mhurhangee/ep-ind-claims huggingface dataset:
A cistern for a water-flushable appliance, the cistern comprising: a tank for holding a first volume of flushing water, a first water inlet for receiving water into the tank from a mains source, the first water inlet being controllable by an inlet valve, a second water inlet for receiving water into the tank from an auxiliary source, and an outlet for discharging flushing water from the tank to a flushable appliance, the outlet being controlled by an outlet valve which is operable to discharge a second volume of flushing water from the tank to a flushable appliance, which second volume is less than said first volume, wherein the tank comprises a first chamber and a second chamber, there being fluidic communication between the first chamber and the second chamber through an opening, the first water inlet and the second water inlet being arranged in use to introduce water into the first chamber, and the outlet being arranged in use to discharge water from the second chamber, characterised in that the fluidic communication between the first chamber and the second chamber is controllable by a communication valve, the communication valve having a solid outer surface and a section of reduced width that passes within the opening, the communication valve and the outlet valve being under the common control of an actuator, and wherein a float is mounted on the actuator and the second volume of water discharged through the outlet can be adjusted by altering the position of the float on the actuator. a tank for holding a first volume of flushing water, a first water inlet for receiving water into the tank from a mains source, the first water inlet being controllable by an inlet valve, a second water inlet for receiving water into the tank from an auxiliary source, and an outlet for discharging flushing water from the tank to a flushable appliance, the outlet being controlled by an outlet valve which is operable to discharge a second volume of flushing water from the tank to a flushable appliance, which second volume is less than said first volume, wherein the tank comprises a first chamber and a second chamber, there being fluidic communication between the first chamber and the second chamber through an opening, the first water inlet and the second water inlet being arranged in use to introduce water into the first chamber, and the outlet being arranged in use to discharge water from the second chamber, characterised in that the fluidic communication between the first chamber and the second chamber is controllable by a communication valve, the communication valve having a solid outer surface and a section of reduced width that passes within the opening, the communication valve and the outlet valve being under the common control of an actuator, and wherein a float is mounted on the actuator and the second volume of water discharged through the outlet can be adjusted by altering the position of the float on the actuator.
Vacuum cleaner comprising a lower housing part, on which wheels (32, 33, 35, 36) are mounted for moving the vacuum cleaner along a floor surface, and which forms a dirt collection container with a suction inlet to which a suction hose is connectable, and an upper housing part which is mountable on the lower housing part and accommodates an electrically drivable suction unit, and an electric supply cable for connecting the suction unit to an electrical voltage source, the vacuum cleaner having a cable receptacle for storing the supply cable and a hose mount for storing the suction hose, and the cable receptacle surrounding the upper housing part on the outside in the circumferential direction, and the hose mount being arranged below the cable receptacle, characterized in that at least one recess (47, 48, 49) is arranged below the hose mount for storing at least one accessory part of the vacuum cleaner.
A silencer, comprising: a silencer housing having an annular plate-like structure, with an annular mounting chamber formed therein; a silencing pad disposed in the mounting chamber; and a positioning portion disposed on the silencer housing and configured for, in a use state, positioning the silencer housing and fastening the silencer housing to an actual application position; wherein the silencer housing comprises a circulation surface, and a mounting surface for use in mounting; the mounting surface and the circulation surface are located on two sides of the silencer housing respectively; the circulation surface is configured to, in a use state, face a fluid channel and the mounting surface is configured to, in a use state, abut against a mounting position; and the positioning portion is disposed on the mounting surface and/or the circulation surface; and wherein the positioning portion comprises first bolt mounting portions and first mounting bolts fitting the first bolt mounting portions; characterised in that the first bolt mounting portions are inserted into corresponding mounting grooves in the silencing pad via through holes opened on the mounting surface. a silencer housing having an annular plate-like structure, with an annular mounting chamber formed therein; a silencing pad disposed in the mounting chamber; and a positioning portion disposed on the silencer housing and configured for, in a use state, positioning the silencer housing and fastening the silencer housing to an actual application position; wherein the silencer housing comprises a circulation surface, and a mounting surface for use in mounting; the mounting surface and the circulation surface are located on two sides of the silencer housing respectively; the circulation surface is configured to, in a use state, face a fluid channel and the mounting surface is configured to, in a use state, abut against a mounting position; and the positioning portion is disposed on the mounting surface and/or the circulation surface; and wherein the positioning portion comprises first bolt mounting portions and first mounting bolts fitting the first bolt mounting portions; characterised in that the first bolt mounting portions are inserted into corresponding mounting grooves in the silencing pad via through holes opened on the mounting surface.
