mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for serially-distributed access points, comprising: a cable including communication wires comprising at least one fiber optic cable of a plurality of fiber optic cables within a master cable, the at least one fiber optic cable including a passive optical splitter at each access point of a plurality of serially-distributed access points and power wires for powering the plurality of access points, wherein the access points from each fiber optic cable are interleaved in the master cable such that access points operating on the same channel are not positioned next to each other to avoid interference; the plurality of serially-distributed access points connected to the communication wires along a length of the cable; and a headend interface connected at one end of the cable and operable to provide a communication interface with the access points along the communication wires, wherein each access points includes an optical diplexer operable to use two different optical wavelengths, wherein a first wavelength is used for receiving signals from the headend interface and a second wavelength is used for transmitting signals to the headend interface, wherein the plurality of fiber optic cables are multiplexed into the headend interface, and wherein the optical diplexer includes a filter operable to pass upstream packets to the headend interface at the second wavelength, block the reception of any packets at the second wavelength, and pass downstream packets from the headend interface at the first wavelength. a cable including communication wires comprising at least one fiber optic cable of a plurality of fiber optic cables within a master cable, the at least one fiber optic cable including a passive optical splitter at each access point of a plurality of serially-distributed access points and power wires for powering the plurality of access points, wherein the access points from each fiber optic cable are interleaved in the master cable such that access points operating on the same channel are not positioned next to each other to avoid interference; the plurality of serially-distributed access points connected to the communication wires along a length of the cable; and a headend interface connected at one end of the cable and operable to provide a communication interface with the access points along the communication wires, wherein each access points includes an optical diplexer operable to use two different optical wavelengths, wherein a first wavelength is used for receiving signals from the headend interface and a second wavelength is used for transmitting signals to the headend interface, wherein the plurality of fiber optic cables are multiplexed into the headend interface, and wherein the optical diplexer includes a filter operable to pass upstream packets to the headend interface at the second wavelength, block the reception of any packets at the second wavelength, and pass downstream packets from the headend interface at the first wavelength.
A method of testing completely or partially liquid product filled or dry product filled rigid and semi-rigid nonporous containers for leaks, including headspace gas leaks and/or vapor leaks derived from package contents, using at least one or both an absolute pressure transducer and a differential pressure transducer in a testing system that includes a vacuum source and wherein the testing system may be selective isolated from a test chamber in which a container is received for testing, wherein the method comprises the steps of: A. Placing a container in an airtight test chamber and sealing the chamber; B. Maintaining an at rest reduced vacuum pressure within the testing system, while leak tests are not actively in progress, prior to connecting the testing system to the test chamber; C. Starting a test by connecting the testing system, while at the reduced vacuum pressure, to the test chamber and applying a reduced pressure to the test chamber utilizing the vacuum source; D. Closing the vacuum source from the test chamber if a predetermined pressure is reached within a predetermined time period; and subsequently E. Monitoring any decay in the vacuum created in the test chamber by using at least one of or both an absolute pressure transducer and a differential pressure transducer to monitor any increase in pressure within the test chamber during another predetermined period of time such that increases in pressure may reflect small leaks in the container, wherein step C is performed such that in a first period of time, if a first predetermined pressure is not achieved, the test is aborted but, if achieved, to continue the test to step D. A. Placing a container in an airtight test chamber and sealing the chamber; B. Maintaining an at rest reduced vacuum pressure within the testing system, while leak tests are not actively in progress, prior to connecting the testing system to the test chamber; C. Starting a test by connecting the testing system, while at the reduced vacuum pressure, to the test chamber and applying a reduced pressure to the test chamber utilizing the vacuum source; D. Closing the vacuum source from the test chamber if a predetermined pressure is reached within a predetermined time period; and subsequently E. Monitoring any decay in the vacuum created in the test chamber by using at least one of or both an absolute pressure transducer and a differential pressure transducer to monitor any increase in pressure within the test chamber during another predetermined period of time such that increases in pressure may reflect small leaks in the container,
Kit assembly of parts adapted for modifying an apparatus (1, 2, 25, 46, 141) for continuous tempering of chocolate mass comprising a cooling stage, a crystallisation stage and a mixing stage arranged as a tempering column (42, 141) of stacked elements each having a water chamber and a chocolate compartment, openings for the chocolate arranged as ring-shaped openings (26, 143) through which the shaft (27, 144) of the column extends, as well as comprising pump means adapted for pumping the chocolate mass through the column from the bottom towards the top of the column or vice versa thereby providing a flow direction for the chocolate, characterised in, that the kit comprises a device part having a first end and a second end, seen in the flow direction of the chocolate, and a primary conduit for chocolate mass extending between the two ends, as well as a pump adapted to pump the chocolate through the conduit, which kit further comprises a first and a second disc-shaped element each having a chocolate channel extending between the periphery and the central ring-shaped opening, and each being adapted to be inserted between two neighbouring disc-shaped elements of the tempering column, so that the first end of the device is connected to the first disc-shaped element and the second end is connected to the second disc-shaped element, and so that the primary conduit is by-passing the stage for creating crystals being connected with the channels of the two disc-shaped elements.
