mhurhangee/patent-ind-claim-en huggingface dataset:
A terminal comprising: a receiving section configured to receive configuration information for a downlink bandwidth part, DL BWP, the configuration information including a control resource set, CORESET, configuration and a related search space configuration; and a control section configured to determine a CORESET related to a DL BWP based on the configuration information for the DL BWP, wherein, upon detection of a downlink control information in the CORESET, the receiving section is configured to receive a physical downlink shared channel, PDSCH, in the DL BWP, based on the configuration information for the DL BWP, and wherein the search space configuration includes information on a number of times of blind decoding of a combination of part of aggregation levels and part of downlink control information, DCI, formats. a receiving section configured to receive configuration information for a downlink bandwidth part, DL BWP, the configuration information including a control resource set, CORESET, configuration and a related search space configuration; and a control section configured to determine a CORESET related to a DL BWP based on the configuration information for the DL BWP, wherein, upon detection of a downlink control information in the CORESET, the receiving section is configured to receive a physical downlink shared channel, PDSCH, in the DL BWP, based on the configuration information for the DL BWP, and wherein the search space configuration includes information on a number of times of blind decoding of a combination of part of aggregation levels and part of downlink control information, DCI, formats.
A lens assessment device for quantitatively assessing a lens of an examinee, comprising: measurement data input means for inputting measurement data on a chromatic vision of the examinee; a measurement data storage for storing the inputted measurement data; a reference data storage for storing reference data on the chromatic vision; and quantitative assessment means for quantitatively assessing the lens of the examinee by comparing the measurement data and the reference data, wherein the measurement data and the reference data both relate to measurement data of the chromatic vision for one or more specific colors being measured based on two or more test images displayed on a color monitor, one of which is an image showing a stimulus, and wherein the reference data storage stores data as the reference data, the data being measurement data of chromatic vision of a large group of people who have an artificial lens inserted into the eye and the data being classified by kinds of the artificial lenses. measurement data input means for inputting measurement data on a chromatic vision of the examinee; a measurement data storage for storing the inputted measurement data; a reference data storage for storing reference data on the chromatic vision; and quantitative assessment means for quantitatively assessing the lens of the examinee by comparing the measurement data and the reference data, wherein the measurement data and the reference data both relate to measurement data of the chromatic vision for one or more specific colors being measured based on two or more test images displayed on a color monitor, one of which is an image showing a stimulus, and wherein the reference data storage stores data as the reference data, the data being measurement data of chromatic vision of a large group of people who have an artificial lens inserted into the eye and the data being classified by kinds of the artificial lenses.
A charged particle beam apparatus that includes a magnetic lens having an electromagnetic coil composed of a pair of coils , the charged particle beam apparatus comprising: a setting unit that sets a maximum current value that defines a maximum magnetomotive force of the magnetic lens based on an operation of a user; and a current control unit that controls a current to be supplied to each of the pair of coils within a current range corresponding to a set maximum current value so that thermal power consumed by the electromagnetic coil is maintained constant at thermal power corresponding to the set maximum current value. a setting unit that sets a maximum current value that defines a maximum magnetomotive force of the magnetic lens based on an operation of a user; and a current control unit that controls a current to be supplied to each of the pair of coils within a current range corresponding to a set maximum current value so that thermal power consumed by the electromagnetic coil is maintained constant at thermal power corresponding to the set maximum current value.
