mhurhangee/patent-ind-claim-en huggingface dataset:
A positive electrode for a lithium secondary battery, which comprises: a positive electrode current collector; and a positive electrode active material layer including a lower layer portion directly facing the positive electrode current collector and an upper layer portion stacked directly on the surface of the lower layer portion, wherein each of the upper layer portion and the lower layer portion of the positive electrode active material layer comprises a positive electrode active material, binder polymer and a conductive material, and the positive electrode active material has an electroconductivity of 0.0001 S/cm - 0.0004 S/cm, and the content of the conductive material contained in the lower layer portion is 10-59 parts by weight based on 100 parts by weight of the content of the conductive material contained in the upper layer portion, or the positive electrode active material has an electroconductivity of 0.008 S/cm - 0.015 S/cm, and the content of the conductive material contained in the lower layer portion is 10-30 parts by weight based on 100 parts by weight of the content of the conductive material contained in the upper layer portion, wherein the positive electrode active material and the binder polymer contained in the upper layer portion are the same as those contained in the lower layer portion, and the conductive material used for the upper layer portion is the same as that used for the lower layer portion, the electroconductivity being determined by using a power resistance measuring system under a pressure condition of 19613.3 kg.m.s -2 (2000 kgf). a positive electrode current collector; and a positive electrode active material layer including a lower layer portion directly facing the positive electrode current collector and an upper layer portion stacked directly on the surface of the lower layer portion, wherein each of the upper layer portion and the lower layer portion of the positive electrode active material layer comprises a positive electrode active material, binder polymer and a conductive material, and the positive electrode active material has an electroconductivity of 0.0001 S/cm - 0.0004 S/cm, and the content of the conductive material contained in the lower layer portion is 10-59 parts by weight based on 100 parts by weight of the content of the conductive material contained in the upper layer portion, or the positive electrode active material has an electroconductivity of 0.008 S/cm - 0.015 S/cm, and the content of the conductive material contained in the lower layer portion is 10-30 parts by weight based on 100 parts by weight of the content of the conductive material contained in the upper layer portion, wherein the positive electrode active material and the binder polymer contained in the upper layer portion are the same as those contained in the lower layer portion, and the conductive material used for the upper layer portion is the same as that used for the lower layer portion, the electroconductivity being determined by using a power resistance measuring system under a pressure condition of 19613.3 kg.m.s -2 (2000 kgf).
A waveguide non-reflective terminator , comprising: a waveguide unit whose one end is closed by a short circuit plane provided with a plurality of through holes (3-1 to 3-6); and a plurality of radio wave absorbers (4D-1 to 4D-6) absorbing a frequency signal being a non-reflective target in a state of being inserted through the plurality of through holes (3-1 to 3-6) toward an inside of the waveguide unit and contacting with inner surfaces (3'-1 to 3'-6) of the plurality of through holes (3-1 to 3-6), respectively; characterized in that portions of the plurality of radio wave absorbers (4D-1 to 4D-6), which are exposed to an outside of the waveguide unit from the plurality of through holes (3-1 to 3-6), are larger than the plurality of through holes (3-1 to 3-6), respectively, and the portions of the plurality of radio wave absorbers (4D-1 to 4D-6) are integrated to form one member (4D"). a waveguide unit whose one end is closed by a short circuit plane provided with a plurality of through holes (3-1 to 3-6); and a plurality of radio wave absorbers (4D-1 to 4D-6) absorbing a frequency signal being a non-reflective target in a state of being inserted through the plurality of through holes (3-1 to 3-6) toward an inside of the waveguide unit and contacting with inner surfaces (3'-1 to 3'-6) of the plurality of through holes (3-1 to 3-6), respectively; characterized in that portions of the plurality of radio wave absorbers (4D-1 to 4D-6), which are exposed to an outside of the waveguide unit from the plurality of through holes (3-1 to 3-6), are larger than the plurality of through holes (3-1 to 3-6), respectively, and the portions of the plurality of radio wave absorbers (4D-1 to 4D-6) are integrated to form one member (4D").
A method for releasing configuration by a user equipment in an Long-Term Evolution, LTE, system, the method comprising: receiving a physical uplink control channel/sounding reference signal, PUCCH/SRS, release request from a Medium Access Control, MAC, layer ; and releasing at least one of configuration resources associated with configuration on a channel quality indicator, CQI, report based on the PUCCH/SRS release request , in case that a transmission mode associated with Coordinated Multi-Point, CoMP, is configured for a serving cell, wherein the configuration on the CQI report comprises one or more configuration resources for supporting the transmission mode. receiving a physical uplink control channel/sounding reference signal, PUCCH/SRS, release request from a Medium Access Control, MAC, layer ; and releasing at least one of configuration resources associated with configuration on a channel quality indicator, CQI, report based on the PUCCH/SRS release request , in case that a transmission mode associated with Coordinated Multi-Point, CoMP, is configured for a serving cell, wherein the configuration on the CQI report comprises one or more configuration resources for supporting the transmission mode.
