mhurhangee/ep-ind-claims huggingface dataset:
A combustor, comprising: a liner including first and second spaced apart liner walls (104a, 104b) defining a combustion chamber therebetween, an end wall joining the first and second liner walls (104a, 104b) at a forward end; a support configured to resiliently support the liner, the support including a first support wall having a first retainer and a second spaced apart support wall having a second retainer, the first and second retainers (124a, 124b) being configured to capture aft ends (109a, 109b) of the first and second liner walls (104a, 104b) respectively, wherein the liner includes a ceramic matrix composite material and the support includes a metallic material; wherein the aft ends (109a, 109b) of the first and second liner walls (104a, 104b) each include a sloped edge extending towards an interior of the combustion chamber and angled forward towards the end wall, the sloped edges received in the first and second retainers (124a, 124b); characterized in that the first and second retainers (124a, 124b) are hooks extending in the forward direction towards the end wall configured to retain the aft ends (109a, 109b) of the first and second liner walls (104a, 104b), respectively, in a radial and axial direction. a liner including first and second spaced apart liner walls (104a, 104b) defining a combustion chamber therebetween, an end wall joining the first and second liner walls (104a, 104b) at a forward end; a support configured to resiliently support the liner, the support including a first support wall having a first retainer and a second spaced apart support wall having a second retainer, the first and second retainers (124a, 124b) being configured to capture aft ends (109a, 109b) of the first and second liner walls (104a, 104b) respectively, wherein the liner includes a ceramic matrix composite material and the support includes a metallic material; wherein the aft ends (109a, 109b) of the first and second liner walls (104a, 104b) each include a sloped edge extending towards an interior of the combustion chamber and angled forward towards the end wall, the sloped edges received in the first and second retainers (124a, 124b); characterized in that the first and second retainers (124a, 124b) are hooks extending in the forward direction towards the end wall configured to retain the aft ends (109a, 109b) of the first and second liner walls (104a, 104b), respectively, in a radial and axial direction.
A photomask blank for manufacturing a photomask having a mask pattern on a transparent substrate, comprising a film including at least two layers of a first layer with phase-difference Δθ1 and a second layer with phase-difference Δθ2, the film being formed on the transparent substrate, wherein the phase-difference Δθ1 is the phase-difference between a phase of a light transmitted through the first layer and a phase of a light transmitted through a layer of air with the same thickness as the first layer, the phase-difference Δθ2 is the phase-difference between a phase of a light transmitted through the second layer and a phase of a light transmitted through a layer of air with the same thickness as the second layer, the phase-difference of the film including at least the two layers (16, 17) is in a range of -30° to +30°, the first layer comprises a material containing molybdenum (Mo) and silicon (Si), characterizied in that the molybdenum content of the first layer is less than 30 at%, and the second layer is an antireflective layer.
A method of calculating a value representative of a downhole temperature in a hydrocarbon well, the well comprising production tubing inside outer tubing, there being an annulus between the production tubing and the outer tubing, which annulus receives a hydraulic control line supplying hydraulic fluid for the control of a downhole device, the method comprising sensing the pressure of hydraulic fluid in the control line at the wellhead and using a measurement of that pressure to calculate a value representative of a downhole temperature.
