mhurhangee/ep-ind-claims huggingface dataset:
A method for packaging small-sized articles, in particular chocolates or candy with chocolate coating, in continuous operation by a packaging machine of modular design, wherein the packaging machine can be converted between an operation with two article-carrying heads (31, 41) and with three or more article-carrying heads (21, 31, 41), wherein depending on an article type and/or an article orientation and/or a type of packaging, in particular a wrapping type of packaging, the articles are fed separately by a predetermined feeding device selectable from predetermined conveying systems, to a predetermined packaging process and are guided to an article gripper station rotatable about at least one axis of rotation defined as a central stationary axis which forms a removal station in the packaging machine with two article-carrying heads (31, 41) or which is preceded by a removal wheel in the packaging machine with three or more article-carrying heads (21, 31, 41), wherein additionally packaging material for packaging the article is supplied to this article gripper station, subsequently the packaging material together with the article is supplied to a packaging station rotatable at least about a stationary axis of rotation, the packaging station including a packing head to which, depending on the type of packaging, predetermined wrapping devices (42, 43), in particular turning and/or folding stations, which can be selected from various devices are associated and subsequently the packed articles are discharged and wherein the removal wheel and/or the article gripper station and/or the packaging station with the packing head and the associated wrapping devices (42, 43) are mounted exchangeably on a machine frame of the packaging machine and are combined in a flexible manner with respect to the central stationary axis to allow for different types of articles, different orientations of articles and types of packaging, in particular types of wrapping.
A method of a base station in a wireless network, the method comprising: transmitting, to a subscriber station, pilot signals using a plurality of antennas, the pilot signals corresponding to the plurality of antennas, respectively; receiving, from the subscriber station, correlation information generated using the pilot signals by the subscriber station, the correlation information indicating a correlation level for downlink channels corresponding to the plurality of antennas; and determining one of a beamforming scheme and a transmit diversity scheme as a transmission scheme to use for transmitting a downlink signal based on the correlation information. transmitting, to a subscriber station, pilot signals using a plurality of antennas, the pilot signals corresponding to the plurality of antennas, respectively; receiving, from the subscriber station, correlation information generated using the pilot signals by the subscriber station, the correlation information indicating a correlation level for downlink channels corresponding to the plurality of antennas; and determining one of a beamforming scheme and a transmit diversity scheme as a transmission scheme to use for transmitting a downlink signal based on the correlation information.
A user interface device comprising: a plurality of geometrically-shaped keys (24, 86-98) slidably retained within a housing, each key (24, 86-98) being associated with a plurality of characters or symbols; and a key driver system comprising: a processing component configured to generate key motion signals according to output information; and a lateral motion component (30, 102) configured to move the plurality of keys (24, 86-98) in a directional plane approximately parallel to a surface of the keys (24, 86-98); and key identifier components configured to move a corresponding one or more keys (24, 86-98) of the plurality of keys(24, 86-98) in a directional plane approximately perpendicular to the surface of the keys(24, 86-98); key depression sensors (126, 124) configured to detect when one or more of the plurality of keys (24, 86-98) is depressed; a lateral movement sensor configured to sense direction of motion of the plurality of keys (24, 86-98); and a selection component for selecting at least one of a character or function based on the detected depression and the sensed direction of motion. a plurality of geometrically-shaped keys (24, 86-98) slidably retained within a housing, each key (24, 86-98) being associated with a plurality of characters or symbols; and a key driver system comprising: a processing component configured to generate key motion signals according to output information; and a lateral motion component (30, 102) configured to move the plurality of keys (24, 86-98) in a directional plane approximately parallel to a surface of the keys (24, 86-98); and key identifier components configured to move a corresponding one or more keys (24, 86-98) of the plurality of keys(24, 86-98) in a directional plane approximately perpendicular to the surface of the keys(24, 86-98); key depression sensors (126, 124) configured to detect when one or more of the plurality of keys (24, 86-98) is depressed; a lateral movement sensor configured to sense direction of motion of the plurality of keys (24, 86-98); and a selection component for selecting at least one of a character or function based on the detected depression and the sensed direction of motion. a processing component configured to generate key motion signals according to output information; and a lateral motion component (30, 102) configured to move the plurality of keys (24, 86-98) in a directional plane approximately parallel to a surface of the keys (24, 86-98); and key identifier components configured to move a corresponding one or more keys (24, 86-98) of the plurality of keys(24, 86-98) in a directional plane approximately perpendicular to the surface of the keys(24, 86-98); key depression sensors (126, 124) configured to detect when one or more of the plurality of keys (24, 86-98) is depressed; a lateral movement sensor configured to sense direction of motion of the plurality of keys (24, 86-98); and a selection component for selecting at least one of a character or function based on the detected depression and the sensed direction of motion.
