mhurhangee/ep-ind-claims huggingface dataset:
System for controlling a plurality of lines, wherein each line is at least one of a production line and a distribution line, the system comprising: a first subsystem, hereinafter referred to as "master room subsystem", comprising a first control device hosting an OPC UA server; and, for each line, a second subsystem, hereinafter referred to as "line control subsystem", characterized in that the second subsystem comprises: a second control device per line, on which an operating system is running, the second control device hosting an OPC UA client; at least one field device; and a connection device per line, wherein the at least one field device communicates with the second control device via the connection device, wherein the at least one field device is connected to the connection device through a point-to-point digital communication interface and the connection device has one port per field device. a first subsystem, hereinafter referred to as "master room subsystem", comprising a first control device hosting an OPC UA server; and, for each line, a second subsystem, hereinafter referred to as "line control subsystem", characterized in that the second subsystem comprises: a second control device per line, on which an operating system is running, the second control device hosting an OPC UA client; at least one field device; and a second control device per line, on which an operating system is running, the second control device hosting an OPC UA client; at least one field device; and a connection device per line, wherein the at least one field device communicates with the second control device via the connection device, wherein the at least one field device is connected to the connection device through a point-to-point digital communication interface and the connection device has one port per field device.
An isolated antibody, or fragment thereof, that binds to BACE1, wherein the antibody reduces or inhibits the activity of the BACE1 polypeptide, said antibody comprising: an HVR-H1 sequence of SEQ ID NO:22 or 23, an HVR-H2 sequence of SEQ ID NO:24 and an HVR-H3 sequence of SEQ ID NO:25 and an HVR-L1 sequence of SEQ ID NO:7 or SEQ ID NO:8; an HVR-L2 sequence of SEQ ID NO:9 or SEQ ID NO:10; and an HVR-L3 sequence of selected from the group consisting of: SEQ ID NOs:11-16. an HVR-H1 sequence of SEQ ID NO:22 or 23, an HVR-H2 sequence of SEQ ID NO:24 and an HVR-H3 sequence of SEQ ID NO:25 and an HVR-L1 sequence of SEQ ID NO:7 or SEQ ID NO:8; an HVR-L2 sequence of SEQ ID NO:9 or SEQ ID NO:10; and an HVR-L3 sequence of selected from the group consisting of: SEQ ID NOs:11-16.
An electric vehicle charging coupler comprising: a coupler body having one side on which a charging port and a locking mechanism is formed, wherein the charging port is to be mounted to a charging port of an electric vehicle is to perform charging and the locking mechanism is to fix the charging coupler to the charging port of the electric vehicle; a cable inlet part which is formed in an upper portion of the coupler body and into which a charging cable is inserted, wherein a flow path through which a refrigerant flows for cooling is embedded in the charging cable; and a handle formed to extend from the other side of the coupler body to be held by a hand and provided separately from the cable inlet part, wherein a height adjustment button and a lock button are provided on the handle, the height adjustment button being formed on an upper portion of the handle at a position operable by a thumb, and the lock button being formed in a lower portion of the handle at a position operable by an index finger. a coupler body having one side on which a charging port and a locking mechanism is formed, wherein the charging port is to be mounted to a charging port of an electric vehicle is to perform charging and the locking mechanism is to fix the charging coupler to the charging port of the electric vehicle; a cable inlet part which is formed in an upper portion of the coupler body and into which a charging cable is inserted, wherein a flow path through which a refrigerant flows for cooling is embedded in the charging cable; and a handle formed to extend from the other side of the coupler body to be held by a hand and provided separately from the cable inlet part, wherein a height adjustment button and a lock button are provided on the handle, the height adjustment button being formed on an upper portion of the handle at a position operable by a thumb, and the lock button being formed in a lower portion of the handle at a position operable by an index finger.
A compound of formula I: or a solvate or pharmaceutically acceptable salt thereof, wherein X is selected from the group consisting of C=O, CH(OR 6) and n is 0, 1, 2 or 3; m is 0, 1, 2 or 3; p is 0, 1, 2 or 3; R 1 is hydrogen, C 1 -C 3 alkyl, aryl and arylalkyl; R 2 is hydrogen or C 1 -C 3 alkyl; each R 3 and R 5 independently is selected from the group consisting of hydroxyl, C 1 -C 3 alkyl, C 1 -C 2 alkoxy, fluoro, and chloro; each R 4 independently is selected from the group consisting of hydroxyl, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, halo, amino, nitro, nitroso and acyl; and R 6 is selected from the group consisting of hydrogen and methyl. X is selected from the group consisting of C=O, CH(OR 6) and n is 0, 1, 2 or 3; m is 0, 1, 2 or 3; p is 0, 1, 2 or 3; R 1 is hydrogen, C 1 -C 3 alkyl, aryl and arylalkyl; R 2 is hydrogen or C 1 -C 3 alkyl; each R 3 and R 5 independently is selected from the group consisting of hydroxyl, C 1 -C 3 alkyl, C 1 -C 2 alkoxy, fluoro, and chloro; each R 4 independently is selected from the group consisting of hydroxyl, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, halo, amino, nitro, nitroso and acyl; and R 6 is selected from the group consisting of hydrogen and methyl.
