mhurhangee/patent-ind-claim-en huggingface dataset:
A medical device comprising: a sensing circuit configured to sense at least one electrical signal and sense a plurality of electrophysiological events from the at least one electrical signal; a memory ; and a control circuit coupled to the sensing circuit and the memory and configured to: store an electrical signal segment from the at least one electrical signal sensed by the sensing circuit in the memory in response to each one of the plurality of electrophysiological events sensed by the sensing circuit; determine that signal to noise criteria are met based on the stored electrical signal segments; determine an increased gain signal segment from one of the stored electrical signal segments in response to determining that the signal to noise criteria are met; determine a noise metric from the increased gain signal segment; determine that the noise metric meets noise detection criteria; and classify the one of the stored electrical signal segments associated with the increased gain signal segment as a noise segment in response to the noise metric meeting the noise detection criteria. a sensing circuit configured to sense at least one electrical signal and sense a plurality of electrophysiological events from the at least one electrical signal; a memory ; and a control circuit coupled to the sensing circuit and the memory and configured to: store an electrical signal segment from the at least one electrical signal sensed by the sensing circuit in the memory in response to each one of the plurality of electrophysiological events sensed by the sensing circuit; determine that signal to noise criteria are met based on the stored electrical signal segments; determine an increased gain signal segment from one of the stored electrical signal segments in response to determining that the signal to noise criteria are met; determine a noise metric from the increased gain signal segment; determine that the noise metric meets noise detection criteria; and classify the one of the stored electrical signal segments associated with the increased gain signal segment as a noise segment in response to the noise metric meeting the noise detection criteria. store an electrical signal segment from the at least one electrical signal sensed by the sensing circuit in the memory in response to each one of the plurality of electrophysiological events sensed by the sensing circuit; determine that signal to noise criteria are met based on the stored electrical signal segments; determine an increased gain signal segment from one of the stored electrical signal segments in response to determining that the signal to noise criteria are met; determine a noise metric from the increased gain signal segment; determine that the noise metric meets noise detection criteria; and classify the one of the stored electrical signal segments associated with the increased gain signal segment as a noise segment in response to the noise metric meeting the noise detection criteria.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a source base station, a radio resource control, RRC, connection reconfiguration message for a random access channel-less, RACH-less, handover between the source base station and a target base station; receiving, from the target base station, an uplink grant for the RACH-less handover based on the RRC connection reconfiguration message, by monitoring a physical downlink control channel, PDCCH; transmitting, to the target base station, an RRC connection reconfiguration complete message for confirming the RACH-less handover, based on the uplink grant; and receiving, from the target base station, a medium access control, MAC, control element, CE, including a contention resolution identity of the terminal, as a response to the RRC connection reconfiguration complete message. receiving, from a source base station, a radio resource control, RRC, connection reconfiguration message for a random access channel-less, RACH-less, handover between the source base station and a target base station; receiving, from the target base station, an uplink grant for the RACH-less handover based on the RRC connection reconfiguration message, by monitoring a physical downlink control channel, PDCCH; transmitting, to the target base station, an RRC connection reconfiguration complete message for confirming the RACH-less handover, based on the uplink grant; and receiving, from the target base station, a medium access control, MAC, control element, CE, including a contention resolution identity of the terminal, as a response to the RRC connection reconfiguration complete message.
