mhurhangee/patent-ind-claim-en huggingface dataset:
An air conditioner , comprising: a heat exchanger ; a first blower fan ; a second blower fan ; a structural body which forms a first air outlet that extends in a horizontal direction when being installed for allowing said first blower fan to blow out a cool or warm airflow which is generated by the heat exchanger , and includes a wall body which is fixed to the structural body to at least one side of the first air outlet; an auxiliary housing which is attached to the wall body to be freely movable on at least one side of the first air outlet, and forms a second air outlet for allowing said second blower fan to blow out taken-in indoor air; and a control circuit , comprising: a first blower fan control section configured for controlling the first blower fan to blow out the cool or warm airflow that is generated by the heat exchanger at a first wind speed, from the first air outlet ; and a second blower fan control section configured for controlling the second blower fan to blow out an airflow of the indoor air from the second air outlet , characterized in that the second blower fan control section is configured for controlling the second blower fan to blow out the airflow of the indoor air at a second air speed which is higher than the first air speed. a heat exchanger ; a first blower fan ; a second blower fan ; a structural body which forms a first air outlet that extends in a horizontal direction when being installed for allowing said first blower fan to blow out a cool or warm airflow which is generated by the heat exchanger , and includes a wall body which is fixed to the structural body to at least one side of the first air outlet; an auxiliary housing which is attached to the wall body to be freely movable on at least one side of the first air outlet, and forms a second air outlet for allowing said second blower fan to blow out taken-in indoor air; and a control circuit , comprising: a first blower fan control section configured for controlling the first blower fan to blow out the cool or warm airflow that is generated by the heat exchanger at a first wind speed, from the first air outlet ; and a second blower fan control section configured for controlling the second blower fan to blow out an airflow of the indoor air from the second air outlet , characterized in that the second blower fan control section is configured for controlling the second blower fan to blow out the airflow of the indoor air at a second air speed which is higher than the first air speed. a first blower fan control section configured for controlling the first blower fan to blow out the cool or warm airflow that is generated by the heat exchanger at a first wind speed, from the first air outlet ; and a second blower fan control section configured for controlling the second blower fan to blow out an airflow of the indoor air from the second air outlet , characterized in that the second blower fan control section is configured for controlling the second blower fan to blow out the airflow of the indoor air at a second air speed which is higher than the first air speed.
A method for determining a change in axial stress in a rock bolt section, the method comprising, • at a first point in time, propagating shear and longitudinal ultrasonic waves along the rock bolt section to measure a first time of flight for each of the shear and longitudinal waves; • at a second point in time after the first point in time, propagating shear and longitudinal ultrasonic waves along the rock bolt section to measure a second time of flight for each of the shear and longitudinal waves; • using the relative changes of the first and second time of flights, determining the change in axial stress of the rock bolt section, wherein, if, during the period from the first point in time to the second point in time, the rock bolt section is in an elastic deformation regime, the change in axial stress of the rock bolt section is determined according to 〈 σ e 〉 − 〈 σ 0 e 〉 = β T τ S e − τ S 0 e τ S 0 e − τ L e − τ L 0 e τ L 0 e β T C σS e − C σL e , where 〈 σ e 〉 − 〈 σ 0 e 〉 is the average change in axial stress between the first and second points in time, τ L 0 e and τ S 0 e are the time of flights of the longitudinal and shear ultrasonic waves, respectively, at the first point in time, τ L and τ S are the time of flights of the longitudinal and shear ultrasonic waves, respectively, at the second points in time, β T is a ratio of a temperature coefficient for the longitudinal ultrasonic waves to a temperature coefficient for the shear ultrasonic waves, and C σS e and C σL e are the stress coefficients for the shear and longitudinal ultrasonic waves, respectively. • at a first point in time, propagating shear and longitudinal ultrasonic waves along the rock bolt section to measure a first time of flight for each of the shear and longitudinal waves; • at a second point in time after the first point in time, propagating shear and longitudinal ultrasonic waves along the rock bolt section to measure a second time of flight for each of the shear and longitudinal waves; • using the relative changes of the first and second time of flights, determining the change in axial stress of the rock bolt section,
Measuring module , designed and adapted for measuring rods and/or rod sections produced in rod makers of the tobacco-processing industry and transported in conveying direction F, comprising a housing , at least one rod throughflow channel , at least one measuring means arranged in the housing and directed towards the or each rod throughflow channel as well as a means for the introduction of cleaning air RL into the rod throughflow channel , wherein a protective pipe section assigned exclusively to the measuring module is arranged in the or each rod throughflow channel , which protective pipe section is arranged entirely within the housing , wherein the protective pipe section extends from an infeed region E of the or each rod into the rod throughflow channel up to a discharge region A of the or each rod out of the rod throughflow channel , wherein a nozzle element for the introduction of cleaning air RL into the protective pipe section is arranged in infeed region E of each rod into rod throughflow channel , wherein each nozzle element for the radially directed feed of cleaning air RL to the protective pipe section and longitudinal-axially directed conduction of cleaning air RL is designed and adapted in the protective pipe section , characterised in that each nozzle element is fastened to an infeed plate , wherein the infeed plate is fastened detachably to the housing and the nozzle element comprises a hollow-cylindrical nozzle section with a closed lateral surface.