Passenger seating comprising at least one row of seats, the or each row comprising at least one seat beside which a partition assembly is located, wherein said partition assembly comprises: a partition wall located at a side of said at least one seat, the partition wall including an opening; and a screen that is slidably movable with respect to the partition wall between an open state in which said opening is exposed by said screen, and a closed state in which said opening is closed by said screen; wherein said partition wall comprises an upper portion and a base portion, wherein the upper portion comprises a base, the base being located below said opening and said screen; a locking apparatus operable between locking and non-locking states in which it, respectively, prevents or allows said movement of the screen; wherein said locking apparatus comprises at least one latch which is extendable from the base to engage with the screen; wherein said at least one latch, when extended, engages with a formation in the underside of the screen to effect said locking state. a partition wall located at a side of said at least one seat, the partition wall including an opening; and a screen that is slidably movable with respect to the partition wall between an open state in which said opening is exposed by said screen, and a closed state in which said opening is closed by said screen; wherein said partition wall comprises an upper portion and a base portion, wherein the upper portion comprises a base, the base being located below said opening and said screen; a locking apparatus operable between locking and non-locking states in which it, respectively, prevents or allows said movement of the screen; wherein said locking apparatus comprises at least one latch which is extendable from the base to engage with the screen; wherein said at least one latch, when extended, engages with a formation in the underside of the screen to effect said locking state.
A method of determining an optimal flare spacing for streamers towed behind a seismic vessel comprising the steps of: a. using a computer specially adapted with a seismic data analysis package to analyze prior seismic data for a survey area, including b. calculating a wavelet expansion as a function of flare spacing to estimate a maximum flare spacing to prevent any loss of seismic data quality; the method characterized by further comprising the steps of: c. analyzing geophysical migration broadcast patterns to estimate a maximum sampling distance before the seismic data is adversely compromised; d. creating synthetic gaps in the prior seismic data coverage by dropping a trace at different flare spacing; e. testing capability of different interpolation algorithms to close the synthetic gaps created by the trace; and f. determining an optimal flare spacing, being less than or equal to the estimated sampling distance, based upon the capability of the different interpolation algorithms to close the synthetic gaps. a. using a computer specially adapted with a seismic data analysis package to analyze prior seismic data for a survey area, including b. calculating a wavelet expansion as a function of flare spacing to estimate a maximum flare spacing to prevent any loss of seismic data quality; c. analyzing geophysical migration broadcast patterns to estimate a maximum sampling distance before the seismic data is adversely compromised; d. creating synthetic gaps in the prior seismic data coverage by dropping a trace at different flare spacing; e. testing capability of different interpolation algorithms to close the synthetic gaps created by the trace; and f. determining an optimal flare spacing, being less than or equal to the estimated sampling distance, based upon the capability of the different interpolation algorithms to close the synthetic gaps.
A method for maintaining the physical separation and identity integrity of a biological cellular sample from a patient during processing comprising i) reading an unique code for a patient identity device with a reader ii) storing said code on a patient's database record on a database iii) collecting a biological cellular sample from a patient in a container having an identifier code and storing said code on the patient's database record on a database iv) confirming that a processing component is the next component in the processing sequence of the cellular sample by reading the component identifier code of the component with a reader and validating this against a component registry; v) adding the processing component identifier code to the patient's database record vi) connecting the sample collection container to the first component and processing the cellular sample therein; vii) repeating steps iv) to vi) with one or more sequential processing components to prepare therapeutic material; and viii) matching the code on the patient identity device with that of each of the processing components on the patient's database record to verify that the therapeutic material in the container is ready for administration to the patient. i) reading an unique code for a patient identity device with a reader ii) storing said code on a patient's database record on a database iii) collecting a biological cellular sample from a patient in a container having an identifier code and storing said code on the patient's database record on a database iv) confirming that a processing component is the next component in the processing sequence of the cellular sample by reading the component identifier code of the component with a reader and validating this against a component registry; v) adding the processing component identifier code to the patient's database record vi) connecting the sample collection container to the first component and processing the cellular sample therein; vii) repeating steps iv) to vi) with one or more sequential processing components to prepare therapeutic material; and viii) matching the code on the patient identity device with that of each of the processing components on the patient's database record to verify that the therapeutic material in the container is ready for administration to the patient.