A system for non-invasively classification of two types of micro-calcifications in human tissue by combining their absorption and small-angle scattering signals; characterised in that said system comprises: a) a set-up for recording absorption and small-angle scattering signals, such as X-ray investigations based on grating-based interferometry or on analyzer-crystal-based imaging or on coded aperture imaging; b) a signal processing means being enabled to analyze two different types of micro-calcifications, said analysis being based on the finding that the two different types of micro-calcifications have opposite absorption and small-angle scattering signals, that is, one type gives a weaker absorption signal but a stronger small-angle scattering signal than the other type or vice-versa; wherein a signal pair (t 1, t 2) is assigned to a pair of two different types of micro-calcifications; t 1, t 2 ⊂ {+,-} and t 1 and t 2 represent the relative signal strength of the absorption and small angle scattering signals, respectively, wherein "+" means this signal is stronger, "-"means this signals is weaker; and an evaluator module comprised in the signal processing means identifies if two signal pairs constitute a combination of (+,-) and (-,+), which yields that the two signal pairs belong to different types of micro-calcifications wherein a micro-calcification signed to (-,+) is determined to be more likely a type I micro-calcification whereas (+,-)indicates that this micro-calcification is determined to be more likely a type II micro-calcification; and wherein the signal processing means are enabled to use the ratio r of the absorption signal and the small-angle scattering signals of the micro-calcification to decouple the thickness parameter and identify micro-calcification types I and II, wherein r = AC SC = μ ̅ ⋅ L c S ̅ ⋅ L = μ ̅ c S ̅, AC is the absorption signal, AC = ∫ 0 L μ l dl = μ ̅ ⋅ L and SC is the small-angle scattering signal, SC = c ∫ 0 L S l dl = c S ̅ ⋅ L; with L is the thickness of the specimen, μ is the attenuation coefficient, S is the generalized scattering parameter, and c is a constant decided by the geometry and system parameters of the set-up; further using an predetermined threshold t that will sort out if, { r < t, one type r > t, another type. a) a set-up for recording absorption and small-angle scattering signals, such as X-ray investigations based on grating-based interferometry or on analyzer-crystal-based imaging or on coded aperture imaging; b) a signal processing means being enabled to analyze two different types of micro-calcifications, said analysis being based on the finding that the two different types of micro-calcifications have opposite absorption and small-angle scattering signals, that is, one type gives a weaker absorption signal but a stronger small-angle scattering signal than the other type or vice-versa;
A method for implementing a convergent Wireless Local Area Network Authentication and Privacy Infrastructure WAPI network architecture in a local Medium Access Control MAC mode, characterized in that the method comprises the following steps: 1) constructing the local MAC mode by splitting a MAC function and a WAPI function of a wireless access point to a wireless terminal point and an access controller respectively; 2) achieving integration between the WAPI and the convergent Wireless Local Area Network WLAN network architecture in the local MAC mode, wherein the step 2) comprises: 2.1) performing a process of associating a station with the wireless terminal point and the access controller; 2.2) performing a process of notifying a beginning of executing a WLAN Authentication Infrastructure WAI protocol between the access controller and the wireless terminal point; 2.3) performing a process of executing the WAI protocol between the station and the access controller; 2.4) performing a process of notifying an ending of executing the WAI protocol between the access controller and the wireless terminal point; and 2.5) performing a process of conducting a privacy communication by using WLAN Privacy Infrastructure WPI between the wireless terminal point and the station. 1) constructing the local MAC mode by splitting a MAC function and a WAPI function of a wireless access point to a wireless terminal point and an access controller respectively; 2) achieving integration between the WAPI and the convergent Wireless Local Area Network WLAN network architecture in the local MAC mode, wherein the step 2) comprises: 2.1) performing a process of associating a station with the wireless terminal point and the access controller; 2.2) performing a process of notifying a beginning of executing a WLAN Authentication Infrastructure WAI protocol between the access controller and the wireless terminal point; 2.3) performing a process of executing the WAI protocol between the station and the access controller; 2.4) performing a process of notifying an ending of executing the WAI protocol between the access controller and the wireless terminal point; and 2.5) performing a process of conducting a privacy communication by using WLAN Privacy Infrastructure WPI between the wireless terminal point and the station. 