mhurhangee/ep-ind-claims huggingface dataset:
An information processing system comprising: an operation part configured to receive an operation performed by a user, wherein the operation part comprises a touch panel, a power control part, and an operation part controller having an operating system, said operating part controller being configured to control operations of the operation part; a body part configured to operate based on a request from the operation part, wherein the body part comprises a body part controller having an operating system; characterized by: a cable, wherein the body part and the operation part are connected by the cable such that data communication can be carried out therebetween; and a power switch provided on the body part and configured to turn the power on or off, wherein the body part is further configured to send a start up notification to the power control part of the operation part and to begin starting up when the power switch is turned on, wherein the body part is further configured to send a power turning-off instruction to the power control part of the operation part and to end operations and turn off once the power switch is turned off; and wherein the power control part is configured to, when receiving the power turning-off instruction from the body part, reboot the operation part and cause the operation part to stand by in a power saving state in which some of operations are stopped, and, when receiving the start up notification from the body part, cause the operation part to return from the power saving state. an operation part configured to receive an operation performed by a user, wherein the operation part comprises a touch panel, a power control part, and an operation part controller having an operating system, said operating part controller being configured to control operations of the operation part; a body part configured to operate based on a request from the operation part, wherein the body part comprises a body part controller having an operating system; a cable, wherein the body part and the operation part are connected by the cable such that data communication can be carried out therebetween; and a power switch provided on the body part and configured to turn the power on or off, wherein the body part is further configured to send a start up notification to the power control part of the operation part and to begin starting up when the power switch is turned on, wherein the body part is further configured to send a power turning-off instruction to the power control part of the operation part and to end operations and turn off once the power switch is turned off; and wherein the power control part is configured to, when receiving the power turning-off instruction from the body part, reboot the operation part and cause the operation part to stand by in a power saving state in which some of operations are stopped, and, when receiving the start up notification from the body part, cause the operation part to return from the power saving state.
A pumping system (10; 100) comprising: a mounting base (40; 140) having a circular portion with a circumferential wall (42a', 42a") configured with at least two slots formed therein; a motor, pump and electronics assembly having a housing (54, 56) with a motor arranged therein, the housing (54, 56) being configured with at least two detents formed thereon; and a switching assembly having a water level sensor configured to respond to a water level and turn the motor on and off, the switching assembly being arranged in the housing (54, 56) of the motor, pump and electronics assembly, characterized by the mounting base (40; 140) and the motor, pump and electronics assembly being coupled together using a detent and slot arrangement so that the at least two slots receive the at least two detents for rotationally coupling together the mounting base (40; 140) and the motor, pump and electronics assembly in at least two rotational orientations that differ by 180°, including a first rotational orientation so that the water level sensor is located at a higher height in the housing (54, 56) for providing a higher water level sensing setting, and a second rotational orientation so that the water level sensor is located at a lower height in the housing (54, 56) for providing a lower water level sensing setting. a mounting base (40; 140) having a circular portion with a circumferential wall (42a', 42a") configured with at least two slots formed therein; a motor, pump and electronics assembly having a housing (54, 56) with a motor arranged therein, the housing (54, 56) being configured with at least two detents formed thereon; and a switching assembly having a water level sensor configured to respond to a water level and turn the motor on and off, the switching assembly being arranged in the housing (54, 56) of the motor, pump and electronics assembly, characterized by the mounting base (40; 140) and the motor, pump and electronics assembly being coupled together using a detent and slot arrangement so that the at least two slots receive the at least two detents for rotationally coupling together the mounting base (40; 140) and the motor, pump and electronics assembly in at least two rotational orientations that differ by 180°, including a first rotational orientation so that the water level sensor is located at a higher height in the housing (54, 56) for providing a higher water level sensing setting, and a second rotational orientation so that the water level sensor is located at a lower height in the housing (54, 56) for providing a lower water level sensing setting. a first rotational orientation so that the water level sensor is located at a higher height in the housing (54, 56) for providing a higher water level sensing setting, and a second rotational orientation so that the water level sensor is located at a lower height in the housing (54, 56) for providing a lower water level sensing setting.