A fluid heating system comprising: a pressure vessel shell comprising a first inlet ; a heat exchanger disposed in the pressure vessel shell, the heat exchanger comprising a second inlet and a second outlet, wherein the second inlet of the heat exchanger is connected to the first inlet of the pressure vessel shell; and an exhaust manifold disposed in the pressure vessel shell, the exhaust manifold comprising a third inlet and a third outlet, wherein the third inlet of the exhaust manifold is connected to the second outlet of the heat exchanger, wherein the third outlet of the exhaust manifold is outside of the pressure vessel shell, and characterised in that at least a portion of the exhaust manifold is located within the pressure vessel shell, and wherein the pressure vessel shell is configured to contain a production fluid such that an outer surface of the exhaust manifold is contacted by the production fluid; wherein a portion of the exhaust manifold located within the pressure vessel shell comprises a curved bend to cause thermal transfer fluid impinging on an inner surface of the manifold to turn. a pressure vessel shell comprising a first inlet ; a heat exchanger disposed in the pressure vessel shell, the heat exchanger comprising a second inlet and a second outlet, wherein the second inlet of the heat exchanger is connected to the first inlet of the pressure vessel shell; and an exhaust manifold disposed in the pressure vessel shell, the exhaust manifold comprising a third inlet and a third outlet, wherein the third inlet of the exhaust manifold is connected to the second outlet of the heat exchanger, wherein the third outlet of the exhaust manifold is outside of the pressure vessel shell, and characterised in that at least a portion of the exhaust manifold is located within the pressure vessel shell, and wherein the pressure vessel shell is configured to contain a production fluid such that an outer surface of the exhaust manifold is contacted by the production fluid; wherein a portion of the exhaust manifold located within the pressure vessel shell comprises a curved bend to cause thermal transfer fluid impinging on an inner surface of the manifold to turn. wherein the third inlet of the exhaust manifold is connected to the second outlet of the heat exchanger, wherein the third outlet of the exhaust manifold is outside of the pressure vessel shell, and characterised in that at least a portion of the exhaust manifold is located within the pressure vessel shell, and wherein the pressure vessel shell is configured to contain a production fluid such that an outer surface of the exhaust manifold is contacted by the production fluid; wherein a portion of the exhaust manifold located within the pressure vessel shell comprises a curved bend to cause thermal transfer fluid impinging on an inner surface of the manifold to turn.
An air conditioning indoor unit comprising: a casing in which an air outlet is formed; a fan that can change the air volume of outlet air blown out from the air outlet; a flap that can change the air direction, in the up and down direction, of the outlet air; an air volume control unit that is configured to adjust the air volume by controlling the rotational speed of the fan in accordance with an air volume value it has determined; and an air direction control unit that is configured to adjust the air direction by controlling the angle of the flap and can switch between a first air direction in which the outlet air heads toward a ceiling and a second air direction in which the outlet air heads downward, characterized in that when the air direction switches from the second air direction to the first air direction, the air volume control unit is configured to determine the air volume value so as to exclude a predetermined small-air-volume-range corresponding to set values less than a predetermined set value. a casing in which an air outlet is formed; a fan that can change the air volume of outlet air blown out from the air outlet; a flap that can change the air direction, in the up and down direction, of the outlet air; an air volume control unit that is configured to adjust the air volume by controlling the rotational speed of the fan in accordance with an air volume value it has determined; and an air direction control unit that is configured to adjust the air direction by controlling the angle of the flap and can switch between a first air direction in which the outlet air heads toward a ceiling and a second air direction in which the outlet air heads downward, characterized in that when the air direction switches from the second air direction to the first air direction, the air volume control unit is configured to determine the air volume value so as to exclude a predetermined small-air-volume-range corresponding to set values less than a predetermined set value.
A network device configured to operate a network function, NF1, of a first network slice, NSI-2 , wherein the network device is configured to establish an end-to-end path from NF1 of NSI-2 to a network function, NF2, of a second network slice, NSI-1 , the network device being characterised by : the network device is configured to provide a first interface in NSI-2 in a third network namespace between NF1 and a first communication entity; wherein, NSI-2 defines a first network namespace in NSI-2 and NSI-1 defines a second network namespace, wherein NSI-2 comprises the first communication entity in the first network namespace and wherein NF1 is connected with the first communication entity by a second interface , wherein NSI-1 comprises a second communication entity in the second network namespace and wherein NF2 is connected with the second communication entity by a third interface ; the network device is further configured to provide a communication tunnel between NSI-2 and NSI-1 , whereby the network device is configured to provide the communication tunnel from a first communication tunnel port of a first communication entity NSI-2 to a second communication tunnel port of a second communication entity; and the network device is configured to provide and/or adjust one or more forwarding rules in NSI-2 and/or one or more forwarding rules in NSI-1 . the network device is configured to provide a first interface in NSI-2 in a third network namespace between NF1 and a first communication entity; wherein, NSI-2 defines a first network namespace in NSI-2 and NSI-1 defines a second network namespace, wherein NSI-2 comprises the first communication entity in the first network namespace and wherein NF1 is connected with the first communication entity by a second interface , wherein NSI-1 comprises a second communication entity in the second network namespace and wherein NF2 is connected with the second communication entity by a third interface ; the network device is further configured to provide a communication tunnel between NSI-2 and NSI-1 , whereby the network device is configured to provide the communication tunnel from a first communication tunnel port of a first communication entity NSI-2 to a second communication tunnel port of a second communication entity; and the network device is configured to provide and/or adjust one or more forwarding rules in NSI-2 and/or one or more forwarding rules in NSI-1 .