2.1) performing a process of associating a station with the wireless terminal point and the access controller; 2.2) performing a process of notifying a beginning of executing a WLAN Authentication Infrastructure WAI protocol between the access controller and the wireless terminal point; 2.3) performing a process of executing the WAI protocol between the station and the access controller; 2.4) performing a process of notifying an ending of executing the WAI protocol between the access controller and the wireless terminal point; and 2.5) performing a process of conducting a privacy communication by using WLAN Privacy Infrastructure WPI between the wireless terminal point and the station.
A method, comprising: a wireless terminal sending a layer 1 indication (40, 56, 90, 106, 126) using an uplink transmission resource when the wireless terminal has transitioned from an inactive state to an active state; wherein the uplink transmission resource is pre-allocated for the wireless terminal; repeating the layer 1 indication for at least one more time; the wireless terminal sending a further indication when the wireless terminal has transitioned from an active state to an inactive state; wherein the layer 1 indication is different to the further indication; and wherein transmissions occur on the pre-allocated uplink transmission resource only when the wireless terminal is sending the layer 1 indication on the uplink transmission resource. a wireless terminal sending a layer 1 indication (40, 56, 90, 106, 126) using an uplink transmission resource when the wireless terminal has transitioned from an inactive state to an active state; wherein the uplink transmission resource is pre-allocated for the wireless terminal; repeating the layer 1 indication for at least one more time; the wireless terminal sending a further indication when the wireless terminal has transitioned from an active state to an inactive state; wherein the layer 1 indication is different to the further indication; and wherein transmissions occur on the pre-allocated uplink transmission resource only when the wireless terminal is sending the layer 1 indication on the uplink transmission resource.
A power supply system comprising: an input configured to receive input power from an input power source; an output configured to provide output power to a load; a power factor correction circuit coupled to the input; an inverter having an input connection coupled to the power factor correction circuit and an output connection coupled to the output, the inverter further comprising an inverter switch; a DC bus coupled to the power factor correction circuit and the inverter; a capacitor coupled to the DC bus and switchably connected to the input connection of the inverter; and a switching circuit coupled to the inverter, the switching circuit configured to: direct power from the input to the input connection of the inverter, by passing the capacitor, when in a first mode of operation, wherein the inverter switch remains constantly on in the first mode of operation, and wherein the inverter provides AC power to the output in the first mode of operation; and simultaneously direct power from the input to the input connection of the inverter and DC power from the capacitor to the input connection of the inverter when in a second mode of operation. an input configured to receive input power from an input power source; an output configured to provide output power to a load; a power factor correction circuit coupled to the input; an inverter having an input connection coupled to the power factor correction circuit and an output connection coupled to the output, the inverter further comprising an inverter switch; a DC bus coupled to the power factor correction circuit and the inverter; a capacitor coupled to the DC bus and switchably connected to the input connection of the inverter; and a switching circuit coupled to the inverter, the switching circuit configured to: direct power from the input to the input connection of the inverter, by passing the capacitor, when in a first mode of operation, wherein the inverter switch remains constantly on in the first mode of operation, and wherein the inverter provides AC power to the output in the first mode of operation; and simultaneously direct power from the input to the input connection of the inverter and DC power from the capacitor to the input connection of the inverter when in a second mode of operation. direct power from the input to the input connection of the inverter, by passing the capacitor, when in a first mode of operation, wherein the inverter switch remains constantly on in the first mode of operation, and wherein the inverter provides AC power to the output in the first mode of operation; and simultaneously direct power from the input to the input connection of the inverter and DC power from the capacitor to the input connection of the inverter when in a second mode of operation.
