mhurhangee/patent-ind-claim-en huggingface dataset:
A method for commissioning and deploying an artificial intelligence, AI, based inspection system , comprising: (i) receiving, by a commissioning computer, sensor data captured by a sensor , the sensor positioned within a physical environment to capture sensor data pertaining to individual items in a sequence of similar items to be inspected, (ii) collecting, by the commissioning computer, a plurality of data samples, wherein collecting each data sample comprises providing an operator interface at the commissioning computer for a field operator to access sensor data pertaining to individual items and thereto assign classification labels associated to an inspection task, the collected data samples corresponding to a fixed setting of the sensor , (iii) training, by the commissioning computer, an AI algorithm using the collected data samples to configure the AI algorithm to predict the classification labels from input sensor data, (iv) testing, by the commissioning computer, the trained AI algorithm by feeding the trained AI algorithm with real-time sensor data captured by the sensor positioned within said physical environment with said fixed setting, wherein steps (ii) through (iv) are performed iteratively using different fixed settings of the sensor , to determine a final setting of the sensor for which a defined success criterion is achieved during the testing, and (v) deploying the iteratively trained and tested AI algorithm to a field device for execution, the field device being coupled to the sensor configured with the final setting to provide sensor data as input to the deployed AI algorithm. (i) receiving, by a commissioning computer, sensor data captured by a sensor , the sensor positioned within a physical environment to capture sensor data pertaining to individual items in a sequence of similar items to be inspected, (ii) collecting, by the commissioning computer, a plurality of data samples, wherein collecting each data sample comprises providing an operator interface at the commissioning computer for a field operator to access sensor data pertaining to individual items and thereto assign classification labels associated to an inspection task, the collected data samples corresponding to a fixed setting of the sensor , (iii) training, by the commissioning computer, an AI algorithm using the collected data samples to configure the AI algorithm to predict the classification labels from input sensor data, (iv) testing, by the commissioning computer, the trained AI algorithm by feeding the trained AI algorithm with real-time sensor data captured by the sensor positioned within said physical environment with said fixed setting, wherein steps (ii) through (iv) are performed iteratively using different fixed settings of the sensor , to determine a final setting of the sensor for which a defined success criterion is achieved during the testing, and (v) deploying the iteratively trained and tested AI algorithm to a field device for execution, the field device being coupled to the sensor configured with the final setting to provide sensor data as input to the deployed AI algorithm.
Apparatus for connecting a table to a side wall of a rail vehicle , having: - a table top , - a first connection component , which is arranged underneath an upper side (1.1) of the table top as a supporting structure and the upper end of which is fixed to the table top and the lower end of which is fixed to the side wall of the rail vehicle , wherein the first connection component comprises two posts which are arranged upright at a distance from each other and each have a lower, first joint region and an upper, second joint region , which can be pivoted about a respective pivot axis (5.1, 6.1) and which, in relation to a state of the apparatus arranged on the side wall , are each oriented transversely to a direction of travel (F) of the rail vehicle , wherein pivot axes (5.1, 6.1) of the upper and lower joint regions of the posts are rotated relative to each other such that they intersect in a vertical axis of rotation which, in relation to a transverse direction (Q) transverse to the side wall , is located closer to a vehicle centre of the rail vehicle than to the side wall , and - a second connection component , which is fixed to the table top at a distance from the first connection component , characterized in that this second connection component is designed to couple the table top to the side wall so that, in relation to a state of the apparatus arranged on the side wall , in the event of an occurrence of a force acting on the table top in the direction of travel (F) of the rail vehicle , a torque can be transmitted to the side wall by means of the first connection component and the second connection component , independently of each other, wherein, in relation to a respective longitudinal axis (L) of the posts , the respective lower joint regions are designed to be narrower than the upper joint regions . - a table top , - a first connection component , which is arranged underneath an upper side (1.1) of the table top as a supporting structure and the upper end of which is fixed to the table top and the lower end of which is fixed to the side wall of the rail vehicle , wherein the first connection component comprises two posts which are arranged upright at a distance from each other and each have a lower, first joint region and an upper, second joint region , which can be pivoted about a respective pivot axis (5.1, 6.1) and which, in relation to a state of the apparatus arranged on the side wall , are each oriented transversely to a direction of travel (F) of the rail vehicle , wherein pivot axes (5.1, 6.1) of the upper and lower joint regions of the posts are rotated relative to each other such that they intersect in a vertical axis of rotation which, in relation to a transverse direction (Q) transverse to the side wall , is located closer to a vehicle centre of the rail vehicle than to the side wall , and - a second connection component , which is fixed to the table top at a distance from the first connection component ,
A base station of a network acting as a serving node for a user equipment, UE, the UE being a target UE in a positioning method initiated by the network, comprising: one or more processors configured to: compare discontinuous reception, DRX, timing information for a DRX cycle of the UE with positioning sounding reference signal, SRS, timing information for an SRS configuration of the UE; determine whether the positioning SRS is located within an inactive time of the DRX cycle; and when the positioning SRS is located within the inactive time of the DRX cycle, modifying one of the DRX cycle or the SRS configuration. compare discontinuous reception, DRX, timing information for a DRX cycle of the UE with positioning sounding reference signal, SRS, timing information for an SRS configuration of the UE; determine whether the positioning SRS is located within an inactive time of the DRX cycle; and when the positioning SRS is located within the inactive time of the DRX cycle, modifying one of the DRX cycle or the SRS configuration.