A door opening mechanism enabling opening in particular refrigerator doors, comprising - at least one body , - at least one driving unit providing actuation to open a door by rotating a shaft, - at least one reducer enabling reducing the speed of the rotational motion generated by the driving unit thereby increasing the torque thereof, and - at least one cogwheel rotated by the reducer , - the cog wheel having at least one pin preferably at the portion where its diameter is larger, characterized by - at least one L-shaped catch having at least one longer portion and at least one shorter portion together forming said L-shape, and at least one slot provided in the longer portion , in which the pin slidably moves during rotation of the cogwheel , and by - at least one bracket provided preferably at the region where the longer portion and the shorter portion of the catch join, forming a rotational axis for the catch . - at least one body , - at least one driving unit providing actuation to open a door by rotating a shaft, - at least one reducer enabling reducing the speed of the rotational motion generated by the driving unit thereby increasing the torque thereof, and - at least one cogwheel rotated by the reducer , - the cog wheel having at least one pin preferably at the portion where its diameter is larger, characterized by - at least one L-shaped catch having at least one longer portion and at least one shorter portion together forming said L-shape, and at least one slot provided in the longer portion , in which the pin slidably moves during rotation of the cogwheel , and by - at least one bracket provided preferably at the region where the longer portion and the shorter portion of the catch join, forming a rotational axis for the catch .
A vapor-based system for treating one or more components of a gas turbine engine , the system comprising: a treatment compound having a delivery temperature for a corresponding delivery pressure; a storage vessel containing the treatment compound ; and a delivery module operably coupled to the storage vessel and to an engine access point , wherein the delivery module is operable to deliver the treatment compound at one or more locations of the gas turbine engine ; a controller communicatively coupled to the delivery module and the storage vessel via a communications link to manage the delivery of the treatment compound to the gas turbine engine such that the treatment compound is a vapor in an engine air-path and is supersaturated when exposed to an engine component that is to be treated and condenses thereon; wherein the engine component that is to be treated has an engine component surface temperature and wherein the system is configured so that the delivery temperature of the vapor is greater than the engine component surface temperature, wherein the treatment compound comprises a cleaning agent, a restorative agent, or a protective agent. a treatment compound having a delivery temperature for a corresponding delivery pressure; a storage vessel containing the treatment compound ; and a delivery module operably coupled to the storage vessel and to an engine access point , wherein the delivery module is operable to deliver the treatment compound at one or more locations of the gas turbine engine ; a controller communicatively coupled to the delivery module and the storage vessel via a communications link to manage the delivery of the treatment compound to the gas turbine engine such that the treatment compound is a vapor in an engine air-path and is supersaturated when exposed to an engine component that is to be treated and condenses thereon; wherein the engine component that is to be treated has an engine component surface temperature and wherein the system is configured so that the delivery temperature of the vapor is greater than the engine component surface temperature, wherein the treatment compound comprises a cleaning agent, a restorative agent, or a protective agent.
A ventilating lamp particularly suitable for dental units groups and operating beds, comprising at least one lighting head comprising one or more light sources suitable of emitting one or more light beams connected to at least one supporting structure at least for moving the lamp, comprising at least one forced air source comprising at least one or more dispensing nozzles comprising directional fins suitable for directing a forced air jet in at least one or more directions with respect to the direction of the light beam emitted by the said light sources, characterized by the fact that said source comprises electrical means configured to move said fins of said nozzles also with continuous wave motion.
