Stress-strain state of the system "lumbar spine-sacrum-pelvis" in the conditions of front pelvis




sacro-iliac joints, lumbar spine, sacrum, ligaments


The goal: to analyze the stress-strain state of the sacroiliac joints with central, interosseous, dorsal sacroiliac ligaments in normal condition and in the conditions of pelvis tilt in the frontal plane.

The methods: for this study virtual model was elected, it was synthesized on the base of CT scan of the lumbar spine, sacroiliac joints (SIJ) and pelvis of 20 patients and MRI of SIJ of 10 patients. Synthesized finite element models of lumbosacral spine and SIJ were loaded on the upper vertebrae LI along the axis of spine with compressive force that was equal to 400 and 2000 N.

The results: obtained qualitative picture of the stress-strain distribution in the lumbosacral spine model during pelvic tilt suggest changes in the nature of work in all joints. Pelvis tilt causes additional compression on SIJ that located below (left). Being loaded sacrum provokes additional rotation around SIJ that located below (left). This leads to a shift of conventional axis of rotary pelvis motion forward and down on one side, back and top to bottom — on the other, that was accompanied by a significant increase in the relative compressive deformation of soft tissue structures of SIJ on one side (left). Under the conditions of loading (400 N) combined with pelvis tilt compared to its normal state an increase in tension values in all SIJ ligaments on left side was recorded especially in dorsal, interosseous, cross-iliac and iliac-lumbar ligaments. Relative deformity of hyaline cartilage increased significantly on the left side in interosseous ligaments towards compression direction. An increasing of loading up to 2000 N provided an increased role of sacro-tuber, sacro-spinous, iliac-lumbar ligaments where stresses value increased by 5–10 times. In this situation the values of relative tensile deformations also increases in ventral, interosseous, dorsal, iliac-transverse and iliac-lumbar ligaments on the right side.


Vleeming A, Snijders CJ, Stoeckart R. The role of the sacroiliac joints in coupling between spine, pelvis, legs and arms. NY: Churchill Livingstone, 1997, pp.53–71.

Vleeming A, Van Wingerden JP, Dijkstra PF, Stoeckart R, Snijders CJ, Stijnen T. Mobility of the sacroilac joint in the elderly: A kinetic and radiology study. Clin Biomech. 1992;7(3):170–6. doi: 10.1016/0268-0033(92)90032-Y.

Sturresson B, Selvic G, Uden A. Movement of the sacroiliac joints. A roentgen streofotogrammetric analisys. Spine. 1989;14(2):162–5.

Irvin RE. Sub-optimal posture; the origin of the majority of the muskuloskeletal pain of the muskuloskeletal system. NY: Churchill Livingstone, 1997, pp.133–155.

Kiapour A, Abdelgawad AA, Goel VK, Souccar A, Terai T, Ebraheim NA. Relationship between limb length discrepancy and load distribution across the sacroiliac joint — a finite element study. J Orthop Res. 2012;30(10):1577–80. doi: 10.1002/jor.22119.

Staude VA, Kondratyev AV, Karpinsky MYu. Numerical simulation and analysis of the stress-strain state of sacro-iliac joint in different variants of lumbar lordisis. Orthopedics, Travmatology and prosthetics. 2012;(2):50–6. doi:

Staude VA, Kondratyev AV, Karpinsky MYu. Numerical modeling and analysis of the stress-strain state in the kinematic chain “lumbar spine – sacrum – pelvis” in view of the major ligaments of the sacroiliac joint. Orthopedics, Travmatology and prosthetics 2015;(1):34–41. doi:

Korzh NA, Staude VA, Kondratyev AV, Karpinsky MYu. Stress-strain state of the kinematic chain “lumbar spine – sacrum – pelvis” in cases of asymmetry of articular gaps of the sacroiliac joint. Orthopedics, Travmatology and prosthetics. 2015;(3):5–13. doi:

Kapandzhy AI. Spine. Joint fixation. Mechanic schemes of human body with comments. 6-th ed. Moskow: “Eksmo”, 2009. 334 p.

Masi A, Ben-jamin M, Vleeming A. Anatomical, biomechanical and clinical perspectives on sacroiliac joints: an integrative synthesis of biodynamic mecha-nisms related to ankylosing spondylitis. Edinburg: Churchill livingstone, 2007, pp.205–27.

Berezovsky VA, Kolotilov NN. Biophysical characteristics human tissues: reference book. Kiiv: Naukova dumka, 1990. 224 p.

Gilbertson LG, Goel VK, Kong WZ, Clausen JD. Finite element methods in spine biomechanics research. CRC Crit Rev Biomed Eng. 1995;23(5–6):411–73.

Alyamovsky AA. Solid Works. COSMOS Works. Engineering analysis by finit element method. Moskow: DMK Press, 2004. 432 p.

Tyazhelov OA, Filipenko VA, Yaresko OV, Bondarenko SE. A mathematical model of the pelvis for calculation of its stress-strain state. Orthopedics, Travmatology and Prosthetics 2015;(1):25–33. doi:

Li ZD, Zou DH, Liu NG, Huang P, Chen YJ. The finite element modeling of human pelvis and its application in medicolegal expertise. Fa Yi Xue Za Zhi. 2010;26(6):406–12.

Hao Z, Wan C, Gao X, Ji T. The effect of boundary condition on the biomechanics of a human pelvic joint under an axial compressive load: a three-dimensional finite element model. J Biomech. Eng. 2011;133(10):Article 101006. doi: 10.1115/1.4005223.

Phillips AT, Pankaj P, Howie CR, Usmani AS, Simpson AH. Finite element modelling of the pelvis: inclusion of muscular and ligamentous boundary conditions. Med. Eng. Phys. 2007;29(7):739–48.

Eichenseer PH, Sybert DR, Cotton JR. A finite element analysis of sacroiliac joint ligaments in response to different loading conditions. Spine. 2011;36(22):E1446–52. doi: 10.1097/BRS.0b013e31820bc705.

Hammer N, Steinke H, Lingslebe U, Bechmann I, Josten C, Slowik V, Böhme J. Ligamentous influence in pelvic load distribution. Spine J. 2013;13(10):1321–30. doi: 10.1016/j.spinee.2013.03.050.

Adams M, Bogduk M, Burton K, Dolan P. The biomechanic of back pain. 2nd edition. Edinburg: Churchill Livingstone, 2007. 336 p.

Popov GI, Samsonov AV. Biomechanics of movement activity: the textbook for higher prof. education. Moskow: Publishing Center "Academy", 2011. 320 p.

Don Tigny RL. Critical analysis of the functional dynamics of the sacroiliac joints as they pertain to normal gait. J Orthop. Med. 2005;27(1):3–9.

Gracovetsky S. Analysis and interpretation of gait in relation to lumopelvic function. Montreal, Canada. ECO, Roterdam, 2001, pp.45–63.

How to Cite

Korzh, M., Staude, V., Kondratyev, A., & Karpinsky, M. (2016). Stress-strain state of the system "lumbar spine-sacrum-pelvis" in the conditions of front pelvis. ORTHOPAEDICS, TRAUMATOLOGY and PROSTHETICS, (1), 54–61.




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