A gyratory crusher comprising: a container having a space for receiving material to be crushed, the space of the container defined at least partially by an inner wall of the gyratory crusher; a crusher head 15 positioned within the container; a top section provided with a spider extending between a first side of the crusher and a second side of the crusher; the crusher head being located within the container such that rotational or eccentric movement of the crusher head causes material located within the container to be crushed; and, a central hub of the spider being positioned adjacent to the crusher head; CHARACTERIZED IN THAT the crusher head has at least one aperture defined therein, and at least one of (i) an eccentric and (ii) a piston of a cylinder is at least partially positioned within the at least one aperture of the crusher head. a container having a space for receiving material to be crushed, the space of the container defined at least partially by an inner wall of the gyratory crusher; a crusher head 15 positioned within the container; a top section provided with a spider extending between a first side of the crusher and a second side of the crusher; the crusher head being located within the container such that rotational or eccentric movement of the crusher head causes material located within the container to be crushed; and, a central hub of the spider being positioned adjacent to the crusher head; CHARACTERIZED IN THAT the crusher head has at least one aperture defined therein, and at least one of (i) an eccentric and (ii) a piston of a cylinder is at least partially positioned within the at least one aperture of the crusher head.
Bracket for connecting roof-mounted structures of a rail vehicle to the rail vehicle, which has at least one mounting flange, said mounting flange having at least one hole through which a screw can be fed, characterised in that the bracket has a sheet metal tongue which is oriented in relation to the hole of the mounting flange such that a slot nut with a receptacle for the screw is able to be positioned on said hole coaxial to the hole of the mounting flange, wherein a welding backing is provided for welding the bracket to the rail vehicle, to which the sheet metal tongue is connected and wherein the welding backing is integrally bonded to the bracket.
An ophthalmic combination comprising i) ((2R,3S,4R,5R)-5-(6-(cyclopentylamino)-9H-purin-9-yl)-3,4-dihydroxytetrahydrofuran-2-yl)methyl nitrate, or a pharmaceutically acceptable salt thereof, and ii) a non-selective beta-adrenergic receptor blocker selected from timolol, levobunolol or betaxolol, for use in reducing elevated intraocular pressure in an eye of a subject i) ((2R,3S,4R,5R)-5-(6-(cyclopentylamino)-9H-purin-9-yl)-3,4-dihydroxytetrahydrofuran-2-yl)methyl nitrate, or a pharmaceutically acceptable salt thereof, and ii) a non-selective beta-adrenergic receptor blocker selected from timolol, levobunolol or betaxolol, for use in reducing elevated intraocular pressure in an eye of a subject
A dispenser stage (100,200,300) comprising: a stage (102,202,302) to be coupled to a rail system to move the stage (102,202,302) in a first plane and a second plane; a substrate nest (112,212,312) coupled to the stage (102,202,302); a substrate (114,214,314) to couple to the substrate nest (112,212,312); an alignment feature (106,206,306) coupled to the stage (102,202,302) to align the substrate nest (112,212,312) with a dispenser to be positioned above the stage (102,202,302); a releasable fastener to couple the substrate nest (112,212,312) to the stage, stage (102,202,302), wherein the releasable fastener is a magnetic fastener (108,208,308); a fastener plate (104,204,304) coupled to a surface of the stage (102,202,302), wherein the fastener plate (104,204,304) includes a slot to receive the magnetic fastener (108,208,308); and a ferromagnetic fastener (110,210,310) including a plate coupled to the