A method for alignment of a receiver charging element of a hearing device and a transmitter charging element of a charger, the hearing device being a custom rechargeable hearing device designed to be worn by a user, the charger comprising a custom insert, the custom insert comprising a cavity configured to receive the hearing device, the method comprising: - obtaining a digital scan of the user's ear shape; - creating a digital three-dimensional hearing device model based on the digital scan of the user's ear shape, and adding a position of the receiver charging element to the digital three-dimensional hearing device model; - providing a digital three-dimensional charger model and adding a position of the transmitter charging element to the digital three-dimensional charger model; - providing a generic digital three-dimensional insert model; - creating a digital cavity representing the cavity in the generic digital three-dimensional insert model, the digital cavity being created based on the digital three-dimensional hearing device model to thereby obtain a custom digital three-dimensional insert model; and - ensuring alignment between the receiver charging element in the digital three-dimensional hearing device model and the transmitter charging element in the three-dimensional charger model to thereby maximize coupling between the receiver charging element and the transmitter charging element. - obtaining a digital scan of the user's ear shape; - creating a digital three-dimensional hearing device model based on the digital scan of the user's ear shape, and adding a position of the receiver charging element to the digital three-dimensional hearing device model; - providing a digital three-dimensional charger model and adding a position of the transmitter charging element to the digital three-dimensional charger model; - providing a generic digital three-dimensional insert model; - creating a digital cavity representing the cavity in the generic digital three-dimensional insert model, the digital cavity being created based on the digital three-dimensional hearing device model to thereby obtain a custom digital three-dimensional insert model; and - ensuring alignment between the receiver charging element in the digital three-dimensional hearing device model and the transmitter charging element in the three-dimensional charger model to thereby maximize coupling between the receiver charging element and the transmitter charging element.
A steering yoke bearing assembly, comprising: a body, comprising: a first end having a flat surface; a second end opposite the first end, the second end having a concave surface having a first lateral side and a second lateral side opposite the first lateral side; a first bearing pad having an interlocking arrangement with the body in the first lateral side of the concave surface; and a second bearing pad having an interlocking arrangement with the body in the second lateral side of the concave surface, wherein each bearing pad includes a base embedded below the concave surface and a shaft support structure extending from the base through the concave surface, wherein the base of each bearing pad comprises an overall width, W B, and the shaft support structure of each bearing pad comprises an overall width, Ws, and wherein Ws ≤ 90% W B. a body, comprising: a first end having a flat surface; a second end opposite the first end, the second end having a concave surface having a first lateral side and a second lateral side opposite the first lateral side; a first bearing pad having an interlocking arrangement with the body in the first lateral side of the concave surface; and a second bearing pad having an interlocking arrangement with the body in the second lateral side of the concave surface, wherein each bearing pad includes a base embedded below the concave surface and a shaft support structure extending from the base through the concave surface, wherein the base of each bearing pad comprises an overall width, W B, and the shaft support structure of each bearing pad comprises an overall width, Ws, and wherein Ws ≤ 90% W B. a first end having a flat surface; a second end opposite the first end, the second end having a concave surface having a first lateral side and a second lateral side opposite the first lateral side; a first bearing pad having an interlocking arrangement with the body in the first lateral side of the concave surface; and a second bearing pad having an interlocking arrangement with the body in the second lateral side of the concave surface, wherein each bearing pad includes a base embedded below the concave surface and a shaft support structure extending from the base through the concave surface, wherein the base of each bearing pad comprises an overall width, W B, and the shaft support structure of each bearing pad comprises an overall width, Ws, and wherein Ws ≤ 90% W B.