An electrical gear configured for supply of electrical power to a subsea machinery to be rotated at high speed, such as a subsea motor / pump or a subsea motor/ compressor assembly, the electrical gear comprising, in series connection: a) a high input voltage AC motor having a number of magnet poles; b) a medium output voltage AC generator (9; 90) having a number of magnet poles which is higher than the pole number of the HVAC motor, c) the HVAC motor configured to run on high voltage alternating current at a first frequency, caracterized in that the HVAC motor is drivingly connected to the MVAC generator (9; 90) via a common shaft, the MVAC generator (9; 90) is configured to deliver medium voltage alternating current at a second frequency, higher than said first frequency, to a medium input voltage AC motor (3; 30) having a number of magnet poles which is lower than the pole number of the MVAC generator (9; 90), d) wherein the HVAC motor, the MVAC generator (9; 90) and the MVAC motor (3; 30) are assembled on a common geometrical axis of rotation, and the MVAC motor (3; 30) is drivingly connected (15; 18) to the subsea machinery. a) a high input voltage AC motor having a number of magnet poles; b) a medium output voltage AC generator (9; 90) having a number of magnet poles which is higher than the pole number of the HVAC motor, c) the HVAC motor configured to run on high voltage alternating current at a first frequency, caracterized in that the HVAC motor is drivingly connected to the MVAC generator (9; 90) via a common shaft, the MVAC generator (9; 90) is configured to deliver medium voltage alternating current at a second frequency, higher than said first frequency, to a medium input voltage AC motor (3; 30) having a number of magnet poles which is lower than the pole number of the MVAC generator (9; 90), d) wherein the HVAC motor, the MVAC generator (9; 90) and the MVAC motor (3; 30) are assembled on a common geometrical axis of rotation, and the MVAC motor (3; 30) is drivingly connected (15; 18) to the subsea machinery.
A heat pump water heater (1, 101), comprising: a heat pump unit including a condenser, a refrigerant circuit in which a refrigerant condensing in the condenser circulates; and a hot water storage tank which stores hot water heated in the condenser, wherein: an operation mode is selectable from (i) a circulation heating mode in which heated hot water is supplied to a bottom portion of the hot water storage tank at a first flow rate, and (ii) a non-circulation heating mode in which heated hot water is supplied to a top portion of the hot water storage tank at a second flow rate lower than the first flow rate; and by switching the operation mode between the circulation heating mode and the non-circulation heating mode the flow rate of hot water supplied to the hot water storage tank is changed with a change in temperature of the refrigerant in the refrigerant circuit or with a change in temperature of hot water in a hot water circuit which connects the condenser with the hot water storage tank. a heat pump unit including a condenser, a refrigerant circuit in which a refrigerant condensing in the condenser circulates; and a hot water storage tank which stores hot water heated in the condenser, wherein: an operation mode is selectable from (i) a circulation heating mode in which heated hot water is supplied to a bottom portion of the hot water storage tank at a first flow rate, and (ii) a non-circulation heating mode in which heated hot water is supplied to a top portion of the hot water storage tank at a second flow rate lower than the first flow rate; and by switching the operation mode between the circulation heating mode and the non-circulation heating mode the flow rate of hot water supplied to the hot water storage tank is changed with a change in temperature of the refrigerant in the refrigerant circuit or with a change in temperature of hot water in a hot water circuit which connects the condenser with the hot water storage tank. an operation mode is selectable from (i) a circulation heating mode in which heated hot water is supplied to a bottom portion of the hot water storage tank at a first flow rate, and (ii) a non-circulation heating mode in which heated hot water is supplied to a top portion of the hot water storage tank at a second flow rate lower than the first flow rate; and by switching the operation mode between the circulation heating mode and the non-circulation heating mode the flow rate of hot water supplied to the hot water storage tank is changed with a change in temperature of the refrigerant in the refrigerant circuit or with a change in temperature of hot water in a hot water circuit which connects the condenser with the hot water storage tank.
Method for producing a printed circuit board for a light module of a motor vehicle lighting device, wherein a fiducial marker is provided in the conductive pattern of the printed circuit board, wherein a reference hole through the printed circuit board is formed in the fiducial marker, wherein the reference hole and a fastening hole for connecting the printed circuit board to a primary optical element are part of a hole pattern and are formed by means of the same drilling program, wherein a deviation between positions (24, 44) of the fiducial marker and the reference hole corresponds to an offset of the positions of the conductive pattern and the hole pattern, wherein a light-emitting component is arranged on the printed circuit board so as to be displaced by the deviation, and wherein the primary optical element is fixed to the printed circuit board by means of the fastening hole.