A method performed by a user equipment, UE, comprising acting as a cooperating UE, CUE, to assist at least one target UE, TUE, by: receiving a signal from a base station carrying a first modulated scrambled data block; demodulating, de-scrambling and decoding the first modulated scrambled data block to produce a decoded data block; determining that the decoded data block is for said at least one TUE; encoding the decoded data block to produce an encoded data block, and scrambling the encoded data block based on at least a group identifier, ID, to produce a scrambled data block; modulating the scrambled data block to produce a second modulated scrambled data block; transmitting the second modulated scrambled data block for reception by the at least one TUE; characterized in that the method further comprises: transmitting sidelink control information, SCI, signaling indicating transmission resources and parameters for use by the at least one TUE in detecting and decoding second modulated scrambled data block; wherein transmitting sidelink control information, SCI, signaling further comprises: scrambling a cyclic redundancy check, CRC, of a set of sidelink control information, SCI, information bits based on at least the group ID, the SCI information bits and the scrambled CRC together forming an SCI coded block; scrambling the SCI coded block based on at least the group ID to produce a scrambled SCI coded block; modulating the scrambled SCI coded block to produce a modulated SCI coded block; and transmitting the modulated SCI coded block for reception by the at least one TUE; wherein the group ID is known by the CUE and the at least one target UE, TUE. receiving a signal from a base station carrying a first modulated scrambled data block; demodulating, de-scrambling and decoding the first modulated scrambled data block to produce a decoded data block; determining that the decoded data block is for said at least one TUE; encoding the decoded data block to produce an encoded data block, and scrambling the encoded data block based on at least a group identifier, ID, to produce a scrambled data block; modulating the scrambled data block to produce a second modulated scrambled data block; transmitting the second modulated scrambled data block for reception by the at least one TUE; transmitting sidelink control information, SCI, signaling indicating transmission resources and parameters for use by the at least one TUE in detecting and decoding second modulated scrambled data block; scrambling a cyclic redundancy check, CRC, of a set of sidelink control information, SCI, information bits based on at least the group ID, the SCI information bits and the scrambled CRC together forming an SCI coded block; scrambling the SCI coded block based on at least the group ID to produce a scrambled SCI coded block; modulating the scrambled SCI coded block to produce a modulated SCI coded block; and transmitting the modulated SCI coded block for reception by the at least one TUE;
A floor cleaning machine comprising: a chassis comprising: a forward end; a rear end; an upper side extending between the forward end and the rear end; and an underside extending between the forward end and the rear end opposite the upper side; an operator station mounted on the upper side; a propulsion system located on the chassis and configured to move the chassis in a travel direction, the propulsion system comprising: a forward steered wheel located on a forward axis coupled to the underside of the chassis; and a rear wheel (38A, 38B) located on a rear axis coupled to the underside of the chassis; a brush coupled to the underside of the chassis, the brush extending from a first brush end to a second brush end along a brush axis, wherein the brush is configured to rotate about the brush axis; and a hopper system located to the chassis, the hopper system comprising a first debris hopper disposed forward of the brush in a stowed position; wherein the forward axis is positioned in front of the brush axis, and wherein the hopper system further comprises a second debris hopper located adjacent the forward axis. a chassis comprising: a forward end; a rear end; an upper side extending between the forward end and the rear end; and an underside extending between the forward end and the rear end opposite the upper side; an operator station mounted on the upper side; a propulsion system located on the chassis and configured to move the chassis in a travel direction, the propulsion system comprising: a forward steered wheel located on a forward axis coupled to the underside of the chassis; and a rear wheel (38A, 38B) located on a rear axis coupled to the underside of the chassis; a brush coupled to the underside of the chassis, the brush extending from a first brush end to a second brush end along a brush axis, wherein the brush is configured to rotate about the brush axis; and a hopper system located to the chassis, the hopper system comprising a first debris hopper disposed forward of the brush in a stowed position; wherein the forward axis is positioned in front of the brush axis, and wherein the hopper system further comprises a second debris hopper located adjacent the forward axis.
An enterprise owned multi-function device, MFD, comprising: a communication interface to establish a communication session with an authentication server; a re-activation timer; a de-activation timer, that begins when the re-activation timer expires; a processor; and a non-transitory computer readable medium storing instructions which, when executed by the processor, cause the processor to: authenticate the enterprise owned MFD over the communication session when the enterprise owned MFD is activated at a remote location of an employee; create a local account of the employee for local authentication; authorize access to the employee via the local account of the employee until the re-activation timer expires; determine an expiration of the de-activation timer; delete the local account of the employee from the enterprise owned MFD in response to the expiration of the de-activation timer; and transmit a notification to the authentication server to schedule a pick-up of the enterprise owned MFD from the remote location of the employee. a communication interface to establish a communication session with an authentication server; a re-activation timer; a de-activation timer, that begins when the re-activation timer expires; a processor; and a non-transitory computer readable medium storing instructions which, when executed by the processor, cause the processor to: authenticate the enterprise owned MFD over the communication session when the enterprise owned MFD is activated at a remote location of an employee; create a local account of the employee for local authentication; authorize access to the employee via the local account of the employee until the re-activation timer expires; determine an expiration of the de-activation timer; delete the local account of the employee from the enterprise owned MFD in response to the expiration of the de-activation timer; and transmit a notification to the authentication server to schedule a pick-up of the enterprise owned MFD from the remote location of the employee. authenticate the enterprise owned MFD over the communication session when the enterprise owned MFD is activated at a remote location of an employee; create a local account of the employee for local authentication; authorize access to the employee via the local account of the employee until the re-activation timer expires; determine an expiration of the de-activation timer; delete the local account of the employee from the enterprise owned MFD in response to the expiration of the de-activation timer; and transmit a notification to the authentication server to schedule a pick-up of the enterprise owned MFD from the remote location of the employee.
