough and a second axial inlet opening; and a discharge duct extending from the spiral duct; characterized in that an inlet ring is releasably mounted to the fan enclosure about the first axial opening, the Inlet ring projecting into the first axial opening by an extent so as to extend radially inward of blade ends of the fan.
A process, comprising: reacting a diisocyanate and an α-hydrox-β-ketone to form a linear condensate, converting the linear condensate into a cyclic oxazolidone based resin or polymer, wherein converting the linear condensate is induced by reacting the linear condensate in the presence of an acid at a temperature of from 23°C to 27°C. reacting a diisocyanate and an α-hydrox-β-ketone to form a linear condensate, converting the linear condensate into a cyclic oxazolidone based resin or polymer, wherein converting the linear condensate is induced by reacting the linear condensate in the presence of an acid at a temperature of from 23°C to 27°C.
A method (500, 600) of communications between a communications device and a remote NFC endpoint, the communications device comprising an NFC controller, NFCC, and a device host, DH, comprising: receiving, at the NFCC, an activation message from the remote NFC endpoint; sending (518, 620), by the NFCC, the activation message to the DH, wherein the NFCC is using a Frame radio frequency, RF, interface over NFC-B RF technology to communicate with the remote NFC endpoint, and wherein the NFCC acts as a relay to communicate messages between the DH and the remote NFC endpoint; and receiving (524, 624), at the NFCC, a generated RF parameter update command from the DH to prompt the NFCC to update one or more corresponding current relevant data exchange parameters with one or more data exchange parameters included in the activation message, based on a determination at the DH that the one or more data exchange parameters included in the activation message are different from the one or more corresponding current relevant data exchange parameters that the NFCC is configured to implement, wherein the data exchange parameters are associated with data exchange between the DH and the remote NFC endpoint. receiving, at the NFCC, an activation message from the remote NFC endpoint; sending (518, 620), by the NFCC, the activation message to the DH, wherein the NFCC is using a Frame radio frequency, RF, interface over NFC-B RF technology to communicate with the remote NFC endpoint, and wherein the NFCC acts as a relay to communicate messages between the DH and the remote NFC endpoint; and receiving (524, 624), at the NFCC, a generated RF parameter update command from the DH to prompt the NFCC to update one or more corresponding current relevant data exchange parameters with one or more data exchange parameters included in the activation message, based on a determination at the DH that the one or more data exchange parameters included in the activation message are different from the one or more corresponding current relevant data exchange parameters that the NFCC is configured to implement, wherein the data exchange parameters are associated with data exchange between the DH and the remote NFC endpoint.
A solar energy converter (1, 101, 201, 300) comprising: a solar energy absorber (2, 102, 202, 302) including a substantially rigid heat transfer device (4, 104, 204) and one or more photovoltaic elements (5, 105, 205) mounted on and bonded to an outer surface of the heat transfer device (4, 104, 204) by a layer of heat conducting adhesive (49, 149) formed of a flexible adhesive material; wherein the heat transfer device (4, 104, 204) is arranged to transfer heat energy away from the one or more photovoltaic elements (5, 105, 205) into a fluid flow along fluid passages (16, 117, 118, 217, 218) within the heat transfer device (4, 104, 204) in order to cool the one or more photovoltaic elements (5, 105, 205); wherein the solar energy absorber (2, 102, 202, 302) is located within an envelope (3, 103, 203, 301); wherein the envelope (3, 103, 203, 301) is a tube; and wherein the envelope (3, 103, 203, 301) is at least partially transparent, and is at least partially evacuated. a solar energy absorber (2, 102, 202, 302) including a substantially rigid heat transfer device (4, 104, 204) and one or more photovoltaic elements (5, 105, 205) mounted on and bonded to an outer surface of the heat transfer device (4, 104, 204) by a layer of heat conducting adhesive (49, 149) formed of a flexible adhesive material; wherein the heat transfer device (4, 104, 204) is arranged to transfer heat energy away from the one or more photovoltaic elements (5, 105, 205) into a fluid flow along fluid passages (16, 117, 118, 217, 218) within the heat transfer device (4, 104, 204) in order to cool the one or more photovoltaic elements (5, 105, 205); wherein the solar energy absorber (2, 102, 202, 302) is located within an envelope (3, 103, 203, 301); wherein the envelope (3, 103, 203, 301) is a tube; and wherein the envelope (3, 103, 203, 301) is at least partially transparent, and is at least partially evacuated.