substrate nest (112,212,312) such that a position of the ferromagnetic fastener (110,210,310) corresponds to a position of the magnetic fastener (108,208,308). a stage (102,202,302) to be coupled to a rail system to move the stage (102,202,302) in a first plane and a second plane; a substrate nest (112,212,312) coupled to the stage (102,202,302); a substrate (114,214,314) to couple to the substrate nest (112,212,312); an alignment feature (106,206,306) coupled to the stage (102,202,302) to align the substrate nest (112,212,312) with a dispenser to be positioned above the stage (102,202,302); a releasable fastener to couple the substrate nest (112,212,312) to the stage, stage (102,202,302), wherein the releasable fastener is a magnetic fastener (108,208,308); a fastener plate (104,204,304) coupled to a surface of the stage (102,202,302), wherein the fastener plate (104,204,304) includes a slot to receive the magnetic fastener (108,208,308); and a ferromagnetic fastener (110,210,310) including a plate coupled to the substrate nest (112,212,312) such that a position of the ferromagnetic fastener (110,210,310) corresponds to a position of the magnetic fastener (108,208,308).
A method for culturing a bovine progenitor cell, comprising the step of: culturing a bovine progenitor cell in a serum-free medium for culturing a bovine progenitor cell, wherein said serum-free medium comprises - an albumin; - a fibroblast growth factor 2; - an interleukin-6 (IL-6); - an insulin-like growth factor 1; and - an hepatocyte growth factor. culturing a bovine progenitor cell in a serum-free medium for culturing a bovine progenitor cell, wherein said serum-free medium comprises - an albumin; - a fibroblast growth factor 2; - an interleukin-6 (IL-6); - an insulin-like growth factor 1; and - an hepatocyte growth factor. - an albumin; - a fibroblast growth factor 2; - an interleukin-6 (IL-6); - an insulin-like growth factor 1; and - an hepatocyte growth factor.
A feeding unit for receiving sealed packs of pourable food products from a forming unit arranged to form said packs and feed said packs to a folding unit arranged to fold said packs so as to obtain folded packages, said feeding unit comprising a feeding conveyor to carry said packs towards said folding unit, characterized in that said feeding unit further comprises a driving arrangement interacting with said packs so as to pull said packs from said forming unit and push said packs towards said feeding conveyor, wherein said driving arrangement comprises at least two cyclically movable driving elements positioned on opposite sides of an advancing path along which said packs are advanced through said feeding unit and an actuating arrangement for moving said driving elements, said driving elements being arranged to interact with opposite portions of said packs, said driving elements generating an impact on said packs and accelerating said packs towards said feeding conveyor.
A portable electronics device coupling assembly comprising: (a) a cradle configured to electronically couple and releasably engage a portable electronics device; and (b) an adaptor coupled to the cradle and configured to electronically couple and releasably engage the cradle to a passenger seat characterised in that: (c) said cradle comprises a plurality of arms and a retaining device positioned at an end of each of the plurality of arms that is shaped to releasably couple and hold in place the portable electronics device. (a) a cradle configured to electronically couple and releasably engage a portable electronics device; and (b) an adaptor coupled to the cradle and configured to electronically couple and releasably engage the cradle to a passenger seat characterised in that: (c) said cradle comprises a plurality of arms and a retaining device positioned at an end of each of the plurality of arms that is shaped to releasably couple and hold in place the portable electronics device.