A braking system for a vehicle, the vehicle including a hydraulic brake device for applying a friction brake force to at least one wheel of the vehicle, the braking system comprising; a master cylinder defining first and second chambers each associated with a piston and a biasing member in the form of a pre-loaded spring , the first and second chambers being in fluid communication with a reserve of brake fluid and in fluid communication with hydraulic brake device , the master cylinder operative to control the hydraulic brake device upon actuation; and a mechanically controlled backup hydraulic cylinder defining a third chamber, the third chamber being in fluid communication with the reserve of brake fluid and in fluid communication with first and second chambers of the master cylinder , the backup hydraulic cylinder being mechanically controlled to move brake fluid therein by delivering brake fluid to the master cylinder and then to the brakes , the backup hydraulic cylinder including a displaceable piston ; and a force transmitting member movable by an input device to displace the displaceable piston ; wherein initial movement of the force transmitting member occurs without displacement of the piston .
A particle beam treatment system, comprising: an accelerator configured to radiate a charged particle beam; a plurality of treatment rooms (4A-4D) in each of which an irradiation device (40A-40D) configured to irradiate with the charged particle beam is arranged; a beam routing system which is connected to the accelerator and is configured to separately route the charged particle beam radiated from the accelerator to each irradiation device (40A-40D) in the plurality of treatment rooms (4A-4D); and a control system configured to control the accelerator , the beam routing system and the irradiation device (40A-40D), characterized in that the control system is configured to control the beam routing system and the irradiation device (40A-40D) so as to maintain the occupation of the accelerator in any case when a certain treatment room (4A-4D) of the plurality of treatment rooms (4A-4D) once occupies the accelerator until treatment prescribed for a certain specific patient is completely finished when treatment is carried out for the certain specific patient in the certain treatment room (4A-4D), even if a request for occupying the accelerator in a treatment room (4A-4D) except the certain treatment room (4A-4D) is output to the control system , except intentional operation to release the occupation of the accelerator due to emergency reasons or the occurrence of system failure. an accelerator configured to radiate a charged particle beam; a plurality of treatment rooms (4A-4D) in each of which an irradiation device (40A-40D) configured to irradiate with the charged particle beam is arranged; a beam routing system which is connected to the accelerator and is configured to separately route the charged particle beam radiated from the accelerator to each irradiation device (40A-40D) in the plurality of treatment rooms (4A-4D); and a control system configured to control the accelerator , the beam routing system and the irradiation device (40A-40D), characterized in that the control system is configured to control the beam routing system and the irradiation device (40A-40D) so as to maintain the occupation of the accelerator in any case when a certain treatment room (4A-4D) of the plurality of treatment rooms (4A-4D) once occupies the accelerator until treatment prescribed for a certain specific patient is completely finished when treatment is carried out for the certain specific patient in the certain treatment room (4A-4D), even if a request for occupying the accelerator in a treatment room (4A-4D) except the certain treatment room (4A-4D) is output to the control system , except intentional operation to release the occupation of the accelerator due to emergency reasons or the occurrence of system failure.
Portable conditioner of the single pipe or double pipe type, for domestic use to condition spaces such as rooms, comprising an external exchanger and an internal exchanger functionally coordinated to cool or to heat an internal space separate from an external space , wherein in a cooling mode the internal exchanger functions as an evaporator and the external exchanger functions as a condenser, while in a heating mode the internal exchanger functions as a condenser and the external exchanger functions as an evaporator, and wherein said internal exchanger is connectable to said internal space and said external exchanger is connectable to said external space by means of connection pipes configured to exchange air respectively with said internal space and with said external space , at least one connection pipe of said external exchanger being provided with a delivery device and/or a suction device able to define a quantity of air exchanged with said external space in order to maintain said internal space at a conditioning temperature (Tc), and a conditioning relative humidity (RHc%) predefined by a user, characterized in that it comprises a control and command unit configured to determine at least the enthalpy difference (ΔH) between said internal space and said external space , using at least the values of temperature (Tint, Text) and of humidity (hint, hext) of said internal space and said external space , and to command at least said delivery device and/or said suction device to regulate said quantity of air exchanged with said external space for promoting or hindering a natural re-integration of air due to a pressure imbalance between the internal space and the external space in relation to said enthalpy difference (ΔH) determined with respect to an expected value of enthalpy difference (ΔHset) corresponding to said conditioning temperature (Tc) and to said conditioning relative humidity (RHc%).
