mhurhangee/ep-ind-claims huggingface dataset:
A process for the conversion of plastic material into diesel fuel, comprising the steps of: a) melting comminuted plastic material to form a molten material and feeding the molten material into a pyrolysis chamber; b) further heating said molten material in the pyrolysis chamber to a temperature in the range of 390°C to 410°C to effect pyrolysis of the molten material into gases in an oxygen purged and pressure controlled environment; c) mechanically dislodging char from the internal wall of the or each pyrolysis chamber during the pyrolysis process by use of an agitator; d) transferring resulting gases to a catalytic converter means comprising alloy plates wherein the molecular structure of the gaseous material is altered and wherein the catalyst is not consumed or poisoned; e) transferring the gases from the catalytic converter means to one or more condensers to cool the gases into fractions to form a diesel fuel. a) melting comminuted plastic material to form a molten material and feeding the molten material into a pyrolysis chamber; b) further heating said molten material in the pyrolysis chamber to a temperature in the range of 390°C to 410°C to effect pyrolysis of the molten material into gases in an oxygen purged and pressure controlled environment; c) mechanically dislodging char from the internal wall of the or each pyrolysis chamber during the pyrolysis process by use of an agitator; d) transferring resulting gases to a catalytic converter means comprising alloy plates wherein the molecular structure of the gaseous material is altered and wherein the catalyst is not consumed or poisoned; e) transferring the gases from the catalytic converter means to one or more condensers to cool the gases into fractions to form a diesel fuel.
A method of inspecting cooling tower fill pack to detect the presence of fouling, the method comprising: providing a ground penetrating radar apparatus; moving the GPR apparatus relative to the top surface, bottom surface or side surface of the fill pack; and processing received GPR data to form a three-dimensional plot of the location and degree of fouling within the fill pack. providing a ground penetrating radar apparatus; moving the GPR apparatus relative to the top surface, bottom surface or side surface of the fill pack; and processing received GPR data to form a three-dimensional plot of the location and degree of fouling within the fill pack.
An electrical component support bracket, comprising: a base member; and a component support surface extending from the base member with an angled transition configured as a step between the base member and the component support surface, the step causing that the component support surface will be suspended at a distance from a mounting surface when the base member is secured to the mounting surface; and a component support member configured to surround at least a portion of an electrical component, the component support member including a first tab and a second tab disposed at opposite ends of the component support member, wherein the first tab and the second tab are configured to be coupled to the component support surface so that the electrical component is held against the component support surface by the component support member in use. a base member; and a component support surface extending from the base member with an angled transition configured as a step between the base member and the component support surface, the step causing that the component support surface will be suspended at a distance from a mounting surface when the base member is secured to the mounting surface; and a component support member configured to surround at least a portion of an electrical component, the component support member including a first tab and a second tab disposed at opposite ends of the component support member, wherein the first tab and the second tab are configured to be coupled to the component support surface so that the electrical component is held against the component support surface by the component support member in use.
A device for clearing obstructions from a medical tube, comprising: a housing defining an interior, an exterior, and a port providing communication therebetween; an elongated guide wire residing at least partially within the housing; a spool within the housing for dispensing and accumulating the elongated guide wire, the spool being rotatable relative to the housing about a spool axis; and characterized by first and second rollers (48, 50) adapted to define a nip therebetween; said guide wire is adapted to extend through said nip and is drivable for advancement and retraction thereof through said port via rotation of said rollers (48, 50). a housing defining an interior, an exterior, and a port providing communication therebetween; an elongated guide wire residing at least partially within the housing; a spool within the housing for dispensing and accumulating the elongated guide wire, the spool being rotatable relative to the housing about a spool axis; and characterized by first and second rollers (48, 50) adapted to define a nip therebetween; said guide wire is adapted to extend through said nip and is drivable for advancement and retraction thereof through said port via rotation of said rollers (48, 50).
