The further development of the investigation, beginning at the works [1-3] and the firstly presented in [4] is proposed in this work. Distinguish features of these investigations are using of the theory of multi-component dry friction [5-22] in the numerous engineering applications. Dry friction model of a solid ball rolling on boundaries of two identical frames constructed in works [1-3] is generalized for the case of the two incline frames. This model can be used in investigation of the dynamic of the a so-called “Butterfly” robot, consisting of two identical shaped plates rigidly placed parallel to each other on a small distance aimed at manipulating a ball that can freely roll on the plates’ boundaries as on rails [17]. The difficult control systems considered in [23-24] are another engineering application of the combined dry theory. Following developed in previous investigation approach, the friction force and torque are computed by the integration over the contact area so that the exact dynamically coupled integral model accounting the relationship of all the components of friction is obtained. This exact model is replaced by approximated analytical model which is completely satisfy to all analytical properties of integral model as function kinematics parameters without increasing the number of coefficients.

1.
A.A.
Kireenkov
, “
Preface: Mathematical Models and Investigations Methods of Strongly Nonlinear Systems
”,
AIP Conference Proceedings
2343
,
120001
(
2021
).
2.
A.
Kireenkov
,
Influence of the Combined Dry Friction on the Dynamics of the Rigid Ball Moving Along Two parallel Rails
, in:
9th edition of the International Conference on Computational Methods for Coupled Problems in Science and Engineering, COUPLED PROBLEMS 2021
179174
(
2021
) URL: https://www.scipedia.com/public/Kireenkov_2021b.
3.
A.
Kireenkov
,
Dry Friction Model of a Contact of a Solid Ball Moving Along the Boundaries of Two Rails
, in:
WCCM-ECCOMAS 2020
(
2021
) URL: www.scipedia.com/public/Kireenkov_2021a.
4.
A.A.
Kireenkov
, “
Modelling of the force state of contact of a ball rolling along the boundaries of two rails
”,
AIP Conference Proceedings
2343
,
120002
(
2021
).
5.
A.
Kireenkov
and
S.
Zhavoronok
,
A Method of Parameters Identification for the Coupled Dry Friction Model for Pneumatic Tires
, in:
WCCM-ECCOMAS2020
(
2021
) URL: https://www.scipedia.com/public/Kireenkov_Zhavoronok_2021a.
6.
A.A.
Kireenkov
and
S.I.
Zhavoronok
, “
Anisotropic Combined Dry Friction in Problems of Pneumatics’ Dynamics
”,
Journal of Vibration Engineering and Technologies
8
,
365
372
(
2020
).
7.
A.A.
Kireenkov
and
S.I.
Zhavoronok
, “
Numeric-Analytical Methods of the Coefficients Definition of the Rolling Friction Model of the Pneumatic Aviation Tire
”, in:
8ᵗʰ International Conference on Coupled Problems in Science and Engineering, COUPLED PROBLEMS 2019
(
2021
), pp.
204
212
.
8.
A.A.
Kireenkov
and
S.M.
Ramodanov
, “
Combined Dry Friction Models in the Case of Random Distribution of the Normal Contact Stresses Inside of Contact Patches
”, in:
cᵗʰ International Conference on Coupled Problems in Science and Engineering, COUPLED PROBLEMS 2019
(
2021
), pp.
176
182
.
9.
A.A.
Kireenkov
and
S.I.
Zhavoronok
, “
Implementation of analytical models of the anisotropic combined dry friction in problems of pneumatics' dynamics. MATEC Web of Conferences
MATEC Web of Conferences
211
,
08004
(
2018
).
10.
A.A.
Kireenkov
,
D.V.
Nushtaev
and
S.I.
Zhavoronok
, “
A new approximate model of tyre accounting for both deformed state and dry friction forces in the contact spot on the background of the coupled model
”,
MATEC Web of Conferences
211
,
08003
(
2018
).
11.
A.A.
Kireenkov
, “
Improved Friction Model of the Aviation Tyre Contact with the Landing Strip
”,
IFAC-PapersOnLine
51
(
2
),
890
894
(
2018
).
12.
A.A.
Kireenkov
and
S.I.
Zhavoronok
, “
Coupled dry friction models in problems of aviation pneumatics' dynamics
”,
International Journal of Mechanical Sciences
127
,
198
203
(
2017
).
13.
A.A.
