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公开(公告)号:US20240362924A1
公开(公告)日:2024-10-31
申请号:US18645882
申请日:2024-04-25
发明人: Gireesh NANDIRAJU , Ayush AGRAWAL , Ahana DATTA , Snehasis BANERJEE , Mohan SRIDHARAN , Madhava KRISHNA , Brojeshwar BHOWMICK
IPC分类号: G06V20/58 , G05D1/246 , G05D1/633 , G05D1/644 , G05D101/00 , G05D101/15 , G06T7/246 , G06V10/82
CPC分类号: G06V20/58 , G05D1/246 , G05D1/633 , G05D1/644 , G06T7/246 , G06V10/82 , G05D2101/15 , G05D2101/22 , G06T2207/20084 , G06T2207/30261
摘要: This disclosure relates generally to method and system for multi-object tracking and navigation without pre-sequencing. Multi-object navigation is an embodied Al task where object navigation only searches for an instance of at least one target object where a robot localizes an instance to locate target objects associated with an environment. The method of the present disclosure employs a deep reinforcement learning (DRL) based framework for sequence agnostic multi-object navigation. The robot receives from an actor critic network a deterministic local policy to compute a low-level navigational action to navigate along a shortest path calculated from a current location of the robot to the long-term goal to reach the target object. Here, a deep reinforcement learning network is trained to assign the robot with a computed reward function when the navigational action is performed by the robot to reach an instance of the plurality of target objects.
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公开(公告)号:US12125003B2
公开(公告)日:2024-10-22
申请号:US18422260
申请日:2024-01-25
发明人: Zehua Shao , Yaqiang Quan , Xiaojun Wei , Feng Wang
IPC分类号: G06Q10/20 , F17D5/02 , G05D1/617 , G06Q10/0635 , G16Y10/35 , G16Y40/10 , F16L55/26 , G05D101/15 , G05D105/45 , G05D107/50 , G06Q50/06
CPC分类号: G06Q10/20 , F17D5/02 , G05D1/617 , G06Q10/0635 , G16Y10/35 , G16Y40/10 , F16L55/26 , G05D2101/15 , G05D2105/47 , G05D2107/50 , G06Q50/06
摘要: Methods and Internet of Things (IOT) systems for smart gas pipeline maintenance based on human-machine linkage are provided. The IoT system includes a smart gas user platform, a smart gas service platform, a smart gas pipeline network safety management platform, a smart gas pipeline network sensor network platform, and a smart gas pipeline network object platform. The method includes determining a first cycle based on data of a pipeline to be maintained, a feature of a maintainer, and/or a feature of a maintenance robot, obtaining, through a maintainer terminal and/or the maintenance robot, first feedback data based on the first cycle, determining, based on the first feedback data and the data of the pipeline to be maintained, a maintenance parameter and sending the maintenance parameter to the maintainer terminal, and generating, based on the maintenance parameter, a control instruction and sending the control instruction to the maintenance robot.
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公开(公告)号:US20240362820A1
公开(公告)日:2024-10-31
申请号:US18766948
申请日:2024-07-09
发明人: Jian YANG , You ZHOU , Zhenfei YANG
IPC分类号: G06T7/73 , B64U10/14 , B64U101/30 , G05D1/243 , G05D101/15 , G05D109/20 , G06T7/593 , H04N13/00 , H04N13/239
CPC分类号: G06T7/74 , G06T7/593 , H04N13/239 , B64U10/14 , B64U2101/30 , G05D1/2435 , G05D2101/15 , G05D2109/20 , G06T2207/10012 , G06T2207/10032 , G06T2207/20081 , G06T2207/20084 , G06T2207/30252 , H04N2013/0081
摘要: An image processing method may be applied to a movable platform, and the movable platform may comprise a first vision sensor and a second vision sensor. The method may include obtaining a first localized image of the first vision sensor within an overlapping visual range, obtaining a second localized image of the second vision sensor within the overlapping visual range; acquiring an image captured by the first vision sensor at a first moment and an image captured at a second moment, the first vision sensor being positioned in space at the first moment differently than at the second moment; and determining a relative positional relationship between an object in the space where the movable platform is located and the movable platform based on the first localized image, the second localized image, the image captured at the first moment and the image captured at the second moment.
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公开(公告)号:US20240345604A1
公开(公告)日:2024-10-17
申请号:US18631135
申请日:2024-04-10
申请人: Maytronics Ltd.
发明人: Leo HERSZENHAUT , Gilad GOLDENBERG
IPC分类号: G05D1/86 , G05D101/15 , G05D105/10 , G05D109/30
CPC分类号: G05D1/86 , G05D2101/15 , G05D2105/10 , G05D2109/38
摘要: Disclosed herein is a method of detecting stalled state of a dynamic pool equipment unit, comprising receiving a plurality of movement features relating to a dynamic pool equipment unit deployed in a water pool which are captured during a predefined sampling window and comprise (1) motion features of the pool equipment unit, and (2) operational features of electric motor(s) of the pool equipment unit, determining a movement pattern of the pool equipment unit using one or more statistical models applied to the plurality of movement features which are trained to estimate a stalled state of the pool equipment unit in which the pool equipment unit is pitched up and unable to advance on a slopped obstacle in the water pool, and causing the pool equipment unit to stop attempted advance in a current direction responsive to determining that the pool equipment unit is in the stalled state.