A method for discovering an application layer traffic optimization server, comprising: obtaining, by a terminal, a domain name of a proxy server for a terminal data layer to access internet, wherein an Internet Protocol, IP, address of the terminal is allocated by a first server and the proxy server is a second server, the first server is a home agent of a home network and the second server is a foreign agent of a foreign network, or the first server is the foreign agent of the foreign network and the second server is the home agent of the home network, or the first server is an agent of a network where the terminal is located in and the second server is a proxy server of an internet access network for a Virtual Private Network, VPN to access the internet; sending, by the terminal, a Uniform Resource Locator, URL, -enabled naming authority pointer, U-NAPTR, request to a domain name system, DNS, server, wherein the U-NAPTR request comprises a query name constructed by using the domain name of the proxy server; receiving, by the terminal, an address of an application layer traffic optimization, ALTO, server related to the proxy server from the DNS server; and communicating, by the terminal, with the ALTO server according to the address of the ALTO server. obtaining, by a terminal, a domain name of a proxy server for a terminal data layer to access internet, wherein an Internet Protocol, IP, address of the terminal is allocated by a first server and the proxy server is a second server, the first server is a home agent of a home network and the second server is a foreign agent of a foreign network, or the first server is the foreign agent of the foreign network and the second server is the home agent of the home network, or the first server is an agent of a network where the terminal is located in and the second server is a proxy server of an internet access network for a Virtual Private Network, VPN to access the internet; sending, by the terminal, a Uniform Resource Locator, URL, -enabled naming authority pointer, U-NAPTR, request to a domain name system, DNS, server, wherein the U-NAPTR request comprises a query name constructed by using the domain name of the proxy server; receiving, by the terminal, an address of an application layer traffic optimization, ALTO, server related to the proxy server from the DNS server; and communicating, by the terminal, with the ALTO server according to the address of the ALTO server.
An information sign luminaire, in particular an escape sign or safety luminaire, including at least one light source and a support plate provided with at least one information sign, the information sign having surface elements (5 to 11) excitable to emit light and configured as organic light-emitting diodes, OLEDs, wherein a plurality of surface elements (5 to 11) can be combined to form an information sign and/or different information signs and the surface elements (5 to 11) are connected to a driving device for forming different information signs, characterised in that the surface elements can be permanently selected to form an information sign by means of a wire bridge, a switch, a dip switch or the like, in particular before installing the information sign luminaire.
A delivery system for delivery of an annuloplasty implant, comprising: - a commissure locator device for locating a commissure, comprising; i. an extension member, ii. a catheter, and wherein the extension member is extendable relative the catheter for location of at least one commissure of a cardiac valve, characterised in that there is - a coronary sinus contractor for temporary insertion into the coronary sinus and having a displacement unit being temporarily transferable to an activated state in which the shape of the annulus of the heart valve is modified to a modified shape to be retained by said annuloplasty implant. - a commissure locator device for locating a commissure, comprising; i. an extension member, ii. a catheter, and wherein the extension member is extendable relative the catheter for location of at least one commissure of a cardiac valve, characterised in that there is i. an extension member, ii. a catheter, and wherein the extension member is extendable relative the catheter for location of at least one commissure of a cardiac valve, characterised in that there is - a coronary sinus contractor for temporary insertion into the coronary sinus and having a displacement unit being temporarily transferable to an activated state in which the shape of the annulus of the heart valve is modified to a modified shape to be retained by said annuloplasty implant.
A cleaning device for cleaning the air-ionizing part of an electrode, wherein the air-ionizing part of the electrode comprises a needle-tip or a thin wire, said device comprising: - a cleaning member arranged to be in physical contact with the circumference of the needle-tip or the thin-wire part of the electrode, the air-ionizing part of the electrode and the cleaning member being arranged to slide relative to each other; - an actuator (6, 8, 9) arranged to activate the relative motion between said air-ionizing part of the electrode and said cleaning member, characterized in that the actuator (6, 8, 9) is an electromagnetic assembly comprising a spring, an electrical-wire coil and a magnet; wherein the cleaning device further comprises a moveable piston assembly that is spring-loaded via the spring, the piston assembly comprising either the magnet or the electrical-wire coil, wherein the cleaning member is connected to the piston assembly such that the cleaning member moves relative to the air-ionizing part of the electrode between a first position and a second position due to the action of said spring, the first position corresponding with a first degree of compression of said spring, the second position corresponding with a second degree of compression of said spring, and wherein the first position and the second position are arranged such that the cleaning member slides along the length of substantially the entire air-ionizing part of said electrode when moving from the first position to the second position or vice-versa. - a cleaning member arranged to be in physical contact with the circumference of the needle-tip or the thin-wire part of the electrode, the air-ionizing part of the electrode and the cleaning member being arranged to slide relative to each other; - an actuator (6, 8, 9) arranged to activate the relative motion between said air-ionizing part of the electrode and said cleaning member,
A three dimensional building block (100; 200; 300; 400; 500) comprising a plurality of integrally hinged panels (110A, 110B, 115A, 115B, 120, 125; 310A, 310B; 410A, 420A; 520, 562) constituting the block body, the body comprising at least three panels (110A, 110B, 115A, 115B, 125; 325; 425; 525) constituting at least two side walls (110A, 110B) and at least one functional wall (120, 125; 320, 325; 420, 425; 520, 525), the functional wall (120, 125; 320,325; 420, 425; 520, 525) comprising at least one coupling element (130, 140; 330, 340; 430, 440; 530, 540); the building block further comprising two end walls (115A, 115B;) wherein the block body is configurable between a disassembled, substantially flat configuration, and an erected configuration of a generally three dimensional hollow block body with the end walls configured to detachably attach to the open ends of the hollow block body.