An internal combustion engine having at least four cylinders and having a single exhaust turbocharger with a turbine housing with four exhaust inlets (4, 5, 6, 7), in which an exhaust-gas turbine is rotatably arranged, wherein each cylinder has two gas-exchange outlet valves (9, 10), characterised in that two cylinders each are combined to form a cylinder group and each exhaust inlet (4, 5, 6, 7) can be connected so as to conduct exhaust gas with all the cylinders of exactly one cylinder group through an exhaust pipe (11, 12, 13, 14) by way of one gas-exchange outlet valve (9, 10) per cylinder and the exhaust-gas turbine can be acted upon by exhaust gas every 180° crank angle.
Method for operating a facility, wherein the facility comprises a movable part, which is movable on a movement surface of the facility, and a load carrier, in particular a load carrier which is arranged in a stationary manner in the facility, wherein the movable part comprises a radar sensor, which is connected to a controller of the movable part, wherein in a first method step the distance from the radar sensor to the load carrier is determined, in a second method step the movable part is moved to a position at which the distance between the radar sensor and the load carrier reaches a predefined target distance, characterized in that in a third method step the frequency spectrum of an intermediate frequency signal is determined, said intermediate frequency signal being generated by mixing the radar radiation emitted by the radar sensor, in particular toward the load carrier, and the radar radiation received, in particular from the load carrier, in a fourth method step the frequency spectrum, in particular the pattern formed by the frequency spectrum, is compared with stored pattern templates, in particular by means of pattern recognition, and the result of the comparison is forwarded to the controller, in a fifth method step the controller controls actuators, such as a drive and/or a steering unit, of the movable part as a function of the result, i.e. in particular the controller executes a control sequence as a function of the result. wherein the facility comprises a movable part, which is movable on a movement surface of the facility, and a load carrier, in particular a load carrier which is arranged in a stationary manner in the facility, wherein the movable part comprises a radar sensor, which is connected to a controller of the movable part, wherein in a first method step the distance from the radar sensor to the load carrier is determined, in a second method step the movable part is moved to a position at which the distance between the radar sensor and the load carrier reaches a predefined target distance, characterized in that in a third method step the frequency spectrum of an intermediate frequency signal is determined, said intermediate frequency signal being generated by mixing the radar radiation emitted by the radar sensor, in particular toward the load carrier, and the radar radiation received, in particular from the load carrier, in a fourth method step the frequency spectrum, in particular the pattern formed by the frequency spectrum, is compared with stored pattern templates, in particular by means of pattern recognition, and the result of the comparison is forwarded to the controller, in a fifth method step the controller controls actuators, such as a drive and/or a steering unit, of the movable part as a function of the result, i.e. in particular the controller executes a control sequence as a function of the result.
A remote control device for an image outputting device, the remote control device comprising: a radio frequency module configured to transmit and receive at least one radio frequency signal; an infrared module configured to transmit at least one infrared signal; a controller configured to: receive a power-on command for the image outputting device and transmit a power-on command signal to the image outputting device through the infrared module; characterised in that the controller is configured to upon receipt of the power-on command for the image outputting device, transmit a pairing request signal to the image outputting device; receive through the radio frequency module at least one signal indicating information of a plurality of frequency channels; and operate in a radio frequency communication standard to transmit radio frequency signals through at least one frequency channel from the plurality of frequency channels. a radio frequency module configured to transmit and receive at least one radio frequency signal; an infrared module configured to transmit at least one infrared signal; a controller configured to: receive a power-on command for the image outputting device and transmit a power-on command signal to the image outputting device through the infrared module; characterised in that the controller is configured to upon receipt of the power-on command for the image outputting device, transmit a pairing request signal to the image outputting device; receive through the radio frequency module at least one signal indicating information of a plurality of frequency channels; and operate in a radio frequency communication standard to transmit radio frequency signals through at least one frequency channel from the plurality of frequency channels. receive a power-on command for the image outputting device and transmit a power-on command signal to the image outputting device through the infrared module; characterised in that the controller is configured to upon receipt of the power-on command for the image outputting device, transmit a pairing request signal to the image outputting device; receive through the radio frequency module at least one signal indicating information of a plurality of frequency channels; and operate in a radio frequency communication standard to transmit radio frequency signals through at least one frequency channel from the plurality of frequency channels.