An on-eye wearable or eye-implantable ophthalmic device comprising: first , second and third optical elements arranged in a stack , each optical element including alignment and separation features formed at a radius thereof, wherein the alignment and separation features of each optical element correspond to like features on at least one of the other optical elements, the alignment and separation features forming: a reservoir region to provide radial alignment to the first, second, and third optical elements such that an optical axis of each optical element is aligned, the reservoir region having a first reservoir region gap formed between the first and second optical elements and a second reservoir region gap formed between the second and third optical elements, wherein the first and second optical elements are adjacent to each other in the stack, and wherein the second and third optical elements are adjacent to each other in the stack; and a dam region , disposed radially outside of the reservoir region, including a first dam formed due to the first and second optical elements being in contact, and a second dam formed due to the second and third optical elements being in contact, wherein the dam region determines a reservoir region gap width of each of the first and second reservoir region gaps; wherein the alignment and separation features are formed from grooves and ridges disposed on one or more surfaces of each optical element. a reservoir region to provide radial alignment to the first, second, and third optical elements such that an optical axis of each optical element is aligned, the reservoir region having a first reservoir region gap formed between the first and second optical elements and a second reservoir region gap formed between the second and third optical elements, wherein the first and second optical elements are adjacent to each other in the stack, and wherein the second and third optical elements are adjacent to each other in the stack; and a dam region , disposed radially outside of the reservoir region, including a first dam formed due to the first and second optical elements being in contact, and a second dam formed due to the second and third optical elements being in contact, wherein the dam region determines a reservoir region gap width of each of the first and second reservoir region gaps; wherein the alignment and separation features are formed from grooves and ridges disposed on one or more surfaces of each optical element.
A milk frothing apparatus having a container which delimits a supply space for milk , and having a frothing element which can be rotated by electric motor with the function of frothing the milk by way of rotation of the frothing element, the supply space being assigned a filling opening , characterized in that the frothing element is configured as a feed rotor , with the function of conveying, by way of its rotation, the milk which was frothed by the rotation of the feed rotor to an outlet through a milk froth line of the milk frothing apparatus , the milk froth line preferably being configured as a riser, and that the feed rotor is arranged at least in sections, preferably completely, in a frothing chamber which is connected in a fluid-conducting manner to the supply space , from which frothing chamber the milk froth line opens, and that the feed rotor is assigned at least one airline for sucking in air by way of the rotation of the feed rotor , and that the air line opens into the frothing chamber or the fluid-conducting connection between the supply space and the frothing chamber .