A threaded cryostat for a cryosurgical probe system, comprising: i) an outer tube; ii) an inner tube positioned within said outer tube; and iii) a threaded element positioned between said outer tube and said inner tube, said threaded element being threaded on an outer surface thereof and thereby having exterior threads, characterised in that the cryostat is so arranged that, in use, a fluid flows as inlet fluid between the inner tube and the interior of the threaded element and the fluid flows as outlet fluid between the outer tube and the exterior threads of said threaded element. i) an outer tube; ii) an inner tube positioned within said outer tube; and iii) a threaded element positioned between said outer tube and said inner tube, said threaded element being threaded on an outer surface thereof and thereby having exterior threads,
Method of heat regulation of a mould, comprising the steps of: - providing a pump suitable to introduce a heat regulation fluid into the mould; - setting a set-point pressure (Psp) for said heat-regulation fluid, said set-point pressure being chosen in such a way as to make the pump function at maximum efficiency; - detecting the pressure drop of the circuit in which the heat-regulation fluid circulates; - performing feedback control of the pump pressure so as to annul the difference between said set-point pressure and said pressure drop; - calculating a threshold value for the temperature difference (ΔT) between the return temperature (T 2) of the heat regulation fluid in output from the mould and the flow temperature (T 1) of the heat regulation fluid in the mould, said threshold value being defined by ΔT ≤ (T s - T 1)/5, whereby T s is the temperature of the mould; - detecting the flow temperature of the heat regulation fluid in the mould; - detecting the return temperature of the heat regulation fluid in output from the mould; - if said temperature difference is less or equal to the threshold value, the pump is commanded to work at said set-point pressure; - if said temperature difference exceeds said threshold value, the pump is commanded to increase the pressure and/or flow of the heat-regulation fluid so as to bring the temperature difference back under said temperature threshold value. - providing a pump suitable to introduce a heat regulation fluid into the mould; - setting a set-point pressure (Psp) for said heat-regulation fluid, said set-point pressure being chosen in such a way as to make the pump function at maximum efficiency; - detecting the pressure drop of the circuit in which the heat-regulation fluid circulates; - performing feedback control of the pump pressure so as to annul the difference between said set-point pressure and said pressure drop; - calculating a threshold value for the temperature difference (ΔT) between the return temperature (T 2) of the heat regulation fluid in output from the mould and the flow temperature (T 1) of the heat regulation fluid in the mould, said threshold value being defined by ΔT ≤ (T s - T 1)/5, whereby T s is the temperature of the mould; - detecting the flow temperature of the heat regulation fluid in the mould; - detecting the return temperature of the heat regulation fluid in output from the mould; - if said temperature difference is less or equal to the threshold value, the pump is commanded to work at said set-point pressure; - if said temperature difference exceeds said threshold value, the pump is commanded to increase the pressure and/or flow of the heat-regulation fluid so as to bring the temperature difference back under said temperature threshold value.