A method for operating a security tag , comprising: converting rotational motion of a pinion gear in a first direction into linear motion of a rack gear in a second direction so as to cause a pin to transition from an unengaged state in which the pin is retracted into a first portion of an enclosure to an engaged state in which an end of the pin resides within an aperture formed in a second portion of the enclosure spaced apart from the first portion of the enclosure by a gap; mechanically retaining the pin in the engaged position using a pawl that prevents movement of the pinion gear in a third direction opposed to the first direction; and automatically releasing the pawl in response to a reception of a wireless signal at the security tag sent from a remote external device, whereby the pin returns to the unengaged state in which the pin is retracted into the first portion of the enclosure . converting rotational motion of a pinion gear in a first direction into linear motion of a rack gear in a second direction so as to cause a pin to transition from an unengaged state in which the pin is retracted into a first portion of an enclosure to an engaged state in which an end of the pin resides within an aperture formed in a second portion of the enclosure spaced apart from the first portion of the enclosure by a gap; mechanically retaining the pin in the engaged position using a pawl that prevents movement of the pinion gear in a third direction opposed to the first direction; and automatically releasing the pawl in response to a reception of a wireless signal at the security tag sent from a remote external device, whereby the pin returns to the unengaged state in which the pin is retracted into the first portion of the enclosure .
A corner fitting comprising a strip-like base member for a clamping connection between two furniture panels which are arranged substantially perpendicularly to each other, wherein a lip protrudes from the corner fitting in an end region of the base member along at least a portion of the width and a pin protrudes in the opposing end region of the base member , wherein the lip and the pin protrude at the same side of the base member substantially in the same direction, characterized in that the base member comprises a linear portion and a bent portion , wherein the lip protrudes from the linear portion and the pin protrudes from the bent portion and the bent portion adjoins the linear portion at the side opposite the lip .
Protective arrangement for protecting electrical devices from overcurrent, wherein - the protective arrangement comprises an input (E, E1,.., E8) at which the protective arrangement is supplied with a current (I) from a power supply, - the protective arrangement comprises an output (A, A1,..., A8) via which the current (I) is passed on to the electrical device as output current, - the protective arrangement comprises a circuit breaker in a power line between the input (E, E1,.., E8) and the output (A, A1,..., A8) which interrupts the power line when a set tripping current is exceeded by a measured current ( ), wherein the protective arrangement comprises a current sensor which measures the current ( ) in the power line when the device is connected, wherein the tripping current is adjustable on the basis of the measured current ( ) to a value that is greater than the measured current ( ) by a predefined difference ( ) and wherein the protective arrangement comprises manual setting means in order to reduce or increase the tripping current stepwise or steplessly between an upper and a lower value, characterized in that the protective arrangement comprises optical and/or acoustic feedback signal means which gives the user feedback with a first signal form as to whether a threshold value determined on the basis of the respective value set for the tripping current is greater than the measured current ( ), while a second signal form that is different from the first signal form provides the user feedback as to whether the threshold value determined on the basis of the respective value set for the tripping current is lower than the measured current ( ). - the protective arrangement comprises an input (E, E1,.., E8) at which the protective arrangement is supplied with a current (I) from a power supply, - the protective arrangement comprises an output (A, A1,..., A8) via which the current (I) is passed on to the electrical device as output current, - the protective arrangement comprises a circuit breaker in a power line between the input (E, E1,.., E8) and the output (A, A1,..., A8) which interrupts the power line when a set tripping current is exceeded by a measured current ( ),
A message processing method, wherein the method comprises: receiving, by a network device, a first message, wherein the first message indicates P direct current DC locations, each of the P DC locations is a DC location corresponding to any two bandwidth parts BWP in a CC pair composed of any two of A component carriers CC that are configured by the network device for a terminal, the any two BWPs are respectively located in different CCs in the CC pair, P is an integer greater than or equal to 1, and A is an integer equal to or greater than 2; and determining, by the network device, a DC location of current communication based on the first message. receiving, by a network device, a first message, wherein the first message indicates P direct current DC locations, each of the P DC locations is a DC location corresponding to any two bandwidth parts BWP in a CC pair composed of any two of A component carriers CC that are configured by the network device for a terminal, the any two BWPs are respectively located in different CCs in the CC pair, P is an integer greater than or equal to 1, and A is an integer equal to or greater than 2; and determining, by the network device, a DC location of current communication based on the first message.
