mhurhangee/ep-ind-claims huggingface dataset:
An axial flow turbomachine for producing thrust to propel an aircraft, comprising: an inner duct and an outer duct, both of which are annular and concentric with one another; an inner fan located in the inner duct, the inner fan being configured to produce a primary pressurised flow; an outer fan located in the outer duct, the outer fan being configured to produce a secondary pressurised flow and having a hollow hub through which the inner duct passes; the inner and outer fans (206, 207) each being configured to produce thrust to propel the aircraft; wherein the inner fan has, in operation, a rate of rotation of from 3 to 8 times that of the outer fan; and wherein in operation, the primary pressurised flow and the secondary pressurised flow exit their respective ducts (204, 206), whereupon the secondary pressurised flow substantially shrouds the primary pressurised flow and a trailing edge of the outer duct is located axially downstream of the inner duct for mixing of the first and secondary pressurised flows. an inner duct and an outer duct, both of which are annular and concentric with one another; an inner fan located in the inner duct, the inner fan being configured to produce a primary pressurised flow; an outer fan located in the outer duct, the outer fan being configured to produce a secondary pressurised flow and having a hollow hub through which the inner duct passes; the inner and outer fans (206, 207) each being configured to produce thrust to propel the aircraft; wherein the inner fan has, in operation, a rate of rotation of from 3 to 8 times that of the outer fan; and wherein in operation, the primary pressurised flow and the secondary pressurised flow exit their respective ducts (204, 206), whereupon the secondary pressurised flow substantially shrouds the primary pressurised flow and a trailing edge of the outer duct is located axially downstream of the inner duct for mixing of the first and secondary pressurised flows.
Device for punching out labels comprising an unwinding device for providing a substrate web, in particular a printed substrate web, the substrate web having a carrier layer and a label layer, a punching device disposed downstream in a web-conveying direction for punching out labels, and a winding device disposed downstream in the web-conveying direction and configured to receive the substrate web, wherein the punching device includes a delaminating roller for separating the label layer from the carrier layer and a relaminating device for connecting the label layer provided with the punchings to the carrier layer, characterized in that the punching device comprises a metallic non-suction revolving counterpunching belt for conveying the label layer during the punching operation, wherein the adhesive side of the label layer is temporarily connectible to the counterpunching belt, and wherein the label layer is transferred to the counterpunching belt by the delaminating roller.
A trailing edge flap system for a wing of an aircraft, the system comprising: a first flap assembly including a first flap for being movably coupled to a structure of the aircraft wing, the first flap assembly having a first stiffness; a second flap assembly including a second flap for being movably coupled to the structure of the aircraft wing, the second flap being disposed adjacent the first flap, the second flap assembly having a second stiffness; one or more data processors operatively coupled to cause deployment of the first flap and of the second flap; and non-transitory machine-readable memory storing instructions executable by the one or more data processors and configured to cause the one or more data processors to: using data representative of a flap deployment command, generate an output for causing deployment of the first flap by a first deployment amount and for causing deployment of the second flap by a second deployment amount where the first deployment amount of the first flap is greater than the second deployment amount of the second flap, characterized in that the first stiffness of the first flap assembly is lower than the second stiffness of the second flap assembly, and in that the greater first deployment amount is adapted to at least partially compensate for a deflection of the first flap assembly relative to the second flap assembly when the first flap is deployed and subjected to an aerodynamic load. a first flap assembly including a first flap for being movably coupled to a structure of the aircraft wing, the first flap assembly having a first stiffness; a second flap assembly including a second flap for being movably coupled to the structure of the aircraft wing, the second flap being disposed adjacent the first flap, the second flap assembly having a second stiffness; one or more data processors operatively coupled to cause deployment of the first flap and of the second flap; and non-transitory machine-readable memory storing instructions executable by the one or more data processors and configured to cause the one or more data processors to: using data representative of a flap deployment command, generate an output for causing deployment of the first flap by a first deployment amount and for causing deployment of the second flap by a second deployment amount where the first deployment amount of the first flap is greater than the second deployment amount of the second flap, characterized in that the first stiffness of the first flap assembly is lower than the second stiffness of the second flap assembly, and in that the greater first deployment amount is adapted to at least partially compensate for a deflection of the first flap assembly relative to the second flap assembly when the first flap is deployed and subjected to an aerodynamic load.