Integrated measuring system, comprising: - a structural element, adapted to be incorporated in a building construction and elongated in a longitudinal direction, said structural element having an internal cavity hermetically closed or closable by means of closure means, said internal cavity being filled with a compressible fluid; - a measurement system, adapted to measure deformations and/or stresses on the structural element along said longitudinal direction, the system comprising a pressure measuring device in contact with the fluid in the internal cavity, said measurement system further comprising a device for measuring the temperature of the fluid and/or the temperature of the inner wall of the cavity, in such a way that the system is able to determine a volume variation of the cavity by measuring a pressure and temperature variation of the fluid resulting from an action imparted to the structural element, wherein the cavity extends along a direction substantially perpendicular with respect to said longitudinal direction, and wherein the structural element is a metallic bar for reinforced concrete. - a structural element, adapted to be incorporated in a building construction and elongated in a longitudinal direction, said structural element having an internal cavity hermetically closed or closable by means of closure means, said internal cavity being filled with a compressible fluid; - a measurement system, adapted to measure deformations and/or stresses on the structural element along said longitudinal direction, the system comprising a pressure measuring device in contact with the fluid in the internal cavity, said measurement system further comprising a device for measuring the temperature of the fluid and/or the temperature of the inner wall of the cavity, in such a way that the system is able to determine a volume variation of the cavity by measuring a pressure and temperature variation of the fluid resulting from an action imparted to the structural element, wherein the cavity extends along a direction substantially perpendicular with respect to said longitudinal direction, and wherein the structural element is a metallic bar for reinforced concrete.
A communication method for switching one or more protocol data unit, PDU, sessions with a same data network name, DNN, of a 5th Generation, 5G, network to one or more packet data network, PDN, connections with a same access point name, APN, of a 4th generation, 4G, network, wherein the communication method comprises: determining, by a network device based on switching indication information of established PDU sessions of a terminal in the 5G network, a target PDU session from the established PDU sessions, wherein the switching indication information is obtained by the network device, wherein the established PDU sessions have a same DNN, the switching indication information of the established PDU sessions indicates at least one PDU session that is switchable to the 4G network in the established PDU sessions, the established PDU sessions having the same DNN are anchored to different control plane function network elements, and the target PDU session is a PDU session that can be switched to the 4G network; and wherein the method further comprises sending, by the network device, session information of the target PDU session to a mobility management entity device in the 4G network, wherein the session information of the target PDU session comprises an identifier of a control plane function network element corresponding to the target PDU session and a DNN of the target PDU session, wherein the network device is a user data management network element. determining, by a network device based on switching indication information of established PDU sessions of a terminal in the 5G network, a target PDU session from the established PDU sessions, wherein the switching indication information is obtained by the network device, wherein the established PDU sessions have a same DNN, the switching indication information of the established PDU sessions indicates at least one PDU session that is switchable to the 4G network in the established PDU sessions, the established PDU sessions having the same DNN are anchored to different control plane function network elements, and the target PDU session is a PDU session that can be switched to the 4G network; and wherein the method further comprises sending, by the network device, session information of the target PDU session to a mobility management entity device in the 4G network, wherein the session information of the target PDU session comprises an identifier of a control plane function network element corresponding to the target PDU session and a DNN of the target PDU session, wherein the network device is a user data management network element.
An installation including: an in-building hot water supply system; a heat pump arranged to heat water in the hot water supply system; an energy storage arrangement containing a mass of energy storage medium having enough heat capacity to heat to a predetermined temperature a predetermined quantity of water in the interval from the opening of an outlet of the hot water supply system until at least the heat pump begins to heat water in the hot water supply system; a heat exchanger that is coupled between the hot water supply system and the heat pump and arranged to exchange heat from liquid heated by the heat pump to heat water in the hot water supply system; a processor to provide a signal to the heat pump based on the opening of the outlet of the hot water supply system; and an instantaneous water heater in a flow path to the outlet of the hot water supply system, the instantaneous water heater being controlled by the processor which is configured to control the instantaneous water heater based on information about the status of the energy storage medium and of the heat pump, wherein the processor relies preferentially on the energy storage arrangement and then the heat pump to provide sufficient hot water to the outlet of the hot water supply system. an in-building hot water supply system; a heat pump arranged to heat water in the hot water supply system; an energy storage arrangement containing a mass of energy storage medium having enough heat capacity to heat to a predetermined temperature a predetermined quantity of water in the interval from the opening of an outlet of the hot water supply system until at least the heat pump begins to heat water in the hot water supply system; a heat exchanger that is coupled between the hot water supply system and the heat pump and arranged to exchange heat from liquid heated by the heat pump to heat water in the hot water supply system; a processor to provide a signal to the heat pump based on the opening of the outlet of the hot water supply system; and an instantaneous water heater in a flow path to the outlet of the hot water supply system, the instantaneous water heater being controlled by the processor which is configured to control the instantaneous water heater based on information about the status of the energy storage medium and of the heat pump, wherein the processor relies preferentially on the energy storage arrangement and then the heat pump to provide sufficient hot water to the outlet of the hot water supply system.