A lighting device comprising: a base ; a light element positioned on an upper surface of the base wherein the light element emits light; a first hollow member having a first hollow member first end , a first hollow member second end and a cavity within the first hollow member wherein the first hollow member first end engages the upper surface of the base ; a second hollow member fitting partially within the first hollow member at the first hollow member second end at a second hollow member first end , and within a third hollow member at a second hollow member second end ; a pair of biconvex lenses positioned within the cavity of the first hollow member ; a third biconvex lens retained in place by a retainer in the second hollow member ; a reflective enclosure engaging the third hollow member at a third hollow member second end , the reflective enclosure being hinged where it engages the third hollow member ; a reflector being secured within the reflective enclosure by a retaining ring wherein the reflector is configured to reflect light from the cavity of the first hollow member to a location exterior to the first hollow member ; and a power source. a base ; a light element positioned on an upper surface of the base wherein the light element emits light; a first hollow member having a first hollow member first end , a first hollow member second end and a cavity within the first hollow member wherein the first hollow member first end engages the upper surface of the base ; a second hollow member fitting partially within the first hollow member at the first hollow member second end at a second hollow member first end , and within a third hollow member at a second hollow member second end ; a pair of biconvex lenses positioned within the cavity of the first hollow member ; a third biconvex lens retained in place by a retainer in the second hollow member ; a reflective enclosure engaging the third hollow member at a third hollow member second end , the reflective enclosure being hinged where it engages the third hollow member ; a reflector being secured within the reflective enclosure by a retaining ring wherein the reflector is configured to reflect light from the cavity of the first hollow member to a location exterior to the first hollow member ; and a power source.
Curb stone or paving stone charging system for charging an energy store of an electrically driven vehicle , comprising a curb stone or paving stone unit with a surface defining a walking or driving surface in the installed state, a charging socket with an insertion opening via which electrical contacts of the charging socket are accessible and which is at least indirectly attached to the curb stone or paving stone unit , a plug which can be inserted into the insertion opening of the charging socket for contacting the contacts of the charging socket , a socket cover for covering the insertion opening of the charging socket temporally outside the charging process, which is rotatably mounted via a pivot axis to the curb stone or paving stone unit , characterized in that the plug has a recess on an outer circumference of its housing and the socket cover has a bulge on its outer circumference opposite the pivot axis , the outwardly pointing end of which can be received in the recess . a curb stone or paving stone unit with a surface defining a walking or driving surface in the installed state, a charging socket with an insertion opening via which electrical contacts of the charging socket are accessible and which is at least indirectly attached to the curb stone or paving stone unit , a plug which can be inserted into the insertion opening of the charging socket for contacting the contacts of the charging socket , a socket cover for covering the insertion opening of the charging socket temporally outside the charging process, which is rotatably mounted via a pivot axis to the curb stone or paving stone unit , characterized in that the plug has a recess on an outer circumference of its housing and the socket cover has a bulge on its outer circumference opposite the pivot axis , the outwardly pointing end of which can be received in the recess .
A memory controller to control the operation of a DRAM memory device , the memory controller comprising: an encoder to generate encoded data (DQ) and a data mask signal (DM) that accompanies the encoded data (DQ), wherein the encoder is configured to: (i) if the encoded data (DQ) is to be masked by the DRAM memory device , generate the encoded data (DQ) as a predetermined bit pattern and generate the data mask signal (DM) to have a first state; (ii) if the encoded data (DQ) is to be inverted and written to an array in the DRAM memory device , generate the encoded data (DQ) as inverted data and generate the data mask signal (DM) to have a second state; (iii) if the encoded data (DQ) is to be non-inverted and written to the array in the DRAM memory device , generate the encoded data as non-inverted data and generate the data mask signal (DM) to have the first state; and a transmitter configured to transmit the encoded data (DQ) and the data mask signal (DM) to the DRAM memory device . an encoder to generate encoded data (DQ) and a data mask signal (DM) that accompanies the encoded data (DQ), wherein the encoder is configured to: (i) if the encoded data (DQ) is to be masked by the DRAM memory device , generate the encoded data (DQ) as a predetermined bit pattern and generate the data mask signal (DM) to have a first state; (ii) if the encoded data (DQ) is to be inverted and written to an array in the DRAM memory device , generate the encoded data (DQ) as inverted data and generate the data mask signal (DM) to have a second state; (iii) if the encoded data (DQ) is to be non-inverted and written to the array in the DRAM memory device , generate the encoded data as non-inverted data and generate the data mask signal (DM) to have the first state; and (i) if the encoded data (DQ) is to be masked by the DRAM memory device , generate the encoded data (DQ) as a predetermined bit pattern and generate the data mask signal (DM) to have a first state; (ii) if the encoded data (DQ) is to be inverted and written to an array in the DRAM memory device , generate the encoded data (DQ) as inverted data and generate the data mask signal (DM) to have a second state; (iii) if the encoded data (DQ) is to be non-inverted and written to the array in the DRAM memory device , generate the encoded data as non-inverted data and generate the data mask signal (DM) to have the first state; and a transmitter configured to transmit the encoded data (DQ) and the data mask signal (DM) to the DRAM memory device .