An apparatus comprising: sensor circuitry configured and arranged to produce and sense detected signals corresponding to physical objects located in an operational region relative to a location of the sensor circuitry; and processing circuitry configured and arranged to record and organize information associated with the detected signals in a plurality of sub-histograms (501, 503, 505, 507) respectively associated with different accuracy metrics for corresponding sub-regions of the operational region, each of the plurality of sub-histograms (501, 503, 505, 507) including a set of histogram bins characterized by a bin width linked to its accuracy metric; and refine at least one of the different accuracy metrics by adapting one or more of the bin widths dynamically in response to a signal power of the detected signals, characterized in that each of the one or more bin widths is optimized to half of a full-width at half maximum, FWHM, of a corresponding detected signal. sensor circuitry configured and arranged to produce and sense detected signals corresponding to physical objects located in an operational region relative to a location of the sensor circuitry; and processing circuitry configured and arranged to record and organize information associated with the detected signals in a plurality of sub-histograms (501, 503, 505, 507) respectively associated with different accuracy metrics for corresponding sub-regions of the operational region, each of the plurality of sub-histograms (501, 503, 505, 507) including a set of histogram bins characterized by a bin width linked to its accuracy metric; and refine at least one of the different accuracy metrics by adapting one or more of the bin widths dynamically in response to a signal power of the detected signals, characterized in that each of the one or more bin widths is optimized to half of a full-width at half maximum, FWHM, of a corresponding detected signal. record and organize information associated with the detected signals in a plurality of sub-histograms (501, 503, 505, 507) respectively associated with different accuracy metrics for corresponding sub-regions of the operational region, each of the plurality of sub-histograms (501, 503, 505, 507) including a set of histogram bins characterized by a bin width linked to its accuracy metric; and refine at least one of the different accuracy metrics by adapting one or more of the bin widths dynamically in response to a signal power of the detected signals, characterized in that each of the one or more bin widths is optimized to half of a full-width at half maximum, FWHM, of a corresponding detected signal.
A random access method, comprising: after obtaining downlink synchronization with a cell, determining, by a user equipment, UE, a preamble sequence of the UE in the cell, wherein the UE has not obtained uplink synchronization with the cell; obtaining, by the UE, service data; determining, by the UE, a scrambling code, wherein the scrambling code is in a one-to-one correspondence with the preamble sequence; scrambling, by the UE, the service data based on the scrambling code, to obtain scrambled service data; determining, by the UE based on a predetermined resource mapping relationship, time-frequency resources respectively occupied by the preamble sequence and the scrambled service data; sending (10, 26), by the UE on the determined time-frequency resources, the preamble sequence and the scrambled service data to a base station to which the cell belongs; and receiving (20, 27), by the UE, a random access response from the base station. after obtaining downlink synchronization with a cell, determining, by a user equipment, UE, a preamble sequence of the UE in the cell, wherein the UE has not obtained uplink synchronization with the cell; obtaining, by the UE, service data; determining, by the UE, a scrambling code, wherein the scrambling code is in a one-to-one correspondence with the preamble sequence; scrambling, by the UE, the service data based on the scrambling code, to obtain scrambled service data; determining, by the UE based on a predetermined resource mapping relationship, time-frequency resources respectively occupied by the preamble sequence and the scrambled service data; sending (10, 26), by the UE on the determined time-frequency resources, the preamble sequence and the scrambled service data to a base station to which the cell belongs; and receiving (20, 27), by the UE, a random access response from the base station.