A data sending method, implemented by user equipment, UE, comprising: receiving (S202) an uplink scheduling grant, wherein the uplink scheduling grant comprises first resource indication information; determining (S102, S202) a target resource based on the first resource indication information, wherein the target resource is allocated resource blocks in N basic resource elements, resource blocks of a carrier are divided into the N basic resource elements, the carrier is indicated by the uplink scheduling grant for the UE to send uplink data, each basic resource element comprises more than one resource block, N are natural numbers, and N>1, wherein each of the N basic resource elements comprises a same quantity of resource blocks; and sending (S203) the uplink data on the target resource; wherein the first resource indication information indicates location information of allocated resource blocks in one basic resource element, and the determining (S102, S202) a target resource based on the first resource indication information comprises: determining allocated resource blocks in each of the N basic resource elements based on the location information, and the allocated resource blocks form the target resource; wherein a location of the allocated resource blocks in each of the N basic resource elements is the same as a location indicated by the first resource indication information. receiving (S202) an uplink scheduling grant, wherein the uplink scheduling grant comprises first resource indication information; determining (S102, S202) a target resource based on the first resource indication information, wherein the target resource is allocated resource blocks in N basic resource elements, resource blocks of a carrier are divided into the N basic resource elements, the carrier is indicated by the uplink scheduling grant for the UE to send uplink data, each basic resource element comprises more than one resource block, N are natural numbers, and N>1, wherein each of the N basic resource elements comprises a same quantity of resource blocks; and sending (S203) the uplink data on the target resource; wherein the first resource indication information indicates location information of allocated resource blocks in one basic resource element, and the determining (S102, S202) a target resource based on the first resource indication information comprises: determining allocated resource blocks in each of the N basic resource elements based on the location information, and the allocated resource blocks form the target resource; wherein a location of the allocated resource blocks in each of the N basic resource elements is the same as a location indicated by the first resource indication information. determining allocated resource blocks in each of the N basic resource elements based on the location information, and the allocated resource blocks form the target resource; wherein a location of the allocated resource blocks in each of the N basic resource elements is the same as a location indicated by the first resource indication information.
A vehicular display device comprising: an emitting portion equipped in a vehicle (V), the emitting portion being configured to emit display light (L1) having an optical axis (AX); a reflection portion configured to reflect the display light (L1) that is emitted from the emitting portion , to a display surface (WS) provided at the vehicle (V) such that the display light (L1) is reflected from the display surface (WS) to a previously defined eye point (EP); and a casing including an inner case inside which a cross point (CP) for the display light (L1) is located and a lower case housing the inner case inside, wherein the cross point corresponds to the focal point at which the display light (L1) emitted from the emitting portion converges between the emitting portion and the reflection portion , wherein the inner case includes an inner wall part facing a focal area (FA) on which external light reflected from the reflection portion after being incident on the reflection portion from outside the casing focuses, the lower case includes a lower wall part located along the inner wall part , and the casing has a heat-discharge structure of conducting heat from the inner wall part to the lower wall part to discharge the heat outward. an emitting portion equipped in a vehicle (V), the emitting portion being configured to emit display light (L1) having an optical axis (AX); a reflection portion configured to reflect the display light (L1) that is emitted from the emitting portion , to a display surface (WS) provided at the vehicle (V) such that the display light (L1) is reflected from the display surface (WS) to a previously defined eye point (EP); and a casing including an inner case inside which a cross point (CP) for the display light (L1) is located and a lower case housing the inner case inside, wherein the cross point corresponds to the focal point at which the display light (L1) emitted from the emitting portion converges between the emitting portion and the reflection portion , wherein the inner case includes an inner wall part facing a focal area (FA) on which external light reflected from the reflection portion after being incident on the reflection portion from outside the casing focuses, the lower case includes a lower wall part located along the inner wall part , and the casing has a heat-discharge structure of conducting heat from the inner wall part to the lower wall part to discharge the heat outward.