A therapeutic composition comprising a population of cells comprising at least one million human hematopoietic stem or progenitor cells wherein: a) the hematopoietic stem or progenitor cells have been contacted ex vivo at a temperature of 33 °C to 41 °C with an agent that increases CXCR4 gene expression in the cells, wherein the agent is a cAMP enhancer, a Gα-s activator, an agent that selectively binds the PGE 2 EP 4 receptor, or comprises PGE 2 or a PGE 2 R 2 or PGE 2 R 4 agonist b) gene expression of CXCR4 is increased in the hematopoietic stem or progenitor cells by at least 5-fold compared to the expression of CXCR4 in non-contacted hematopoietic stem or progenitor cells; and c) wherein the therapeutic composition comprises a sterile, therapeutically effective amount of hematopoietic stem or progenitor cells ready for administration to a patient, wherein the hematopoietic stem or progenitor cells optionally have been contacted with the agent for a time of: [[a]] 1) at least one hour; [[b]] 2) one hour to six hours; [[c]] 3) two hours to six hours; or [[d]] 4) two hours. a) the hematopoietic stem or progenitor cells have been contacted ex vivo at a temperature of 33 °C to 41 °C with an agent that increases CXCR4 gene expression in the cells, wherein the agent is a cAMP enhancer, a Gα-s activator, an agent that selectively binds the PGE 2 EP 4 receptor, or comprises PGE 2 or a PGE 2 R 2 or PGE 2 R 4 agonist b) gene expression of CXCR4 is increased in the hematopoietic stem or progenitor cells by at least 5-fold compared to the expression of CXCR4 in non-contacted hematopoietic stem or progenitor cells; and c) wherein the therapeutic composition comprises a sterile, therapeutically effective amount of hematopoietic stem or progenitor cells ready for administration to a patient, [[a]] 1) at least one hour; [[b]] 2) one hour to six hours; [[c]] 3) two hours to six hours; or [[d]] 4) two hours.
A sensor for sensing a first substance and a second substance, the sensor comprising: - first and second sensor components each comprising a first material, the first material being sensitive to both the first substance and the second substance, the second substance being CO 2; and - a barrier comprising a barrier layer formed from a nanocomposite material, to prevent or reduce penetration of the second substance into the second sensor component so that the second sensor component is able to sense levels of the first substance but not the second substance, whereas the first sensor component is able to sense levels of both the first and second substances. - first and second sensor components each comprising a first material, the first material being sensitive to both the first substance and the second substance, the second substance being CO 2; and - a barrier comprising a barrier layer formed from a nanocomposite material, to prevent or reduce penetration of the second substance into the second sensor component so that the second sensor component is able to sense levels of the first substance but not the second substance, whereas the first sensor component is able to sense levels of both the first and second substances.
A surgical saw blade having an upper surface and a lower surface, the saw blade comprising: a first end having right and left side edges, the first end being configured to connect to an oscillating head of a powered saw in use, the right and the left side edges of the proximal end being configured to engage the oscillating head of a powered saw in use; a second end having a plurality of teeth thereon; an elongated shank having right and left side edges, where the elongated shank connects the first and second ends; wherein the first end is narrower than the shank, and a surface connects the first end to the elongated shank; the surface comprises a stopping surface, the stopping surface being configured to engage the oscillating head so as to ensure correct positioning of the saw blade relative to the oscillating head, wherein the stopping surface forms an acute angle with at least one of the right and left side edges of the proximal end. a first end having right and left side edges, the first end being configured to connect to an oscillating head of a powered saw in use, the right and the left side edges of the proximal end being configured to engage the oscillating head of a powered saw in use; a second end having a plurality of teeth thereon; an elongated shank having right and left side edges, where the elongated shank connects the first and second ends; wherein the first end is narrower than the shank, and a surface connects the first end to the elongated shank; the surface comprises a stopping surface, the stopping surface being configured to engage the oscillating head so as to ensure correct positioning of the saw blade relative to the oscillating head, wherein the stopping surface forms an acute angle with at least one of the right and left side edges of the proximal end.