A filter assembly (240, 640, 740) for use in an insufflation system (100, 200), said filter assembly (240, 640, 740) being positioned in use between a humidification apparatus (104, 204) and a patient, said filter assembly (240, 640, 740) comprising: a filter medium (642, 742) operative to filter humidified gases; a housing (641, 741) comprising an inlet, an outlet and said filter medium (642, 742), said housing (641, 741) defining a gases flow path through said filter medium (642, 742) between said inlet and said outlet; and at least one heating element (643, 743) being positioned in said housing (641, 741) and being configured to heat said humidified gases flowing through said gases flow path; wherein, said at least one heating element (643, 743) is positioned in said gases flow path downstream from said filter medium (642, 742). a filter medium (642, 742) operative to filter humidified gases; a housing (641, 741) comprising an inlet, an outlet and said filter medium (642, 742), said housing (641, 741) defining a gases flow path through said filter medium (642, 742) between said inlet and said outlet; and at least one heating element (643, 743) being positioned in said housing (641, 741) and being configured to heat said humidified gases flowing through said gases flow path; wherein, said at least one heating element (643, 743) is positioned in said gases flow path downstream from said filter medium (642, 742).
Method for waking up a customer premises equipment being in a sleep mode, where the customer premises equipment is part of a telecommunication's network with a central office, an access network, a plurality of network terminating units and customer premises equipment connected to one of said network terminating units, where the customer premises equipment is a separate unit external to the one network terminating unit to which it is connected, characterized in that the network terminating unit connected to the customer premises equipment to be wakened receives a signal (DPDP) from the central office and the network terminating unit connected to the customer premises equipment thereupon causes the customer premises equipment to change from the sleep mode to an operating mode.
A pharmaceutical composition comprising a C5 inhibitor polypeptide having the core sequence SEQ ID NO: 1 and a pharmaceutically acceptable excipient, wherein the pharmaceutically acceptable excipient comprises sodium chloride at a concentration of from 25 mM to 100 mM and sodium phosphate at a concentration of from 10 mM to 100 mM.
A kit comprising a pair of implants configured as a unit dosage, characterised in that the pair of implants comprising a first implant comprising about 95 μg of an anti-glaucoma agent and a second implant that is a blank implant.
A method for handling data path creation in a quick user datagram protocol, UDP, Internet connection, QUIC, session in a wireless network system, comprising: receiving, by an electronic device, at least one request from at least one application for processing at least one object, wherein the application is running on the electronic device; determining, by the electronic device, at least one network condition based on a plurality of parameters associated with the electronic device, wherein the plurality of parameters include a network awareness parameter which is determined based on a radio condition, and the radio condition is determined based on one or more of interface connection information, Radio Access Technology, RAT, information, or a signal strength observed by the electronic device; determining a number of data paths to be created within the QUIC session based on the network awareness parameter and at least one property of the at least one object; and creating, by the electronic device, one or more data paths within the QUIC session based on the determined number of data paths, if the at least one network condition meets a network criterion, wherein the creating of the one or more data paths further comprises: estimating, by the electronic device, a buffer size for each data path of the determined number of data paths based on an interface connection; and creating, by the electronic device, the one or more data paths based on the determined number of data paths and the buffer size. receiving, by an electronic device, at least one request from at least one application for processing at least one object, wherein the application is running on the electronic device; determining, by the electronic device, at least one network condition based on a plurality of parameters associated with the electronic device, wherein the plurality of parameters include a network awareness parameter which is determined based on a radio condition, and the radio condition is determined based on one or more of interface connection information, Radio Access Technology, RAT, information, or a signal strength observed by the electronic device; determining a number of data paths to be created within the QUIC session based on the network awareness parameter and at least one property of the at least one object; and creating, by the electronic device, one or more data paths within the QUIC session based on the determined number of data paths, if the at least one network condition meets a network criterion, wherein the creating of the one or more data paths further comprises: estimating, by the electronic device, a buffer size for each data path of the determined number of data paths based on an interface connection; and creating, by the electronic device, the one or more data paths based on the determined number of data paths and the buffer size. estimating, by the electronic device, a buffer size for each data path of the determined number of data paths based on an interface connection; and creating, by the electronic device, the one or more data paths based on the determined number of data paths and the buffer size.