A liftable bicycle seatpost comprising: an outer tube ; an inner tube movably disposed upwards and downwards in the outer tube , and having a top end thereof located outside the outer tube and a bottom end thereof received in the outer tube , an outer surface of the inner tube having a protrusion; and a bushing disposed between the inner tube and the outer tube , and having an upper sleeve rotatably disposed at a top end of the outer tube and a lower sleeve received in the outer tube and disposed at a bottom end of the upper sleeve , a bottom end of the upper sleeve having an upper baffle ring provided with a first engaging portion at a bottom end thereof, a top end of the lower sleeve having a lower baffle ring provided with a second engaging portion at a top end thereof engaged with the first engaging portion of the upper baffle ring , so that the upper sleeve and the lower sleeve are moved synchronously, characterized by a top edge of the lower baffle ring of the lower sleeve being abutted against a bottom edge of the upper baffle ring of the upper sleeve , a bottom end of the lower sleeve having a limiting portion abutted against the protrusion of the inner tube ; wherein an outer surface of the upper baffle ring of the upper sleeve is flushed with an outer surface of the lower baffle ring of the lower sleeve . an outer tube ; an inner tube movably disposed upwards and downwards in the outer tube , and having a top end thereof located outside the outer tube and a bottom end thereof received in the outer tube , an outer surface of the inner tube having a protrusion; and a bushing disposed between the inner tube and the outer tube , and having an upper sleeve rotatably disposed at a top end of the outer tube and a lower sleeve received in the outer tube and disposed at a bottom end of the upper sleeve , a bottom end of the upper sleeve having an upper baffle ring provided with a first engaging portion at a bottom end thereof, a top end of the lower sleeve having a lower baffle ring provided with a second engaging portion at a top end thereof engaged with the first engaging portion of the upper baffle ring , so that the upper sleeve and the lower sleeve are moved synchronously, characterized by a top edge of the lower baffle ring of the lower sleeve being abutted against a bottom edge of the upper baffle ring of the upper sleeve , a bottom end of the lower sleeve having a limiting portion abutted against the protrusion of the inner tube ; wherein an outer surface of the upper baffle ring of the upper sleeve is flushed with an outer surface of the lower baffle ring of the lower sleeve .
A fish feed composition for use in prevention and/or treatment of an ectoparasite infection in fish, wherein the composition comprises conventional feed ingredients such as lipids, proteins, carbohydrates, vitamins and minerals, characterized in the feed composition comprises a compound of formula (I); wherein R is an entity selected from the group consisting of allyl, phenyl, phenylalkyl, napthyl, benzyl, C 1 -C 4 alkyl or C 2 -C 3 alkenyl or C 2 -C 3 -alkynyl
A method for processing a stripe in a storage device, comprising: determining at least two stripes in the storage device that satisfy a garbage collection condition, wherein each of the at least two stripes comprises a stripe unit requiring garbage collection and a stripe unit not requiring garbage collection; determining at least one stripe unit not requiring garbage collection from each stripe; computing parity data of data in the determined stripe units not requiring garbage collection; and storing the parity data into a first idle stripe unit, wherein the first stripe unit and the determined stripe units not requiring garbage collection are constructed into a new stripe in the storage device without migrating the data of the determined stripe units not requiring garbage collection, wherein the new stripe is a stripe generated by using a redundant array of independent disks, RAID, or Erasure Coding, EC, technology, and the new stripe is constructed by adding an ID of each determined stripe unit, SU-ID, to a linked list of a disk of the RAID corresponding to a disk ID, which the SU-ID is bound to, and another ID of a stripe unit storing the computed parity data is added to the linked list accordingly. determining at least two stripes in the storage device that satisfy a garbage collection condition, wherein each of the at least two stripes comprises a stripe unit requiring garbage collection and a stripe unit not requiring garbage collection; determining at least one stripe unit not requiring garbage collection from each stripe; computing parity data of data in the determined stripe units not requiring garbage collection; and storing the parity data into a first idle stripe unit, wherein the first stripe unit and the determined stripe units not requiring garbage collection are constructed into a new stripe in the storage device without migrating the data of the determined stripe units not requiring garbage collection, wherein the new stripe is a stripe generated by using a redundant array of independent disks, RAID, or Erasure Coding, EC, technology, and the new stripe is constructed by adding an ID of each determined stripe unit, SU-ID, to a linked list of a disk of the RAID corresponding to a disk ID, which the SU-ID is bound to, and another ID of a stripe unit storing the computed parity data is added to the linked list accordingly.