A method for wireless communication performed by a mobile device, comprising: receiving, from a source cell, a reference signal transmitted according to a reference signal, RS, density scheme, the RS density scheme selected from a set of RS density schemes based at least in part on a machine-type communication, MTC, mobile device category of the mobile device; identifying the RS density scheme, wherein the identifying is based at least in part on a machine-type communication, MTC, physical downlink control channel, MPDCCH, or an MTC physical downlink shared channel, MPDSCH, associated with the reference signal; and communicating using the reference signal according to the RS density scheme. receiving, from a source cell, a reference signal transmitted according to a reference signal, RS, density scheme, the RS density scheme selected from a set of RS density schemes based at least in part on a machine-type communication, MTC, mobile device category of the mobile device; identifying the RS density scheme, wherein the identifying is based at least in part on a machine-type communication, MTC, physical downlink control channel, MPDCCH, or an MTC physical downlink shared channel, MPDSCH, associated with the reference signal; and communicating using the reference signal according to the RS density scheme.
A method at a user equipment, UE, which operates in a Long-Term Evolution, LTE, network and is in a radio resource control, RRC, connected mode, comprising: receiving, from a wireless network, by the UE, a mapping for a plurality of resource identifiers, each resource identifier mapped to an uplink resource configuration for each of a plurality of uplink control information, UCI, types; receiving, by the UE, a message including an assigned resource identifier, determining, by the UE, an uplink resource configurations for a UCI type mapped to the assigned resource identifier based on the received mapping, wherein the UCI type includes at least one of: channel quality indication, CQI, precoding matrix information, PMI, rank indication, RI, dedicated scheduling request, DSR, and sounding reference signal, SRS; and transmitting, by the UE, UCI corresponding to the UCI type using uplink resource configuration corresponding to the determined uplink resource configuration; wherein uplink resources assigned according to the identifier, are automatically released at a time associated with a DRX sub-state transition, DRX timer expiry or other change that causes a reconfiguration of DRX parameters or timers. receiving, from a wireless network, by the UE, a mapping for a plurality of resource identifiers, each resource identifier mapped to an uplink resource configuration for each of a plurality of uplink control information, UCI, types; receiving, by the UE, a message including an assigned resource identifier, determining, by the UE, an uplink resource configurations for a UCI type mapped to the assigned resource identifier based on the received mapping, wherein the UCI type includes at least one of: channel quality indication, CQI, precoding matrix information, PMI, rank indication, RI, dedicated scheduling request, DSR, and sounding reference signal, SRS; and transmitting, by the UE, UCI corresponding to the UCI type using uplink resource configuration corresponding to the determined uplink resource configuration; wherein uplink resources assigned according to the identifier, are automatically released at a time associated with a DRX sub-state transition, DRX timer expiry or other change that causes a reconfiguration of DRX parameters or timers.
Method for estimating a navigation state with a plurality of variables of a mobile carrier according to the extended Kalman filter method, comprising the steps of: - acquiring measurements of at least one of the variables, - extended Kalman filtering producing a current estimated state and a covariance matrix delimiting in the space of the navigation state a region of errors, from a preceding estimated state, an observation matrix ( Φ k - 1→k), a transition matrix ( H k) and acquired measurements, the method being characterised in that it comprises a step of adjusting (310, 330) the transition matrix ( H k) and the observation matrix ( Φ k -1→ k) prior to their use in the extended Kalman filtering, so that the adjusted matrices satisfy an observability condition that depends on at least one of the variables of the state of the carrier, the observability condition being adapted to prevent the Kalman filter from reducing the dimension of the region along at least one non-observable axis of the state space, wherein the observability condition to be satisfied by the adjusted transition and observation matrices is the nullity of the kernel of an observability matrix ( M ( X 0)) which is associated therewith, and wherein the adjustment comprises the steps of: - calculating at least one primary base ( B 1 k) of non-observable vectors from a preceding estimated state, - for each matrix to be adjusted ( H k, Φ k - 1 → k), calculating (306, 308) at least one matrix difference ( δH k, δΦ k - 1 → k) associated with the matrix from the primary base ( B 1 k) of vectors, - offsetting each matrix to be adjusted ( H k, Φ k - 1 → k), according to the matrix difference ( δH k, δΦ k - 1 → k) that is associated therewith so as to satisfy the observability condition. - acquiring measurements of at least one of the variables, - extended Kalman filtering producing a current estimated state and a covariance matrix delimiting in the space of the navigation state a region of errors, from a preceding estimated state, an observation matrix ( Φ k - 1→k), a transition matrix ( H k) and acquired measurements, - calculating at least one primary base ( B 1 k) of non-observable vectors from a preceding estimated state, - for each matrix to be adjusted ( H k, Φ k - 1 → k), calculating (306, 308) at least one matrix difference ( δH k, δΦ k - 1 → k) associated with the matrix from the primary base ( B 1 k) of vectors, - offsetting each matrix to be adjusted ( H k, Φ k - 1 → k), according to the matrix difference ( δH k, δΦ k - 1 → k) that is associated therewith so as to satisfy the observability condition.
