A search and rescue effort is critical during an emergency, such as hostages trapped within a building. It is critical to assess the prisoners’ status in advance so that proper safeguards may be taken. Most traditional search and rescue robots fail to enter buildings through small areas due to their incapacity to adapt to the intricate geometry of entry infrastructure such as pipes. The redundant structure of snake robots gives for more flexibility in such scenarios. As a result, these snake robots can assist the military with search and rescue tasks in small structures. This study focuses on developing snake robots that can be delivered into buildings via tiny pipes and recognizing humans using machine learning frameworks such as deep convolutional neural networks. To put the notion to the test, we built a snake robot with 12 redundant degrees of freedom. After that, the simulation was done in ROS Gazebo and rviz. Human models and structures were also used to imitate the real-world environment. As a result, the snake robot’s forward kinematics were refined in order to better align the surveillance camera in order to speed up the detection process. Furthermore, using deep convolutional neural networks, the snake robot detected people with about 98% accuracy.

1.
Beeson
,
Patrick
and
Ames
,
Barrett
,
2015 IEEE-RAS 15th International Conference on Humanoid Robots (Humanoids, An open-source library for improved solving of generic inverse kinematics
,
2015
, pp.
928
935
, doi=
2.
Manocha
,
D.
and
Canny
,
J.F.
,
IEEE Transactions on Robotics and Automation, Efficient inverse kinematics for general 6R manipulators
,
1994
, volume.
10
(
5
, pages=
648
657
, doi=
3.
Damas
,
Bruno
and
Santos-Victor
,
José
,
2012
IEEE/RSJ International Conference on Intelligent Robots and Systems, An online algorithm for simultaneously learning forward and inverse kinematics
, year=
2012
, pp.
1499
1506
, doi=.
4.
Kelmar
,
L.
and Khosla,
P. K.
}
,
booktitle={Proceedings. 1988 IEEE International Conference on Robotics and Automation}, title={Automatic generation of kinematics for a reconfigurable modular manipulator system
}, year={
1988
}, volume={}, number={}, pages={
663
668
vol.
2
}, doi={}}
Y.
Yorozu
,
M.
Hirano
,
K.
Oka
, and
Y.
Tagawa
, “
Electron spectroscopy studies on magneto-optical media and plastic substrate interface
,”
IEEE Transl. J. Magn. Japan
, vol.
2
, pp.
740
741
, August
1987
[Digests 9th Annual Conf. Magnetics Japan, p. 301, 1982].
5.
Santos
,
Matheus C.
and
Molina
,
Lucas
and Carvalho,
Elyson
A. N.
and Freire,
Eduardo
O.
and
Carvalho, José
G. N.
and Santos,
Phillipe C.
}
, journal={
IEEE Access}, title={MB-RRT: An Inverse Kinematics Solver of Reduced Dimension
}, year={
2021
}, volume={
9
}, number={}, pages={
148558
-
148573
}, doi={
6.
Fiore
,
Mario D.
and
Natale
,
Ciro
,
2021 29th Mediterranean Conference on Control and Automation (MED), title=Discrete-time closed-loop inverse kinematics: A comparison between Euler and RK4 methods
,
2021
, pages=
584
589
, doi=.
7.
Schumacher
,
Christian
and
Knoop
,
Espen
and
Bächer
,
Moritz
, “
IEEE Robotics and Automation Letters”, A Versatile Inverse Kinematics Formulation for Retargeting Motions Onto Robots With Kinematic Loops
,
2021
, vol.
6
(
2
), pp.
943
950
, doi=
8.
Yotchon
,
Phanomphon
and
Jewajinda
,
Yutana
,
2021 3rd International Conference on Electronics Representation and Algorithm (ICERA), title={Combining a Differential Evolution Algorithm with Cyclic Coordinate Descent for Inverse Kinematics of Manipulator Robot
,
2021
, pp.
35
40
, doi=
9.
Mu
,
Zonggao
and
Chen
,
Yongquan
and
Li
,
Zheng
and
Qian
,
Huihuan
and
Ding
,
Ning
,
IEEE Transactions on Systems, Man, and Cybernetics: Systems, A Spatial Biarc Method for Inverse Kinematics and Configuration Planning of Concentric Cable-Driven Manipulators
,
2021
, p.
1
10
, doi=
10.
Vazquez-Santiago
,
Kyshalee
and Goh,
Chun
Fan
and
Shimada
,
Kenji
,
2021 IEEE 17th International Conference on Automation Science and Engineering, Motion Planning for Kinematically Redundant Mobile Manipulators with Genetic Algorithm, Pose Interpolation, and Inverse Kinematics
,
2021
, pp.
1167
1174
, doi=
11.
Wu
,
Honggang
and
Song
,
Linsen
and
Zhang
,
Xinming
and
Su
,
Chengzhi
},
2021
International Conference on Electronic Information Engineering and Computer Science (EIECS), Research on Inverse Kinematics of Robot Based on Improved Chicken Swarm Algorithm
,
2021
, pp.
533
536
, doi=
12.
Marić
,
Filip
and
Giamou
,
Matthew
and Hall,
Adam
W.
and
Khoubyarian
,
Soroush
and
Petrović
,
Ivan
and
Kelly
,
Jonathan
, IEEE
Transactions on Robotics, Riemannian Optimization for Distance-Geometric Inverse Kinematics
,
2021
, pp.
1
20
, doi=
13.
Chung
,
W.K.
and
Jeongheon
Han
and
Youm
,
Y.
and
Kim
,
S.H.
,
Proceedings of International Conference on Robotics and Automation, Task based design of modular robot manipulator using efficient genetic algorithm
, pages=
507
512
vol.
1
, doi=
14.
Ranzani
,
Tommaso
and
Cianchetti
,
Matteo
and
Gerboni
,
Giada
and Falco,
Iris De and
Menciassi
, Arianna, journal
=IEEE Transactions on Robotics, title=A Soft Modular Manipulator for Minimally Invasive Surgery: Design and Characterization of a Single Module
,
2016
, vol.
32
, (
1
), p.
187
200
doi=
15.
Goldenberg
,
A.
and
Benhabib
,
B.
and
Fenton
,
R.
,
IEEE Journal on Robotics and Automation, A complete generalized solution to the inverse kinematics of robots
,
1985
, vol.
1
(
1
), pp.
14
20
, doi=.
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