A lightning measuring system (LMS) for measuring lightning current parameters in a down conductor (DC) in a wind turbine, said lightning measuring system (LMS) comprising - a sensor arrangement (SEA) being arranged to measure on said down conductor (DC), - a data collection unit (DCU), - a connection arrangement (CA) electrically connecting said sensor arrangement (SEA) with said data collection unit (DCU), and - an insulating arrangement (INS), wherein said sensor arrangement (SEA) and at least a part of said connection arrangement (CA) and/or said down conductor (DC) being enclosed in said insulating arrangement (INS) thereby defining - a minimum insulation distance (MID) between said sensor arrangement (SEA) and said down conductor (DC), and - a minimum surface distance (MSD) between an exposed part of said down conductor (DC) not being enclosed by said insulating arrangement (INS) and an exposed part of said connection arrangement (CA) not being enclosed by said insulating arrangement (INS), for which said insulating arrangement (INS) is effective to prevent insulation breakdown between said down conductor (DC) and said sensor arrangement (SEA) and to prevent surface flashover between said exposed part of said down conductor (DC) and said exposed part of said connection arrangement (CA). - a sensor arrangement (SEA) being arranged to measure on said down conductor (DC), - a data collection unit (DCU), - a connection arrangement (CA) electrically connecting said sensor arrangement (SEA) with said data collection unit (DCU), and - an insulating arrangement (INS), - a minimum insulation distance (MID) between said sensor arrangement (SEA) and said down conductor (DC), and - a minimum surface distance (MSD) between an exposed part of said down conductor (DC) not being enclosed by said insulating arrangement (INS) and an exposed part of said connection arrangement (CA) not being enclosed by said insulating arrangement (INS),
A multimedia broadcast multicast communication method, comprising: receiving , by a base station, first indication information at a first time, wherein the first indication information indicates that transmitting service data in a multimedia broadcast multicast service single frequency network, MBSFN, manner is to be suspended; and sending , by the base station, second indication information to user equipment, UE, according to the first indication information, wherein the second indication information is carried by a medium access control, MAC, control element, CE, of a MAC data packet of the service data sent on a multicast channel, MCH, wherein the second indication information includes a second time indicating a time at which transmitting the service data in the MBSFN manner suspends; wherein the first time is earlier than the second time. receiving , by a base station, first indication information at a first time, wherein the first indication information indicates that transmitting service data in a multimedia broadcast multicast service single frequency network, MBSFN, manner is to be suspended; and sending , by the base station, second indication information to user equipment, UE, according to the first indication information, wherein the second indication information is carried by a medium access control, MAC, control element, CE, of a MAC data packet of the service data sent on a multicast channel, MCH, wherein the second indication information includes a second time indicating a time at which transmitting the service data in the MBSFN manner suspends; wherein the first time is earlier than the second time.
An electrical isolation device for isolating the electrical supply of a fuel burning appliance in response to an audio alarm, the device comprising: a microphone circuit operable to detect audio signals; a lock-in amplifier connected to the output of the microphone circuit and operable to lock on to the alarm frequency and recover the modulated signal pattern of a potential alarm signal within the audio signals detected by the microphone circuit ; a processing unit operable to monitor the output of the lock-in amplifier for valid output signals through comparison of the potential alarm signal with a stored reference to determine whether it is an alarm signal and output an alarm indication in response thereto; and a switch operable in response to said alarm indication to disconnect the electrical supply of the fuel burning apparatus.
A paging message processing method, comprising: receiving (S101), by a Mobility Management Entity, MME, a node capability notification message sent by an Evolved NodeB, eNodeB, wherein the node capability notification message is used to indicate that the eNodeB supports use of the User Datagram Protocol, UDP, to receive a paging message from the MME, and the eNodeB also supports use of the Stream Control Transmission Protocol, SCTP, to receive the paging message from the MME; and selecting (S102), by the MME, the UDP to send a first paging message to the eNodeB. receiving (S101), by a Mobility Management Entity, MME, a node capability notification message sent by an Evolved NodeB, eNodeB, wherein the node capability notification message is used to indicate that the eNodeB supports use of the User Datagram Protocol, UDP, to receive a paging message from the MME, and the eNodeB also supports use of the Stream Control Transmission Protocol, SCTP, to receive the paging message from the MME; and selecting (S102), by the MME, the UDP to send a first paging message to the eNodeB.