A device for filling containers with liquids, comprising a first transport device which transports a plurality of containers through a filling chamber, said filling chamber being a sterile chamber including a plurality of treatment members (8, 16, 18) arranged in the filling chamber which treat the containers, with at least one of said treatment members (8, 16, 18) being a filling member which fills the containers with the liquid, wherein the first transport device is designed in such a way that it transports the containers through the filling chamber in a clocked manner, wherein the device comprises a lock device which prevents the entering of air into the filling chamber, characterised in that the lock device is arranged between the first transport device and a further transport device, wherein the further transport device both hands over containers at least indirectly to the transport device and takes over containers at least indirectly from the transport device.
Apparatus for the wavelength-selective screening of an antenna arranged on a ship against an electromagnetic interference wave, wherein the apparatus comprises an antenna, wherein, for screening purposes, the apparatus comprises a Faraday cage, in the form of a screening cage, that at least partially envelops the antenna, wherein the antenna is arranged in the centre of the screening cage, wherein the screening cage has bars made of electrically conductive material that are arranged in such a way that the screening cage forms a highpass filter for screening against the electromagnetic interference wave, wherein the electrically conductive bars are arranged in such a way that they form meshes having different mesh sizes, wherein a mesh width defining the mesh size varies within a mesh and the mesh size is matched to the shape of the antenna and a surface generated by the screening cage runs substantially parallel to the outer face of the antenna.
A steel cord (100, 200, 300), comprising a core layer and a sheath layer, said core layer comprising a plurality of core wires (105, 205, 305) with a number of n and said sheath layer comprising a plurality of sheath wires (110, 210, 310) with a number of m, saic steel cord (100, 200, 300) having a flat cross-section with a major axis and a minor axis, said flat cross-section having a flat ratio being the ratio of the length of said major axis and the length of said minor axis, said flat ratio being more than 1.2, said steel cord (100, 200, 300) having a breaking load being BL cord, said core wires (105, 205, 305) and said sheath wires (110, 210, 310) having a sum breaking load being Sum BLwires when said core wires (105, 205, 305) and said sheath wires (110, 210, 310) are untwisted from said steel cord (100, 200, 300), characterized in that said n ranges from 2 to 3, said m ranges from 6 to 12 and said BL cord and said Sum BL wires satisfies the following formula: BL cord / Sum BL wires > 96 %.
An electronic device comprising: a device housing (108, 208) including an aperture therein; a retaining ring oriented within a seat, the retainer ring and the seat being concentric with the aperture and the seat formed within the device housing; and a removable device foot (102, 202) oriented within and protruding outward from the aperture, the device foot having a concentric extraction surface angled toward a center of the device foot and compressed by the retaining ring once installed within the aperture, the retaining ring securing the device foot in place against the device housing and wherein the concentric extraction surface is concentric with the aperture and the removable device foot is removable from the aperture and replaceable within the aperture. a device housing (108, 208) including an aperture therein; a retaining ring oriented within a seat, the retainer ring and the seat being concentric with the aperture and the seat formed within the device housing; and a removable device foot (102, 202) oriented within and protruding outward from the aperture, the device foot having a concentric extraction surface angled toward a center of the device foot and compressed by the retaining ring once installed within the aperture, the retaining ring securing the device foot in place against the device housing and wherein the concentric extraction surface is concentric with the aperture and the removable device foot is removable from the aperture and replaceable within the aperture.
A process of treating hydrogen gas liberated from the acid or alkaline dissolution of a metal, the process comprising a step of passing the liberated hydrogen gas through a reactor containing an oxidising agent for oxidation of the hydrogen gas into water, followed by a step of regenerating the oxidising agent, wherein the oxidising agent is diluted with an inert, thermally-conductive diluent and wherein the reactor is at least partially immersed in a vessel containing a quantity of alumina.