A method of storing softbits of messages received according to a Hybrid Automatic Repeat Request, HARQ, protocol, the method comprising: providing a first storage and a second storage, wherein the first storage and the second storage include a plurality of memory segments allocatable to HARQ processes; receiving a first message related to a first HARQ process, wherein the first message is protected by a channel code of the HARQ protocol and represented by softbits; storing the softbits of the first message in a first segment of the first storage, wherein the first segment is allocated to the first HARQ process, and wherein the first storage is accessible by a channel decoding unit for decoding the channel code; and if a number of allocated segments in the first storage, the decoding of which has not yet been completed, exceeds a threshold, changing the allocation for the first HARQ process from the first segment in the first storage to a second segment in the second storage. providing a first storage and a second storage, wherein the first storage and the second storage include a plurality of memory segments allocatable to HARQ processes; receiving a first message related to a first HARQ process, wherein the first message is protected by a channel code of the HARQ protocol and represented by softbits; storing the softbits of the first message in a first segment of the first storage, wherein the first segment is allocated to the first HARQ process, and wherein the first storage is accessible by a channel decoding unit for decoding the channel code; and if a number of allocated segments in the first storage, the decoding of which has not yet been completed, exceeds a threshold, changing the allocation for the first HARQ process from the first segment in the first storage to a second segment in the second storage.
An intra-oral x-ray imaging arrangement, which includes as separate structures, first, a radiation source having a collimator structure (4', 40) limiting an x-ray beam, for generating the x-ray beam used in imaging and for aiming it to the object to be imaged, secondly, an imaging sensor arranged positionable within a patient's mouth, and a control system of the imaging arrangement, wherein the arrangement includes means (A1, M1, G1) arranged in connection with the imaging sensor and means (A2, M2, G2) arranged in connection with the x-ray source to measure their spatial position and to send measurement signals based on these measurements, wherein said means to measure spatial position and to send measurement signals includes at least one of the following: a three-axis magnetic sensor, a three-axis acceleration sensor and a three-axis gyro sensor, wherein the control system of the imaging arrangement includes means to determine, based on said measurement signals, information on the mutual spatial position of the imaging sensor and the radiation source, or of a component (40, 50) arranged to the radiation source, and in that said collimator structure (4', 40) is implemented by a structure which enables adjusting a collimator opening limited by the collimator for at least one of the following: its size, its shape, its location, its position, which structure for adjusting the collimator opening is arranged to function as motorized or by other electric power means and its control to be done as based control signals received from the control system of the imaging arrangement.
Electronic unintended movement governor which comprises an input for position data of an elevator car, means for determining the speed of the elevator car, a plurality of limit values for permitted movement of the elevator car, including a limit value (36, 37) of a maximum permitted speed of the elevator car, and which unintended movement governor also comprises overspeed monitoring for controlling at least one stopping appliance of the elevator car when the speed of the elevator car exceeds the limit value (36, 37) of the maximum permitted speed, wherein the limit values for the permitted movement of the elevator car comprise a limit value for the distance traveled by the elevator car as well as a time delay and limit values for the extreme limits of movement of the elevator car in the elevator shaft during construction-time use, wherein further the electronic unintended movement governor comprises means for determining the distance traveled by the elevator car, a timer as well as at least two separate controls for controlling a stopping appliance (14, 15) of the elevator car, namely: - a first control comprising a first input for a first activation signal for immediately controlling at least one stopping appliance (14, 15) of the elevator car, and - a second control comprising a second input for a second activation signal for controlling at least one stopping appliance (14, 15) of the elevator car when the distance traveled by the elevator car exceeds a predefined limit value and/or the time delay is exceeded, and wherein the first and the second controls of the stopping appliance of the elevator car comprise a control of the machinery brake as well as the disconnection of the power input circuit of the motor. - a first control comprising a first input for a first activation signal for immediately controlling at least one stopping appliance (14, 15) of the elevator car, and - a second control comprising a second input for a second activation signal for controlling at least one stopping appliance (14, 15) of the elevator car when the distance traveled by the elevator car exceeds a predefined limit value and/or the time delay is exceeded,
A circuit, comprising: a thin-oxide PMOS transistor having a source and a switched n-well; a native thick-oxide NMOS transistor having a gate controlled responsive to a control signal, a drain coupled to a low-voltage supply configured to provide a low voltage, and a source coupled to the thin-oxide PMOS transistor's source and switched n-well; and a thick-oxide PMOS transistor having a gate controlled responsive to the control signal, a source coupled to a high-voltage supply configured to provide a high voltage that is greater than the low voltage, and a drain coupled to the thin-oxide PMOS transistor's source and switched n-well, wherein the native thick-oxide NMOS transistor and the thick-oxide PMOS transistor each have a first gate-oxide thickness that is greater than a second gate-oxide thickness for the thin-oxide PMOS transistor. a thin-oxide PMOS transistor having a source and a switched n-well; a native thick-oxide NMOS transistor having a gate controlled responsive to a control signal, a drain coupled to a low-voltage supply configured to provide a low voltage, and a source coupled to the thin-oxide PMOS transistor's source and switched n-well; and a thick-oxide PMOS transistor having a gate controlled responsive to the control signal, a source coupled to a high-voltage supply configured to provide a high voltage that is greater than the low voltage, and a drain coupled to the thin-oxide PMOS transistor's source and switched n-well, wherein the native thick-oxide NMOS transistor and the thick-oxide PMOS transistor each have a first gate-oxide thickness that is greater than a second gate-oxide thickness for the thin-oxide PMOS transistor.