A motor comprising: a housing ; a rotating shaft extending along an axial direction; a stator disposed in the housing and having an axial length (h) in the axial direction between a first end surface and a second end surface; and a rotor coupled to the rotating shaft and disposed inside the stator, wherein the rotor includes a rotor core surrounding the rotating shaft and a plurality of magnets coupled to the rotor core on an outer surface thereof in a skewed manner, wherein the rotor core comprises a plurality of rotor core members , charcterized in that the rotor core members are spaced apart from each other in the axial direction, with predetermined gaps between adjacent rotor core members in the axial direction, wherein the gaps between the rotor core members consist of a first gap and a second gap between rotor core members, and wherein the first gap is equal to the second gap wherein the magnets are spaced apart from each other in the axial direction, wherein gaps (D1) between adjacent magnets in the axial direction are equal to each other, wherein the sum of the gaps between the magnets ranges from 0.04 to 0.07 times the axial length of the stator , wherein a first one of the magnets protrudes in the axial direction with respect to the first end surface of the stator by a first axial length (h1), while a second one of the magnets protrudes in the axial direction with respect to the second end surface of the stator by a second axial length (h2), and wherein the sum of the first and second axial lengths (h1, h2) is equal to the sum of the gaps between the magnets . a housing ; a rotating shaft extending along an axial direction; a stator disposed in the housing and having an axial length (h) in the axial direction between a first end surface and a second end surface; and a rotor coupled to the rotating shaft and disposed inside the stator, wherein the rotor includes a rotor core surrounding the rotating shaft and a plurality of magnets coupled to the rotor core on an outer surface thereof in a skewed manner, wherein the rotor core comprises a plurality of rotor core members , charcterized in that the rotor core members are spaced apart from each other in the axial direction, with predetermined gaps between adjacent rotor core members in the axial direction, wherein the gaps between the rotor core members consist of a first gap and a second gap between rotor core members, and wherein the first gap is equal to the second gap wherein the magnets are spaced apart from each other in the axial direction, wherein gaps (D1) between adjacent magnets in the axial direction are equal to each other, wherein the sum of the gaps between the magnets ranges from 0.04 to 0.07 times the axial length of the stator , wherein a first one of the magnets protrudes in the axial direction with respect to the first end surface of the stator by a first axial length (h1), while a second one of the magnets protrudes in the axial direction with respect to the second end surface of the stator by a second axial length (h2), and wherein the sum of the first and second axial lengths (h1, h2) is equal to the sum of the gaps between the magnets .
A refrigerating system, comprising: a refrigerating loop , comprising a compressor , a condenser , a main throttling element , and an evaporator that are connected in sequence through a pipeline; and a purification loop , comprising a purification compressor , a purification condenser , a purification throttling element , and a low-temperature separator that are connected in sequence through a pipeline, the purification loop being bi-directionally connected to the refrigerating loop through the low temperature separator and configured to separate a non-condensable gas in the refrigerating loop, the purification loop further comprising a discharge branch configured to discharge the non-condensable gas separated by the low-temperature separator; characterized by : a first auxiliary flow path, of which a first end is connected with the condenser and a second end is connected with the evaporator, wherein the purification condenser is configured to, when the system runs, exchange heat between a refrigerant in the first auxiliary flow path of the refrigerating loop and a refrigerant in the purification loop. a refrigerating loop , comprising a compressor , a condenser , a main throttling element , and an evaporator that are connected in sequence through a pipeline; and a purification loop , comprising a purification compressor , a purification condenser , a purification throttling element , and a low-temperature separator that are connected in sequence through a pipeline, the purification loop being bi-directionally connected to the refrigerating loop through the low temperature separator and configured to separate a non-condensable gas in the refrigerating loop, the purification loop further comprising a discharge branch configured to discharge the non-condensable gas separated by the low-temperature separator; characterized by : a first auxiliary flow path, of which a first end is connected with the condenser and a second end is connected with the evaporator, wherein the purification condenser is configured to, when the system runs, exchange heat between a refrigerant in the first auxiliary flow path of the refrigerating loop and a refrigerant in the purification loop. a first auxiliary flow path, of which a first end is connected with the condenser and a second end is connected with the evaporator, wherein the purification condenser is configured to, when the system runs, exchange heat between a refrigerant in the first auxiliary flow path of the refrigerating loop and a refrigerant in the purification loop.