A method of receiving location specific data at a mobile terminal, the method comprising: receiving initial location data of the mobile terminal and user initiated gesture data at a mobile terminal; calculating a geographical area-of-interest based on the initial location data and the user initiated gesture data, wherein the area-of-interest is determined on the mobile terminal and defined by an arc movement of the mobile terminal and the initial location data; transmitting, to a server, a request to receive a requested location specific data, the request being configured to cause the server retrieving location specific data related to the area-of-interest and including facilities located within the area-of-interest or including advertisements of facilities located within the area-of-interest; and receiving the related location specific data at the mobile terminal. receiving initial location data of the mobile terminal and user initiated gesture data at a mobile terminal; calculating a geographical area-of-interest based on the initial location data and the user initiated gesture data, wherein the area-of-interest is determined on the mobile terminal and defined by an arc movement of the mobile terminal and the initial location data; transmitting, to a server, a request to receive a requested location specific data, the request being configured to cause the server retrieving location specific data related to the area-of-interest and including facilities located within the area-of-interest or including advertisements of facilities located within the area-of-interest; and receiving the related location specific data at the mobile terminal.
A nose cone assembly for a munition, comprising a transducer array operably linked to a transmission assembly (22, 32), wherein the transducer array is operably connected to a transducer housing (21b, 41), said transducer housing (21b, 41) comprising a first (14a, 24a, 44a) and second (24b, 44b) surface, wherein said transmission assembly (22, 32) is reversibly operably connected to the second surface (24b, 44b) of said transducer housing (21b, 41), said transmission assembly (22, 32) comprising a control board (19, 29, 39) and a plurality of electronic circuit boards (18, 28, 38), wherein at least one electronic circuit board is a transceiver circuit board, said electronic circuit boards (18, 28, 38) being reversibly connected to the control board (19, 29, 39) and being arranged along their longest dimension, at an axis substantially perpendicular to the control board (19, 29, 39) and further arranged such that the electronic circuit boards (18, 28, 38) extend radially inwardly to a substantially rotational centre of the control board (19, 29, 39) wherein: the electronic circuit boards (18, 28, 38) are supported by a first support ring (27b, 37a) located around the circumference of the electronic circuit boards (18, 28, 38); and a sub-frame (21a, 41a) is mounted on the second surface (24b, 44b) of the transducer housing (21b, 41), said sub-frame (21a, 41a) comprising a second support ring (17a, 27a, 47a), wherein the second support ring of the sub-frame engages with the first support ring (27b, 37a) of the transmission assembly (22, 32). the electronic circuit boards (18, 28, 38) are supported by a first support ring (27b, 37a) located around the circumference of the electronic circuit boards (18, 28, 38); and a sub-frame (21a, 41a) is mounted on the second surface (24b, 44b) of the transducer housing (21b, 41), said sub-frame (21a, 41a) comprising a second support ring (17a, 27a, 47a), wherein the second support ring of the sub-frame engages with the first support ring (27b, 37a) of the transmission assembly (22, 32).
A system for correcting wind speed and direction data collected by a sodar or lidar apparatus for at least the orientation of the apparatus, comprising: one or more sensors mounted to the sodar or lidar apparatus configured to detect at least the three-dimensional angular orientation of the apparatus; one or more gyroscopes or other acceleration measurement sensors to also account for angular motion of the apparatus, along with motion along horizontal axes, to properly distinguish between angular inclinations and axial accelerations of the apparatus to correct for dynamic motions of the apparatus; a processor configured to use the detected three-dimensional angular orientation and a correction algorithm to locally correct the original wind speed and direction data in three dimensions for deviations from a nominal orientation; and a database configured to store the detected three-dimensional angular orientation, and the corrected wind speed and direction data, characterized in that the database is configured to store data structures associated with the correction algorithm, and the processor is configured to detect failures of the one or more sensors and in response to the detection of a failure to use the last valid orientation information to correct the wind speed and direction data. one or more sensors mounted to the sodar or lidar apparatus configured to detect at least the three-dimensional angular orientation of the apparatus; one or more gyroscopes or other acceleration measurement sensors to also account for angular motion of the apparatus, along with motion along horizontal axes, to properly distinguish between angular inclinations and axial accelerations of the apparatus to correct for dynamic motions of the apparatus; a processor configured to use the detected three-dimensional angular orientation and a correction algorithm to locally correct the original wind speed and direction data in three dimensions for deviations from a nominal orientation; and a database configured to store the detected three-dimensional angular orientation, and the corrected wind speed and direction data, characterized in that the database is configured to store data structures associated with the correction algorithm, and the processor is configured to detect failures of the one or more sensors and in response to the detection of a failure to use the last valid orientation information to correct the wind speed and direction data.