A computer-implemented method for tracking camera attitude, implemented by a second device provided with a camera, the method comprising: receiving , by the second device, an initial image and an initial attitude parameter that are transmitted by a first device, the initial image being a first anchor image of the first device in an camera attitude tracking process and the initial attitude parameter being a camera attitude parameter corresponding to the first anchor image; obtaining , by the second device, a current image acquired by the camera of the second device; obtaining , by the second device, a camera attitude variation of the current image relative to the initial image, which includes performing camera attitude tracking on the current image relative to the initial image, and obtaining, through calculation, the camera attitude variation of the current image relative to the initial image; and characterized in that the method further comprises: obtaining , by the second device, through calculation according to the initial attitude parameter and the camera attitude variation, a current camera attitude parameter corresponding to the current image, comprising: calculating a rotation matrix in the current camera attitude parameter and a displacement vector in the current camera attitude parameter according to: a rotation matrix in the camera attitude variation, a displacement vector in the camera attitude variation, a rotation matrix in the initial attitude parameter, and a displacement vector in the initial attitude parameter. receiving , by the second device, an initial image and an initial attitude parameter that are transmitted by a first device, the initial image being a first anchor image of the first device in an camera attitude tracking process and the initial attitude parameter being a camera attitude parameter corresponding to the first anchor image; obtaining , by the second device, a current image acquired by the camera of the second device; obtaining , by the second device, a camera attitude variation of the current image relative to the initial image, which includes performing camera attitude tracking on the current image relative to the initial image, and obtaining, through calculation, the camera attitude variation of the current image relative to the initial image; and characterized in that the method further comprises: obtaining , by the second device, through calculation according to the initial attitude parameter and the camera attitude variation, a current camera attitude parameter corresponding to the current image, comprising: calculating a rotation matrix in the current camera attitude parameter and a displacement vector in the current camera attitude parameter according to: a rotation matrix in the camera attitude variation, a displacement vector in the camera attitude variation, a rotation matrix in the initial attitude parameter, and a displacement vector in the initial attitude parameter.
A composition comprising inositol and banaba extract, wherein inositol and banaba extract are the only ingredients, present in the composition, to be active in the treatment of polycystic ovary syndrome.
Method for determining an optimal travel route for a fuel cell vehicle with at least one fuel cell and with a navigation system , comprising: - Providing a topographic map comprising several route sections , - Determining at least two travel routes from a start position to a destination position composed of one or more of the route sections , - Identifying those route sections along which the fuel cell is subject to an expected enhanced degradation effect, - Determining an overall degree of degradation of the fuel cell for each of the determined routes on base of the respective route with the lowest overall fuel cell degradation effect, - Choosing of that route as the optimal travel route , which comprises the lowest overall degree of degradation, characterized in that a route section is classified as one of the route sections with an increased degradation effect if an increased emission load is to be expected there. - Providing a topographic map comprising several route sections , - Determining at least two travel routes from a start position to a destination position composed of one or more of the route sections , - Identifying those route sections along which the fuel cell is subject to an expected enhanced degradation effect, - Determining an overall degree of degradation of the fuel cell for each of the determined routes on base of the respective route with the lowest overall fuel cell degradation effect, - Choosing of that route as the optimal travel route , which comprises the lowest overall degree of degradation, characterized in that a route section is classified as one of the route sections with an increased degradation effect if an increased emission load is to be expected there.
An end effector for use by a surgeon to staple an anatomical structure of a patient during a minimally invasive procedure, the anatomical structure having a first side and a second side, the end effector comprising: (a) a first jaw having a first end, a second end, a longitudinal axis, and an anvil, the anvil comprising an anvil face positionable on the first side of the anatomical structure; (b) a second jaw having a first end, a second end, a longitudinal axis, and a cartridge operably configured to house a plurality of staples, the cartridge having a cartridge face positionable on the second side of the anatomical structure; (c) a first coupling that pivotally couples the first end of the first jaw to the first end of the second jaw ; characterized in that the end effector further comprises: (d) a second coupling that movably couples the second end of the first jaw to the second end of the second jaw , wherein the second coupling includes a rigid link connected to the first jaw and the second jaw ; and the second coupling further comprises a slot defined by the first jaw that retains the rigid link such that the rigid link is slidable within the slot , wherein the rigid link transitions the end effector from a closed position, to an open position, and back to the closed position. (a) a first jaw having a first end, a second end, a longitudinal axis, and an anvil, the anvil comprising an anvil face positionable on the first side of the anatomical structure; (b) a second jaw having a first end, a second end, a longitudinal axis, and a cartridge operably configured to house a plurality of staples, the cartridge having a cartridge face positionable on the second side of the anatomical structure; (c) a first coupling that pivotally couples the first end of the first jaw to the first end of the second jaw ;