A surgical tool assembly , comprising: an elongate shaft defining a shaft axis, a surgical end effector coupled to said elongate shaft for selective articulation relative to said elongate shaft about an articulation axis that is transverse to said shaft axis; a first articulation link (1700") operably interfacing with a source of articulation motions to selectively axially move said first articulation link a first axial distance in a first articulation direction; a second articulation link (1706") operably interfacing with said surgical end effector to apply articulation motions thereto; characterised in that the surgical tool assembly comprises an articulation stroke multiplier operably interfacing with said first articulation link and said second articulation link such that when said first articulation link is axially moved said first axial distance in said first axial direction, said articulation stroke multiplier moves said second articulation link another first axial distance in an axial direction opposite to the first axial direction that is greater than said first axial distance; and wherein said first articulation link comprises a first articulation gear rack and wherein said articulation stroke multiplier comprises a swing gear in meshing engagement with said first articulation gear rack and slidably coupled to said second articulation link. an elongate shaft defining a shaft axis, a surgical end effector coupled to said elongate shaft for selective articulation relative to said elongate shaft about an articulation axis that is transverse to said shaft axis; a first articulation link (1700") operably interfacing with a source of articulation motions to selectively axially move said first articulation link a first axial distance in a first articulation direction; a second articulation link (1706") operably interfacing with said surgical end effector to apply articulation motions thereto; characterised in that the surgical tool assembly comprises an articulation stroke multiplier operably interfacing with said first articulation link and said second articulation link such that when said first articulation link is axially moved said first axial distance in said first axial direction, said articulation stroke multiplier moves said second articulation link another first axial distance in an axial direction opposite to the first axial direction that is greater than said first axial distance; and wherein said first articulation link comprises a first articulation gear rack and wherein said articulation stroke multiplier comprises a swing gear in meshing engagement with said first articulation gear rack and slidably coupled to said second articulation link.
Method of mounting the fuel and SCR agent chutes of a supply assembly (E2) of fuel tanks and SCR agent such that the supply assembly (E2) comprises pipes connecting the first fuel tank to a first filler neck and the second tank of SCR agent to a second filling chute , each chute being equipped with a fixing lug on an internal body wall of a motor vehicle, and a support part which integrates the fixing lug of the second chute and connects the second chute to the first chute by a clamp formed of two arms extending around the first chute in a perpendicular plane (P) to this first chute , the fixing tab of the first chute being provided with an ear connected to an extension formed on an arm of the clamp by fixing means , the ear and the extension extending in the plane (P) of the clamp , said method being such that it comprises the steps following : - the second SCR agent chute is fixed to the support part and the clamp of this support part is mounted by spacing its arms on a constriction the first fuel filler neck ; - the extension of the arm of the clamp is positioned in alignment with an ear of the fixing lug of the first chute by rotation (R1) of the clamp so that the securing axes (X'X, Y'Y) of the extension and the ear come into coincidence, said method being characterized in that it comprises the following step : - the clamp is translated along the axis of the first chute until the extension of the arm of the clamp comes against the ear of the fixing lug of the first chute to be secured to this ear by fixing means along the securing axes (X'X, Y'Y). - the second SCR agent chute is fixed to the support part and the clamp of this support part is mounted by spacing its arms on a constriction the first fuel filler neck ; - the extension of the arm of the clamp is positioned in alignment with an ear of the fixing lug of the first chute by rotation (R1) of the clamp so that the securing axes (X'X, Y'Y) of the extension and the ear come into coincidence, said method being characterized in that it comprises the following step : - the clamp is translated along the axis of the first chute until the extension of the arm of the clamp comes against the ear of the fixing lug of the first chute to be secured to this ear by fixing means along the securing axes (X'X, Y'Y).
Electronic furniture lock comprising a pivotally mounted electronics housing , a pivot bearing arranged in or on the electronics housing and an actuating or locking element , wherein the pivot bearing is provided for stationary fixing to a piece of furniture, in particular a furniture door, and wherein the actuating or locking element is movable by rotation of the electronics housing , wherein the electronics housing has a magnetic locking unit for locking the rotary movement of the electronics housing relative to the pivot bearing , wherein the electronics housing has a printed circuit board with electronic components for generating a control command to the magnetic locking unit after receiving an input signal; and wherein the electronics housing comprises at least one radio antenna for receiving at least a radio signal; characterized in that the printed circuit board comprises at least a first BLE (Bluetooth Low Energy) contact having a BLE module as electronic component , wherein the printed circuit board comprises at least a second BLE contact . wherein the electronics housing has a printed circuit board with electronic components for generating a control command to the magnetic locking unit after receiving an input signal; and wherein the electronics housing comprises at least one radio antenna for receiving at least a radio signal; characterized in that the printed circuit board comprises at least a first BLE (Bluetooth Low Energy) contact having a BLE module as electronic component , wherein the printed circuit board comprises at least a second BLE contact .