A gas spring accumulator comprising: - a housing (2, 3) provided with an inlet; and - a flexible diaphragm dividing the interior of the housing into a working chamber which is exposed to system pressure via the inlet, and a gas chamber; and - an external pressure vessel; wherein - the housing is provided with a port which communicates with the gas chamber and to which the external pressure vessel is releasably attached; characterised in that the external pressure vessel consists of a length of conduit. - a housing (2, 3) provided with an inlet; and - a flexible diaphragm dividing the interior of the housing into a working chamber which is exposed to system pressure via the inlet, and a gas chamber; and - an external pressure vessel; - the housing is provided with a port which communicates with the gas chamber and to which the external pressure vessel is releasably attached;
A medical apparatus, comprising: a probe having first and second ablation electrodes disposed on a distal portion of the probe and a sensing electrode disposed between the first and second ablation electrodes; an ablation energy generator connected to the first and second ablation electrodes and operative to apply ablation energy through the first and second ablation electrodes; and characterised by a monitor connected to the sensing electrode and operative to detect cardiac electrical activity via the sensing electrode, simultaneously with the provision of ablation energy through the ablation electrodes, when the probe is brought into contact with a target tissue in a heart of a subject, the monitor comprising a graphical display operative for displaying a map of a portion of the heart that includes the target tissue and a progression of energy application along an ablation path. a probe having first and second ablation electrodes disposed on a distal portion of the probe and a sensing electrode disposed between the first and second ablation electrodes; an ablation energy generator connected to the first and second ablation electrodes and operative to apply ablation energy through the first and second ablation electrodes; and characterised by a monitor connected to the sensing electrode and operative to detect cardiac electrical activity via the sensing electrode, simultaneously with the provision of ablation energy through the ablation electrodes, when the probe is brought into contact with a target tissue in a heart of a subject, the monitor comprising a graphical display operative for displaying a map of a portion of the heart that includes the target tissue and a progression of energy application along an ablation path.
A shift device comprising: a shift operation member that includes a support shaft portion provided along a vehicle width direction, and that is configured to be capable of rotation operation about an axis of the support shaft portion; a support body that includes a support portion that supports the support shaft portion rotatably; and a weakened portion that is provided at the support body, characterized in that the support portion is provided with elongated holes with specific intervals therebetween so that the support body is configured with a rib (40, 42, 44) that serves as the weakened portion, the rib extending around a circumferential direction of the support portion, the rib being at a lower side of the support portion in an axial direction of the shift operation member and being at a periphery of the support portion, and the length dimension of the rib (40, 42, 44) is set larger than the diameter dimension of the support shaft portion such that the rib (40, 42, 44) is formed so as to face the whole diameter of the support shaft portion in an axial direction of the shift operation member. a shift operation member that includes a support shaft portion provided along a vehicle width direction, and that is configured to be capable of rotation operation about an axis of the support shaft portion; a support body that includes a support portion that supports the support shaft portion rotatably; and a weakened portion that is provided at the support body, characterized in that the support portion is provided with elongated holes with specific intervals therebetween so that the support body is configured with a rib (40, 42, 44) that serves as the weakened portion, the rib extending around a circumferential direction of the support portion, the rib being at a lower side of the support portion in an axial direction of the shift operation member and being at a periphery of the support portion, and the length dimension of the rib (40, 42, 44) is set larger than the diameter dimension of the support shaft portion such that the rib (40, 42, 44) is formed so as to face the whole diameter of the support shaft portion in an axial direction of the shift operation member.