An injection device for injecting a hypodermic syringe along an injection direction defining an injection axis, wherein said injecting device comprises: • a housing for being positioned at the skin, wherein said housing comprises an elongated main body having an upper opening and a needle shield attached to said elongated main body, said needle shield being a tubular element and comprising a first opening configured to face the skin of a user when the injection device is positioned at the skin of the user; and • a movable element movably arranged relative to said housing between a retracted position and an injection position, wherein said movable element comprises a hypodermic syringe holder for holding a hypodermic syringe outside the housing, said movable element comprising a first portion arranged to slide inside said elongated main body of the housing, a second portion arranged to slide at a first outer surface of said housing and a connection portion connecting said first portion with said second portion, wherein said movable element extends out of said upper opening of said elongated main body; wherein said needle shield is arranged so that the tip of a hypodermic needle of a hypodermic syringe attached to said hypodermic syringe holder is positioned completely inside the needle shield when the movable element is in the retracted position and so that the tip of the hypodermic needle protrudes from the needle shield when the movable element is in the injection position, characterised in that said housing further comprises a planar contact surface for being positioned at the skin of a user, and in that said housing comprises a gripping zone in its lower third part, said needle shield forms part of said gripping zone and wherein said gripping zone is configured to allow a user to safely hold said injection device at any position of said gripping zone while a hypodermic syringe is being injected by said injection device. • a housing for being positioned at the skin, wherein said housing comprises an elongated main body having an upper opening and a needle shield attached to said elongated main body, said needle shield being a tubular element and comprising a first opening configured to face the skin of a user when the injection device is positioned at the skin of the user; and • a movable element movably arranged relative to said housing between a retracted position and an injection position, wherein said movable element comprises a hypodermic syringe holder for holding a hypodermic syringe outside the housing, said movable element comprising a first portion arranged to slide inside said elongated main body of the housing, a second portion arranged to slide at a first outer surface of said housing and a connection portion connecting said first portion with said second portion, wherein said movable element extends out of said upper opening of said elongated main body;
A wireless communications device comprising: a radio frequency transceiver comprising at least one first connector (12a-12c), an RF transceiver circuit coupled to said at least one first connector (12a-12c), and a probe circuit coupled to said at least one first connector (12a-12c) and configured to place a direct current supply voltage on said at least one first connector (12a-12c); and an RF antenna assembly (15a-15c) to be coupled with said RF transceiver comprising a second connector configured to be mated with said at least one first connector (12a-12c), an RF antenna element coupled to said second connector, and an antenna identification circuit coupled to said second connector and configured to be powered from the DC supply voltage and modulate a DC supply current indicative of an ID of said RF antenna element, said probe circuit configured to determine the ID of said RF antenna element based upon the modulated DC supply current. a radio frequency transceiver comprising at least one first connector (12a-12c), an RF transceiver circuit coupled to said at least one first connector (12a-12c), and a probe circuit coupled to said at least one first connector (12a-12c) and configured to place a direct current supply voltage on said at least one first connector (12a-12c); and an RF antenna assembly (15a-15c) to be coupled with said RF transceiver comprising a second connector configured to be mated with said at least one first connector (12a-12c), an RF antenna element coupled to said second connector, and an antenna identification circuit coupled to said second connector and configured to be powered from the DC supply voltage and modulate a DC supply current indicative of an ID of said RF antenna element, said probe circuit configured to determine the ID of said RF antenna element based upon the modulated DC supply current.
A tappet for an adjuster assembly of a disc brake comprising: a shaft portion for transmission of a thrust loading from an actuating member to a piston of a disc brake; and a gear portion for transmission of rotary motion to the shaft; wherein the gear portion is formed as a separate piece from the shaft portion, characterised in that the gear portion is formed from lower strength material than the shaft, wherein the shaft and the gear comprise complementary abutting surfaces in a circumferential direction so as to restrict relative rotation of the gear with respect to the shaft portion, wherein the abutting surfaces are provided in the form of complementary castellations (170, 172) on the shaft portion and the gear portion. a shaft portion for transmission of a thrust loading from an actuating member to a piston of a disc brake; and a gear portion for transmission of rotary motion to the shaft; wherein the gear portion is formed as a separate piece from the shaft portion, characterised in that the gear portion is formed from lower strength material than the shaft, wherein the shaft and the gear comprise complementary abutting surfaces in a circumferential direction so as to restrict relative rotation of the gear with respect to the shaft portion, wherein the abutting surfaces are provided in the form of complementary castellations (170, 172) on the shaft portion and the gear portion.