Tyre with a radial carcass reinforcement, made up of at least one layer of metal reinforcing elements, the said tyre comprising a crown reinforcement, itself capped radially by a tread, the said tread being connected to two beads by two sidewalls, the metal reinforcing elements of at least one layer of the carcass reinforcement being non-wrapped cords (21, 31, 41) which, in the test referred to as the permeability test, return a flow rate of less than 20 cm 3 /min, in a radial plane, over at least 50% of the meridian profile of the tyre, the thickness of rubber compound between the interior surface of the tyre cavity and the point of a metal reinforcing element of the carcass reinforcement closest to the said interior surface of the cavity being greater than 1.0 mm and less than or equal to 3.0 mm, the thickness of rubber compound between the interior surface of the tyre cavity and the point of a metal reinforcing element of the carcass reinforcement closest to the said interior surface of the cavity of two parts (9a, 9b) of the tyre profile which, to within 20 mm, are centred on the orthogonal projection of the shoulder ends of the tyre onto the interior surface of the tyre being greater than 2.4 mm and less than or equal to 3.9 mm, a shoulder end being defined, in the shoulder region of the tyre, by the orthogonal projection onto the exterior surface of the tyre of the intersection of the tangents to the surfaces of an axially external end of the tread, at the top of the tread blocks, on the one hand and of the radially external end of a sidewall on the other, the ratio between thicknesses (D, E) of rubber compound between the interior surface of the tyre cavity and the point (17, 12) of a metal reinforcing element of the carcass reinforcement closest to the said interior surface of the cavity of two distinct parts of the tyre being greater than 1.10, characterized in that the meridian length of the two parts (9a, 9b) of the profile of the tyre which, to within 20 mm, are centred on the orthogonal projection of the shoulder ends of the tyre onto the interior surface of the tyre of which the thickness of rubber compound between the interior surface of the cavity of the tyre and the point of a metal reinforcing element of the carcass reinforcement closest to the said interior surface of the cavity is greater than 2.4 mm and less than or equal to 3.9 mm is between 60 and 200 mm.
A rotor for a gyroscope, comprising a rotor upper part having a housing annularly spaced apart from the center of the rotor and a rotor lower part having a housing annularly spaced apart from the center of the rotor, the housing of the rotor upper part comprising a first core piece and the housing of the rotor lower part comprising a second core piece, and the rotor upper part being attachable to the rotor lower part in the direction of rotor rotation axis, characterized in that the upper inner core piece of the rotor is obtained by casting in molten form into the upper part housing and solidifying therein and said lower inner core piece of the rotor can be obtained by casting in molten form into the lower part housing and solidifying therein.
An endoscopic imaging system for imaging a fluorescent agent in a patient, the system comprising an endoscope, the endoscope further comprising: a first optical channel communicating light from a first light source and a second light source, the first light source having an excitation wavelength and the second light source having a wavelength different than the wavelength of the first light source; characterized in, that the endoscope further comprises: a field stop having a fluorescent indicator; and a second optical channel in optical communication with the first light source and in optical communication with the fluorescent indicator on the field stop, wherein, when light from the first light source illuminates the fluorescent indicator on the field stop, the fluorescent indicator is detectable. a first optical channel communicating light from a first light source and a second light source, the first light source having an excitation wavelength and the second light source having a wavelength different than the wavelength of the first light source; characterized in, that the endoscope further comprises: a field stop having a fluorescent indicator; and a second optical channel in optical communication with the first light source and in optical communication with the fluorescent indicator on the field stop, wherein, when light from the first light source illuminates the fluorescent indicator on the field stop, the fluorescent indicator is detectable. a field stop having a fluorescent indicator; and a second optical channel in optical communication with the first light source and in optical communication with the fluorescent indicator on the field stop, wherein, when light from the first light source illuminates the fluorescent indicator on the field stop, the fluorescent indicator is detectable.