A radio receiver, the receiver comprising: an adaptive pass band filter that operates over a pass band of frequencies, the adaptive pass band filter subdividing the pass band 104 into a plurality of sub-channels (1021 to 102-n) each comprising a narrower bandwidth than the pass band; and a signal analyzer receiving the plurality of sub-channels (102-1 to 102-n), the signal analyzer providing feedback to the adaptive pass band filter, wherein the adaptive pass band filter divides the pass band into the plurality of sub-channels (102-1 to 102-n) based on the feedback; characterised by the signal analyzer selectively generates an output (102-s) comprising of at least one of the plurality of sub-channels (102-1 to 102-n) based on selecting a first sub-channel of the plurality of channels (102-1 to 102-n) having a strongest carrier signal. an adaptive pass band filter that operates over a pass band of frequencies, the adaptive pass band filter subdividing the pass band 104 into a plurality of sub-channels (1021 to 102-n) each comprising a narrower bandwidth than the pass band; and a signal analyzer receiving the plurality of sub-channels (102-1 to 102-n), the signal analyzer providing feedback to the adaptive pass band filter, wherein the adaptive pass band filter divides the pass band into the plurality of sub-channels (102-1 to 102-n) based on the feedback; characterised by the signal analyzer selectively generates an output (102-s) comprising of at least one of the plurality of sub-channels (102-1 to 102-n) based on selecting a first sub-channel of the plurality of channels (102-1 to 102-n) having a strongest carrier signal.
Yeasts strains in which the BDH1 gene encoding Bdh1p, having an butanediol hydrogenase activity, is overexpressed relative to the initial strain, characterized in that: - said yeasts comprise one or more mutations in the gene BDH1 in order to exhibit a cofactor specificity for NADPH instead of NADH, and catalyse the reduction of acetoin to 2,3-butanediol at a rate that is at least twice that of the initial strain, and - in that the protein Bdh1p encoded by the gene BDH1 comprises a mutation at position 221, 222 or 223, or at positions 221 and 222, or 221 and 223, or 222 and 223, or 221, 222 and 223 with reference to the Saccharomyces cerevisiae S288C strain, the mutation at position 221 being S, at position 222, R, and at position 223, S. - said yeasts comprise one or more mutations in the gene BDH1 in order to exhibit a cofactor specificity for NADPH instead of NADH, and catalyse the reduction of acetoin to 2,3-butanediol at a rate that is at least twice that of the initial strain, and - in that the protein Bdh1p encoded by the gene BDH1 comprises a mutation at position 221, 222 or 223, or at positions 221 and 222, or 221 and 223, or 222 and 223, or 221, 222 and 223 with reference to the Saccharomyces cerevisiae S288C strain, the mutation at position 221 being S, at position 222, R, and at position 223, S.
A process of stripping of an aqueous urea solution comprising unconverted carbamate ammonium and ammonia, wherein said solution is contacted with gaseous carbon dioxide acting as a stripping medium, and the stripping takes place substantially at a synthesis pressure of said solution, characterized in that it is performed in a falling-film shell-and-tube stripper, wherein a liquid film of said solution formed in the tubes of said stripper has a peak temperature of at least 220 °C.