A substation automation system for operating a high or medium voltage substation of an electric power transmission or distribution network, the substation automation system comprising: - a bus system and a multitude of secondary devices, which secondary devices are adapted to send and/or receive multicast messages via the bus system and which secondary devices are adapted to operate primary devices of a process or substation, - a packet filter arranged in a secondary device, said packet filter being adapted to select multicast messages based on a rule of the packet filter, said rule being set up such that based on said rule it is determined which multicast packets are currently needed by an application on the secondary device, and to forward the multicast messages currently needed by the application from the bus system towards the application; - a rule adaptor arranged in the secondary device for adapting, dynamically during runtime of the automation system, the rule of the packet filter in case of a change in multicast packets needed by the application; wherein the rule adaptor is adapted to determine identifiers of multicast packets to be selected and forwarded from a configuration representation according to a Substation Configuration Description of the substation automation system: - a bus system and a multitude of secondary devices, which secondary devices are adapted to send and/or receive multicast messages via the bus system and which secondary devices are adapted to operate primary devices of a process or substation, - a packet filter arranged in a secondary device, said packet filter being adapted to select multicast messages based on a rule of the packet filter, said rule being set up such that based on said rule it is determined which multicast packets are currently needed by an application on the secondary device, and to forward the multicast messages currently needed by the application from the bus system towards the application; - a rule adaptor arranged in the secondary device for adapting, dynamically during runtime of the automation system, the rule of the packet filter in case of a change in multicast packets needed by the application; wherein the rule adaptor is adapted to determine identifiers of multicast packets to be selected and forwarded from a configuration representation according to a Substation Configuration Description of the substation automation system:
Computer implemented method for detecting an oil slick in a target image acquired by a spaceborne or airborne radar, wherein said method comprises: - a phase of training a convolutional network using a set of training images, the set of training images comprising training images without oil slicks and training images with oil slicks, - a phase of predicting the presence or absence of an oil slick on the target image by applying the convolutional network on said target image, wherein the phase of training of the convolutional network uses a loss function which combines a weighted-cross-entropy loss function and a Jaccard loss function, wherein the convolutional network comprises an encoder, and using the convolutional network comprises applying an encoding step comprising successive convolutional layer steps (21, 21', 21", 21′′′) and downsampling layer steps (22, 22', 22", 22′′′), wherein each convolutional layer step comprises at least one convolution step (211, 213, 211', 213', 211", 213", 211'", 213′′′) and at least one activation step (212, 214, 212', 214', 212", 214", 212'", 214′′′), wherein each activation step (212, 214, 212', 214', 212", 214", 212′′′, 214'") of a convolutional layer step of the encoding step uses a leaky rectified linear unit which applies an activation function f ( x) expressed as: f x = { x if x > 0 αx otherwise wherein α is a predetermined positive weighting factor, the value of which is lower than or equal to 0.001. - a phase of training a convolutional network using a set of training images, the set of training images comprising training images without oil slicks and training images with oil slicks, - a phase of predicting the presence or absence of an oil slick on the target image by applying the convolutional network on said target image, wherein the phase of training of the convolutional network uses a loss function which combines a weighted-cross-entropy loss function and a Jaccard loss function, wherein the convolutional network comprises an encoder, and using the convolutional network comprises applying an encoding step comprising successive convolutional layer steps (21, 21', 21", 21′′′) and downsampling layer steps (22, 22', 22", 22′′′), wherein each convolutional layer step comprises at least one convolution step (211, 213, 211', 213', 211", 213", 211'", 213′′′) and at least one activation step (212, 214, 212', 214', 212", 214", 212'", 214′′′), wherein each activation step (212, 214, 212', 214', 212", 214", 212′′′, 214'") of a convolutional layer step of the encoding step uses a leaky rectified linear unit which applies an activation function f ( x) expressed as: f x = { x if x > 0 αx otherwise wherein α is a predetermined positive weighting factor, the value of which is lower than or equal to 0.001.