A foamable laminate comprising: a polyethylene-based resin layer (I) on one side of a substrate mainly composed of paper; and a thermoplastic resin layer (II) comprising a thermoplastic resin (B) on the other side of the substrate, wherein the polyethylene-based resin layer (I) is a layer foamable by a vapor released from the substrate by heating, the thermoplastic resin layer (II) is a layer capable of retaining a vapor released from the substrate, and the thermoplastic resin layer (II) comprises a thermoplastic resin (B) having the following nature (b-1): (b-1) the melting point (Tm(b)) is from 100 to 140°C, and wherein the polyethylene-based resin layer (I) comprises a polyethylene-based resin (A) and an antioxidant, and satisfies the following properties (a-1) to (a-5): (a-1) the melt flow rate (MFR) of the polyethylene-based resin (A) as measured in accordance with JIS K7210 (190°C, a load of 21.18N) is 7 g/10 minutes or more and less than 20 g/10 minutes, (a-2) the density of the polyethylene-based resin (A) in accordance with JIS K7112 at a test temperature of 23°C is from 0.900 to 0.930 g/cm 3 , (a-3) the oxygen induction time (OIT) at 180°C, as determined according to JIS K6774 , Annex 2, and under the further measurement conditions indicated in the description, is 10 minutes or more and less than 190 minutes, (a-4) the memory effect (ME) of the polyethylene-based resin (A), as measured using a melt indexer to be used in JIS K7210 and under conditions of a cylinder temperature of 240°C and a constant-rate extrusion output of 3 g/minute and under the further measurement conditions indicated in the description, is less than 2.0, (a-5) the amount of the antioxidant in the polyethylene resin composition is 150 ppm or more and 2000 ppm or less. wherein the polyethylene-based resin layer (I) is a layer foamable by a vapor released from the substrate by heating, the thermoplastic resin layer (II) is a layer capable of retaining a vapor released from the substrate, and the thermoplastic resin layer (II) comprises a thermoplastic resin (B) having the following nature (b-1): (b-1) the melting point (Tm(b)) is from 100 to 140°C, and (a-1) the melt flow rate (MFR) of the polyethylene-based resin (A) as measured in accordance with JIS K7210 (190°C, a load of 21.18N) is 7 g/10 minutes or more and less than 20 g/10 minutes, (a-2) the density of the polyethylene-based resin (A) in accordance with JIS K7112 at a test temperature of 23°C is from 0.900 to 0.930 g/cm 3 , (a-3) the oxygen induction time (OIT) at 180°C, as determined according to JIS K6774 , Annex 2, and under the further measurement conditions indicated in the description, is 10 minutes or more and less than 190 minutes, (a-4) the memory effect (ME) of the polyethylene-based resin (A), as measured using a melt indexer to be used in JIS K7210 and under conditions of a cylinder temperature of 240°C and a constant-rate extrusion output of 3 g/minute and under the further measurement conditions indicated in the description, is less than 2.0, (a-5) the amount of the antioxidant in the polyethylene resin composition is 150 ppm or more and 2000 ppm or less.
A shisha device for use with a first cartridge containing an aerosol-generating substrate , wherein the first cartridge comprises a housing surrounding the aerosol-generating substrate , the shisha device comprising: a vessel defining an interior configured to contain liquid and defining an outlet in communication with the interior of the vessel; a first receptacle configured to receive the first cartridge ; and a first electrical heating element configured to heat the aerosol-generating substrate in the first cartridge to generate an aerosol when the first cartridge is received by the first receptacle, wherein the first heating element is configured to heat the aerosol-generating substrate to an extent sufficient to generate an aerosol without combusting the aerosol-generating substrate , wherein the first heating element is actuatable from a first position in which the first heating element does not extend into the first receptacle to a second position in which the first heating element extends into the first receptacle, wherein actuation of the first heating element from the first position to the second position causes the first heating element to pierce the first cartridge when the first cartridge is received by the receptacle, wherein insertion of the first cartridge into the first receptacle causes the first heating element to move from the first position to the second position. a vessel defining an interior configured to contain liquid and defining an outlet in communication with the interior of the vessel; a first receptacle configured to receive the first cartridge ; and a first electrical heating element configured to heat the aerosol-generating substrate in the first cartridge to generate an aerosol when the first cartridge is received by the first receptacle, wherein the first heating element is configured to heat the aerosol-generating substrate to an extent sufficient to generate an aerosol without combusting the aerosol-generating substrate , wherein the first heating element is actuatable from a first position in which the first heating element does not extend into the first receptacle to a second position in which the first heating element extends into the first receptacle, wherein actuation of the first heating element from the first position to the second position causes the first heating element to pierce the first cartridge when the first cartridge is received by the receptacle, wherein insertion of the first cartridge into the first receptacle causes the first heating element to move from the first position to the second position.