An optical receiving apparatus for receiving and demodulating a phase-modulated optical signal, comprising: an interferometer comprising a first arm for delaying first split light of optical input by a symbol time period and a second arm for shifting a phase of the second split light of the optical input by a prescribed amount; a low-frequency signal generator unit (321, 322) for providing a low-frequency signal to the second arm and superimposing the low-frequency signal on the light of the second arm; a photodetector circuit for converting an optical signal output from the interferometer into an electrical signal; and a control unit for controlling the amount of the phase shift in the second arm based on at least one of the power of the low-frequency signal or a higher harmonic signal (2f0) of the low-frequency signal extracted from the electrical signal so that the power of the higher harmonic signal (2f0) of the low-frequency signal increases or the power of the low-frequency signal decreases. an interferometer comprising a first arm for delaying first split light of optical input by a symbol time period and a second arm for shifting a phase of the second split light of the optical input by a prescribed amount; a low-frequency signal generator unit (321, 322) for providing a low-frequency signal to the second arm and superimposing the low-frequency signal on the light of the second arm; a photodetector circuit for converting an optical signal output from the interferometer into an electrical signal; and a control unit for controlling the amount of the phase shift in the second arm based on at least one of the power of the low-frequency signal or a higher harmonic signal (2f0) of the low-frequency signal extracted from the electrical signal so that the power of the higher harmonic signal (2f0) of the low-frequency signal increases or the power of the low-frequency signal decreases.
A thin wall container for being filled with a liquid reference volume, made with polyethylene terephtalate, comprising a neck and a wall, wherein: - the PET comprises at least 50% by weight of a PET recycled by a mechanical route (rPET) by post-consumer recycling, and, - the container presents at least the following feature: Feature a) the wall has a thin portion having an average thickness of from 50 μm to 150 μm. - the PET comprises at least 50% by weight of a PET recycled by a mechanical route (rPET) by post-consumer recycling, and, - the container presents at least the following feature: Feature a) the wall has a thin portion having an average thickness of from 50 μm to 150 μm.
An electronic device, comprising at least the following: a mainboard; electronic components, disposed on the mainboard; and a shielding assembly, comprising a shielding case, a capillary structure, and a thermally conductive plate, wherein the electronic components are located in the shielding case and connected to the shielding case, the mainboard is connected to the shielding case to form a shielding space for shielding the electronic components, the thermally conductive plate is located on a side of the shielding case that faces away from the electronic components, the thermally conductive plate is connected to the shielding case to form a sealing cavity, the capillary structure is disposed in the sealing cavity, the sealing cavity is filled with a working substance, the sealing cavity comprises a vaporization zone and a condensation zone, the vaporization zone is located above the electronic components, and the capillary structure is configured to enable the working substance to back flow from the condensation zone to the vaporization zone, wherein the electronic device further comprises a housing, the thermally conductive plate is connected to the housing, the electronic device further comprises a first thermally conductive member and a second thermally conductive member, the first thermally conductive member is disposed between the electronic components and the shielding case, and the second thermally conductive member is disposed between the thermally conductive plate and the housing, wherein both the first thermally conductive member and the second thermally conductive member are elastic. a mainboard; electronic components, disposed on the mainboard; and a shielding assembly, comprising a shielding case, a capillary structure, and a thermally conductive plate, wherein the electronic components are located in the shielding case and connected to the shielding case, the mainboard is connected to the shielding case to form a shielding space for shielding the electronic components, the thermally conductive plate is located on a side of the shielding case that faces away from the electronic components, the thermally conductive plate is connected to the shielding case to form a sealing cavity, the capillary structure is disposed in the sealing cavity, the sealing cavity is filled with a working substance, the sealing cavity comprises a vaporization zone and a condensation zone, the vaporization zone is located above the electronic components, and the capillary structure is configured to enable the working substance to back flow from the condensation zone to the vaporization zone, wherein the electronic device further comprises a housing, the thermally conductive plate is connected to the housing, the electronic device further comprises a first thermally conductive member and a second thermally conductive member, the first thermally conductive member is disposed between the electronic components and the shielding case, and the second thermally conductive member is disposed between the thermally conductive plate and the housing, wherein both the first thermally conductive member and the second thermally conductive member are elastic.