A wireless cardiac monitoring system comprising: a battery powered ECG monitor adapted to receive cardiac signals from an electrode (S1, S2, S3) attached to a patient, the ECG monitor including a transceiver for wirelessly transmitting ECG signal data, the ECG monitor further including a status notifier, coupled to the transceiver, for transmitting a status notification when a status of the ECG monitor changes; and a cellphone handset including cellphone electronics operable for communication over a cellular network and a transceiver for wirelessly receiving ECG signal data and status notifications from the ECG monitor and a controller operable to cause the cellphone electronics to send ECG signal data received from the ECG monitor to a monitoring center over the cellular network, wherein the controller is further operable to respond to a status notification from the ECG monitor by sending the status notification to the monitoring center over the cellular network, characterized in that the controller is further operable to delay sending a given status notification to the monitoring center to allow time for receipt of a status notification providing information that an undesired status notified by a previous notification has been corrected. a battery powered ECG monitor adapted to receive cardiac signals from an electrode (S1, S2, S3) attached to a patient, the ECG monitor including a transceiver for wirelessly transmitting ECG signal data, the ECG monitor further including a status notifier, coupled to the transceiver, for transmitting a status notification when a status of the ECG monitor changes; and a cellphone handset including cellphone electronics operable for communication over a cellular network and a transceiver for wirelessly receiving ECG signal data and status notifications from the ECG monitor and a controller operable to cause the cellphone electronics to send ECG signal data received from the ECG monitor to a monitoring center over the cellular network,
An electronic device comprising: a light emission unit configured to radiate intermittent light in synchronization with a synchronization signal at a set frequency that is set; a light reception unit configured to generate received light data by receiving reflected light of the intermittent light; and a control unit, the control unit including a determination unit configured to determine presence or absence of a predetermined object on a basis of the received light data; a setting unit configured to set, in the light emission unit, as the set frequency, a frequency that is higher, the smaller a distance to the predetermined object, in a case where presence of the predetermined object is determined, wherein, in an initial state, the setting unit is configured to set a first frequency as the set frequency, and in a case where presence of the predetermined object is determined, the setting unit is configured to set a second frequency that is higher, the smaller the measured distance, as the set frequency, and a frequency control unit configured to alternately switch between the first frequency and the second frequency every specific period of time, in a case where the second frequency is set. a light emission unit configured to radiate intermittent light in synchronization with a synchronization signal at a set frequency that is set; a light reception unit configured to generate received light data by receiving reflected light of the intermittent light; and a control unit, the control unit including a determination unit configured to determine presence or absence of a predetermined object on a basis of the received light data; a setting unit configured to set, in the light emission unit, as the set frequency, a frequency that is higher, the smaller a distance to the predetermined object, in a case where presence of the predetermined object is determined, wherein, in an initial state, the setting unit is configured to set a first frequency as the set frequency, and in a case where presence of the predetermined object is determined, the setting unit is configured to set a second frequency that is higher, the smaller the measured distance, as the set frequency, and a frequency control unit configured to alternately switch between the first frequency and the second frequency every specific period of time, in a case where the second frequency is set.
Device comprising a variable-pitch propeller, a chamber, a movable partition and a mechanism for modifying the pitch of the propeller wherein an external flow of a fluid generates, by Venturi effect, a negative pressure in a first compartment of said chamber comprising one or more first holes not parallel to a rotation axis of the propeller, a variation in this negative pressure causing a displacement of said movable partition inside the chamber actuating said mechanism for modifying the pitch of the propeller.
A refrigerator comprising a shelf height re-setting structure comprising: a shelf; a rail having height adjusting paths repeated in a vertical direction each with a slope and release and setting paths connected between adjacent height adjusting paths; setting means secured to the shelf so as to be movable along the height adjusting paths and release and setting paths for selecting a height of the shelf; and characterized in that said height adjusting paths and release and setting paths are formed in a rail case having a rectangular section and a vacant inside and a longitudinal slot in one side thereof, wherein the height adjusting paths are constructed of guides projected and recessed repeatedly from an inside wall of the one side of the rail case in a zigzag shape to form sloped stairs for smooth guidance of the setting means in a vertical direction, and the release and setting paths are formed by supporters having top surfaces which form horizontal steps projected from an inside wall of the other side of the rail case toward the guides for horizontal movement of the setting means along the supporters to release the setting means from a set state or to set the setting means again, each between adjacent guides. a shelf; a rail having height adjusting paths repeated in a vertical direction each with a slope and release and setting paths connected between adjacent height adjusting paths; setting means secured to the shelf so as to be movable along the height adjusting paths and release and setting paths for selecting a height of the shelf; and characterized in that said height adjusting paths and release and setting paths are formed in a rail case having a rectangular section and a vacant inside and a longitudinal slot in one side thereof, wherein the height adjusting paths are constructed of guides projected and recessed repeatedly from an inside wall of the one side of the rail case in a zigzag shape to form sloped stairs for smooth guidance of the setting means in a vertical direction, and the release and setting paths are formed by supporters having top surfaces which form horizontal steps projected from an inside wall of the other side of the rail case toward the guides for horizontal movement of the setting means along the supporters to release the setting means from a set state or to set the setting means again, each between adjacent guides.