A computing system comprising: a processor configured to receive a request to store a data object within an in-memory database, and determine a category type associated with the data object from among a plurality of category types based on an attribute of the data object, the attribute including a data type of the data object; and a storage including a main memory (220; 320; 410) storing a plurality of memory pools (222-224; 322-326; 412-416), wherein the storage is configured to store the data object via a memory pool corresponding to the determined category from among the plurality of memory pools (222-224; 322-326; 412-416) corresponding to the plurality of respective categories, where the processor is configured to allocate a first category type of data object to a first memory pool (222; 322; 412) locked to physical memory of the main memory (220; 320; 410) in the storage and allocate a second category type of data object to a second memory pool (224; 326; 416) in the storage that is swapped out to disk (230; 340; 430) over time; wherein memory management for the database is performed by an operating system, and wherein the operating system (210; 310) locks all data stored in the first memory pool to the physical memory of the main memory . a processor configured to receive a request to store a data object within an in-memory database, and determine a category type associated with the data object from among a plurality of category types based on an attribute of the data object, the attribute including a data type of the data object; and a storage including a main memory (220; 320; 410) storing a plurality of memory pools (222-224; 322-326; 412-416), wherein the storage is configured to store the data object via a memory pool corresponding to the determined category from among the plurality of memory pools (222-224; 322-326; 412-416) corresponding to the plurality of respective categories, where the processor is configured to allocate a first category type of data object to a first memory pool (222; 322; 412) locked to physical memory of the main memory (220; 320; 410) in the storage and allocate a second category type of data object to a second memory pool (224; 326; 416) in the storage that is swapped out to disk (230; 340; 430) over time; wherein memory management for the database is performed by an operating system, and wherein the operating system (210; 310) locks all data stored in the first memory pool to the physical memory of the main memory .
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 (F) 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 (F) 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 fluid cylinder assembly comprising: a piston assembly comprising a piston coupled to a piston rod , the piston rod comprising a hollow body comprising an internal fluid reservoir ; a cylinder body coaxial with and at least partially surrounding said hollow piston rod ; and a suction port of a fluid pump in flow communication with said internal fluid reservoir through a transfer tube extending from said piston , said transfer tube coaxial with said piston , said piston rod , and said cylinder body , a discharge port of said fluid pump in flow communication with an extension pressure chamber ; wherein: said piston comprises a piston face and said piston face comprises an aperture configured to slidably engage said transfer tube ; the piston is configured to move in an extension direction by a driving force applied to the piston face caused by a fluid discharged by the fluid pump into said extension pressure chamber ; and retraction of the fluid cylinder assembly is caused by gravity. a piston assembly comprising a piston coupled to a piston rod , the piston rod comprising a hollow body comprising an internal fluid reservoir ; a cylinder body coaxial with and at least partially surrounding said hollow piston rod ; and a suction port of a fluid pump in flow communication with said internal fluid reservoir through a transfer tube extending from said piston , said transfer tube coaxial with said piston , said piston rod , and said cylinder body , a discharge port of said fluid pump in flow communication with an extension pressure chamber ; wherein: said piston comprises a piston face and said piston face comprises an aperture configured to slidably engage said transfer tube ; the piston is configured to move in an extension direction by a driving force applied to the piston face caused by a fluid discharged by the fluid pump into said extension pressure chamber ; and retraction of the fluid cylinder assembly is caused by gravity. said piston comprises a piston face and said piston face comprises an aperture configured to slidably engage said transfer tube ; the piston is configured to move in an extension direction by a driving force applied to the piston face caused by a fluid discharged by the fluid pump into said extension pressure chamber ; and retraction of the fluid cylinder assembly is caused by gravity.