Kireenkov
, “
Improved theory of the combined dry friction in problems of aviation pneumatics’ dynamics
”, in:
Proceedings of the 7ᵗʰ International Conference on Coupled Problems in Science and Engineering, COUPLED PROBLEMS 2017
(
2017
), pp.
1293
1298
.
14.
S.I.
Zhavoronok
and
A.A.
Kireenkov
, “
On the effect of the anisotropic dry friction and the deformed state of tires on the shimmy initiation
”, in:
croceedings of the 7ᵗʰ International Conference on Coupled Problems in Science and Engineering, COUPLED PROBLEMS 2017
(
2017
), pp.
216
226
.
15.
S.M.
Ramodanov
and
A.A.
Kireenkov
, “
Controllability of a rigid body in a perfect fluid in the presence of friction
”, in:
Proceedings of the 7ᵗʰ International Conference on Coupled Problems in Science and Engineering, COUPLED PROBLEMS 2017
(
2017
), pp.
179
184
.
16.
A.A.
Kireenkov
, “
Further development of the theory of multicomponent dry friction
”, in:
COUPLED PROBLEMS 2015 - Proceedings of the 6ᵗʰ International Conference on Coupled Problems in Science and Engineering
(
2015
), pp.
203
209
.
17.
M.
Surov
,
A.
Shiriaev
and ets., “
Case study in non-prehensile manipulation: Planning and orbital stabilization of one-directional rollings for the ‘Butterfly robot’
”, in:
Proceedings - IEEE International Conference on Robotics and Automation
(
2015
), pp.
1484
1489
.
18.
S. V.
Semendyaev
, “
Mathematical model of jumping solid system with variable mass internal mover
”,
AIP Conference Proceedings
2343
, pp.
120008
(
2021
)
19.
S. V.
Semendyaev
, “
General case of movement of solid system with two massive eccentrics on a rough plane
”, in:
8ᵗʰ International Conference on Coupled Problems in Science and Engineering, COUPLED PROBLEMS 2019
(
2021
), pp.
183
191
.
20.
S.V.
Semendyaev
, “
Solid system with two massive eccentrics on a rough plane: rotational case
”,
IFAC-PapersOnLine
51
(
2
),
884
889
(
2018
).
21.
S. V.
Semendyaev
, “
Coupled dynamics of solid system with slider-crank mechanisms as internal movers on rough surface with friction
”, in:
7ᵗʰ International Conference on Coupled Problems in Science and Engineering, COUPLED PROBLEMS 2017
(
2017
), pp.
185
196
.
22.
S.V.
Semendyaev
,
A.A.
Tsyganov
, “
Model and investigation of dynamics of the solid system with two massive eccentrics on a rough plane
”, in:
7ᵗʰ European Congress on Computational Methods in Applied Sciences and Engineering (ECCOMAS Congress 2016) (2016)
,
III
, p.
4572
4583
.
23.
S. M.
Ramodanov
and
S. V.
Sokolov
, “
Dynamics of a circular cylinder and two point vortices in a perfect fluid
”,
AIP Conference Proceedings
2343
,
120007
(
2021
).
24.
P.E.
Ryabov
,
A.A.
Oshemkov
, and
S.V.
Sokolov
,
The Integrable Case of Adler – van Moerbeke. Discriminant Set and Bifurcation Diagram
,
Regular and Chaotic Dynamics
21
,
581
592
(
2016
).
25.
A.A.
Kireenkov
,
S.V.
Semendyaev
and
V.V.
Filatov
, “
Experimental study of coupled two-dimensional models of sliding and spinning friction
”,
Mechanics of Solids
,
45
(
6
),
921
930
(
2010
).
26.
A.A.
Kireenkov
, “
Combined model of sliding and rolling friction in dynamics of bodies on a rough plane
”,
Mechanics of Solids
,
43
(
3
),
412
425
(
2008
).
27.
A.A.
Kireenkov
, “
Coupled models of sliding and rolling friction
”,
Doklady Physics
,
53
(
4
),
233
236
(
2008
).
28.
I.G.
Goryacheva
,
Mechanics of friction interaction
(
Nauka
,
Moscow
,
2001
).
29.
V.Ph.
Zhuravlev
, “
The Model of Dry Friction in the Problem of the Rolling of Rigid Bodies
”,
Journal of Applied Mathematics and Mechanics
,
62
(
5
),
762
767
(
1998
).
This content is only available via PDF.
You do not currently have access to this content.