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公开(公告)号:US20240338032A1
公开(公告)日:2024-10-10
申请号:US18627663
申请日:2024-04-05
发明人: Paul J. Perrone
IPC分类号: G05D1/60 , G05D101/15 , G06N3/0475
CPC分类号: G05D1/60 , G06N3/0475 , G05D2101/15
摘要: Provided herein are system, apparatus, article of manufacture, method and/or computer program product aspects, and/or combinations and sub-combinations thereof, for artificial intelligence in mobile autonomous robotics and autonomous mobile platforms. An example aspect operates by a method of using a general-purpose robotics operating system (GPROS) with generative pre-trained transformers (GPT) (GPROS-GPT) model. The method includes training the GPROS-GPT model and querying the GPROS-GPT model to generate GPROS configuration data and service extension files. The method further includes loading the configuration data and the service extension files into a GPROS-based application and using the GPROS-based application to operate a GPROS-based robot or a GPROS-based autonomous vehicle.
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6.
公开(公告)号:US20240338031A1
公开(公告)日:2024-10-10
申请号:US18626493
申请日:2024-04-04
发明人: Guven CETINKAYA , Yakup GENC
IPC分类号: G05D1/24 , G05D1/686 , G05D101/15 , G05D111/10 , G06T7/20 , G06T7/73 , G06V10/82 , G06V20/56
CPC分类号: G05D1/24 , G05D1/686 , G06T7/20 , G06T7/73 , G06V10/82 , G06V20/56 , G05D2101/15 , G05D2111/10 , G06T2207/20081 , G06T2207/20084 , G06T2207/30252 , G06V2201/08
摘要: A camera-based and direct observation based relative position determination method for multiple unmanned aerial, naval and ground vehicles is provided. The method calculates the relative position between the relevant vehicles in multiple UAV, UNV and UGV systems.
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公开(公告)号:US20240319750A1
公开(公告)日:2024-09-26
申请号:US18615252
申请日:2024-03-25
发明人: Zixiang NIE , Kwang-Cheng Chen
IPC分类号: G05D1/698 , G05D1/644 , G05D1/667 , G05D101/15 , G05D107/70
CPC分类号: G05D1/6983 , G05D1/644 , G05D1/667 , G05D2101/15 , G05D2107/70
摘要: A system and methods for operating a multi-robot system (MRS) are disclosed. An example method can include receiving at least one transportation task; determining an optimal path for executing the at least one transportation task based at least in part on: (i) one or more transportation task parameters, (ii) a shared global critic function accessible to the first robot and the at least one additional robot, and (iii) a local critic function unique to the first robot; and executing the at least one transportation task in accordance with the determined optimal path.
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公开(公告)号:US20240311641A1
公开(公告)日:2024-09-19
申请号:US18602351
申请日:2024-03-12
发明人: Reda ALAMI , Hakim HACID
IPC分类号: G06N3/092 , G05D1/644 , G05D101/15 , G05D109/20
CPC分类号: G06N3/092 , G05D1/644 , G05D2101/15 , G05D2109/20
摘要: Systems, methods, and computer-readable media for dynamic changes to both a learned control policy in the event of a change in the environment (e.g., introduction of a new or unseen obstacle). Rather than having to implement an entirely new policy (and a new global Q table), which can delay performance of tasks by agent(s), the present embodiments allow for a reduced delay in updating local Q table(s) based on detection of a new change in the environment. Locally changing the policy allows for more efficient updating of the policy based on changes in the environment, rather than globally changing the Q table after each change. Particularly in an event with multiple changes in the environment, the present embodiments increase efficiency in updating local and global Q tables while also reducing a delay in providing new instructions to the agent(s) in completing tasks.
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公开(公告)号:US20240184305A1
公开(公告)日:2024-06-06
申请号:US18283259
申请日:2022-03-23
发明人: Young Eun SONG
IPC分类号: G05D1/243 , G05D101/15 , G05D105/28 , G05D107/60 , G06V10/14 , G06V20/58 , G06V40/16 , G08B3/00
CPC分类号: G05D1/2435 , G06V10/14 , G06V20/58 , G06V40/166 , G05D2101/15 , G05D2105/28 , G05D2107/60 , G08B3/00
摘要: A mobile robot for determining whether to board an elevator may include a camera configured for capturing an inside of the elevator, an object recognition unit configured for recognizing an area of the elevator and the number of passengers from an image captured by the camera, and a control unit configured for calculating a density of the elevator based on the area and the number of passengers. The control unit may perform a determination of whether to board the elevator based on the density, and control a driving wheel motor based on the determination.
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公开(公告)号:US12124282B2
公开(公告)日:2024-10-22
申请号:US17923114
申请日:2021-12-13
申请人: SOUTHEAST UNIVERSITY
发明人: Hua Zhang , Na Su , Junbo Wang
IPC分类号: G05D1/644 , B63B79/40 , G05D101/15 , G05D109/30
CPC分类号: G05D1/644 , B63B79/40 , G05D2101/15 , G05D2109/30
摘要: The present invention discloses an intention-driven reinforcement learning-based path planning method, including the following steps: 1: acquiring, by a data collector, a state of a monitoring network; 2: selecting a steering angle of the data collector according to positions of surrounding obstacles, sensor nodes, and the data collector; 3: selecting a speed of the data collector, a target node, and a next target node as an action of the data collector according to an ε greedy policy; 4: determining, by the data collector, the next time slot according to the selected steering angle and speed; 5: obtaining rewards and penalties according to intentions of the data collector and the sensor nodes, and updating a Q value; 6: repeating step 1 to step 5 until a termination state or a convergence condition is satisfied; and 7: selecting, by the data collector, an action in each time slot having the maximum Q value as a planning result, and generating an optimal path. The method provided in the present invention can complete the data collection path planning with a higher probability of success and performance closer to the intention.
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