A malicious attack detection method, comprising: receiving , by a controller, a packet-in message sent by a first switch, wherein the packet-in message comprises a source host identifier and a destination host identifier of a data packet for which the first switch cannot find a flow entry; sending , by the controller, an abnormal flow entry to the first switch when determining that a host indicated by the destination host identifier does not exist in an SDN network, wherein the abnormal flow entry comprises the source host identifier; receiving , by the controller, a triggering count sent by the first switch, wherein the triggering count is sent by the first switch after the abnormal flow entry has timed out, and the triggering count is a quantity of times that the abnormal flow entry has been triggered within an aging time of the abnormal flow entry; and determining , by the controller according to the triggering count, whether a malicious attack is initiated from a source host indicated by the source host identifier. receiving , by a controller, a packet-in message sent by a first switch, wherein the packet-in message comprises a source host identifier and a destination host identifier of a data packet for which the first switch cannot find a flow entry; sending , by the controller, an abnormal flow entry to the first switch when determining that a host indicated by the destination host identifier does not exist in an SDN network, wherein the abnormal flow entry comprises the source host identifier; receiving , by the controller, a triggering count sent by the first switch, wherein the triggering count is sent by the first switch after the abnormal flow entry has timed out, and the triggering count is a quantity of times that the abnormal flow entry has been triggered within an aging time of the abnormal flow entry; and determining , by the controller according to the triggering count, whether a malicious attack is initiated from a source host indicated by the source host identifier.
A V-internal combustion engine and a radiator, including a coolant passage apparatus used for a cooling device of the internal combustion engine in which a circulation channel for a coolant is formed between a fluid passage formed in the V-internal combustion engine and the radiator, and provided between a coolant outlet of said internal combustion engine and a coolant inlet of said radiator, and at least a pair of coolant receiving pipes for respectively receiving the coolant from left and right engine heads of said V-internal combustion engine, a collecting passage for causing said one pair of coolant receiving pipes to communicate therewith and collecting the coolant, and a communicating tube which is towards said radiator for supplying the coolant to said radiator via said collecting passage are formed therein, and said one pair of coolant receiving pipes are respectively communicated with said collecting passage , with said collecting passage therebetween, and characterized in that : said coolant passage apparatus is formed by joining two resin moldings constituted by a first body and a second body which are each individually molded, with said one pair of coolant receiving pipes molded so as to respectively face the same direction, and said one pair of coolant receiving pipes are integrally molded in one resin molding of said first body, and a junction face between said first body and second body is formed so as to be parallel to a plane along an axial direction of a crankshaft of said internal combustion engine; and further characterized in that ; a communicating tube for a heater core part is formed in the said collecting passage , and in that a communicating tube for an ATF warmer and a communicating tube for an EGR cooler are formed in the second resin molded body .
A method of wireless communication performed by a user equipment, UE , comprising: receiving a master information block, MIB, including enhancement information associated with an enhanced cell acquisition subframe, CAS, for a cellular broadcast service, wherein the enhancement information includes an indication that the UE is to monitor an enhanced physical downlink control channel, PDCCH, candidate in a common search space of the enhanced CAS; and receiving the enhanced CAS, associated with the cellular broadcast service, based at least in part on the enhancement information associated with the enhanced CAS. receiving a master information block, MIB, including enhancement information associated with an enhanced cell acquisition subframe, CAS, for a cellular broadcast service, wherein the enhancement information includes an indication that the UE is to monitor an enhanced physical downlink control channel, PDCCH, candidate in a common search space of the enhanced CAS; and receiving the enhanced CAS, associated with the cellular broadcast service, based at least in part on the enhancement information associated with the enhanced CAS.
A wireless access system, comprising a baseband processing unit, BBU, pool , one or more optical network units, ONUs, , and a set of remote radio heads, RRHs, , the BBU pool being connected to the one or more ONUs , characterized in that each of the one or more ONUs being connected to at least two RRHs of the set of RRHs , a connection between each of the one or more ONUs and each of the at least two RRHs being implemented using a twisted pair, wherein each of the set of RRHs enables coordinated transmission of one or more antennas, wherein the coordinated transmission includes multiple-input multiple-output, MIMO, transmission, wherein the BBU pool is a centralized BBU pool for centralized baseband processing and is configured to compensate for crosstalk in transmission via the twisted pair and interference in the MIMO transmission of the one or more antennas simultaneously.