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Effectiveness of various isometric exercises at improving bone strength in cortical regions prone to distal tibial stress fractures

Effectiveness of various isometric exercises at improving bone strength in cortical regions prone... A computational model was used to compare the local bone strengthening effectiveness of various isometric exercises that may reduce the likelihood of distal tibial stress fractures. The developed model predicts local endosteal and periosteal cortical accretion and resorption based on relative local and global measures of the tibial stress state and its surface variation. Using a multisegment 3‐dimensional leg model, tibia shape adaptations due to 33 combinations of hip, knee, and ankle joint angles and the direction of a single or sequential series of generated isometric resultant forces were predicted. The maximum stress at a common fracture‐prone region in each optimized geometry was compared under likely stress fracture‐inducing midstance jogging conditions. No direct correlations were found between stress reductions over an initially uniform circular hollow cylindrical geometry under these critical design conditions and the exercise‐based sets of active muscles, joint angles, or individual muscle force and local stress magnitudes. Additionally, typically favorable increases in cross‐sectional geometric measures did not guarantee stress decreases at these locations. Instead, tibial stress distributions under the exercise conditions best predicted strengthening ability. Exercises producing larger anterior distal stresses created optimized tibia shapes that better resisted the high midstance jogging bending stresses. Bent leg configurations generating anteriorly directed or inferiorly directed resultant forces created favorable adaptations. None of the studied loads produced by a straight leg was significantly advantageous. These predictions and the insight gained can provide preliminary guidance in the screening and development of targeted bone strengthening techniques for those susceptible to distal tibial stress fractures. http://www.deepdyve.com/assets/images/DeepDyve-Logo-lg.png International Journal for Numerical Methods in Biomedical Engineering Wiley

Effectiveness of various isometric exercises at improving bone strength in cortical regions prone to distal tibial stress fractures

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Publisher
Wiley
Copyright
Copyright © 2018 John Wiley & Sons, Ltd.
ISSN
2040-7939
eISSN
2040-7947
DOI
10.1002/cnm.2976
Publisher site
See Article on Publisher Site

Abstract

A computational model was used to compare the local bone strengthening effectiveness of various isometric exercises that may reduce the likelihood of distal tibial stress fractures. The developed model predicts local endosteal and periosteal cortical accretion and resorption based on relative local and global measures of the tibial stress state and its surface variation. Using a multisegment 3‐dimensional leg model, tibia shape adaptations due to 33 combinations of hip, knee, and ankle joint angles and the direction of a single or sequential series of generated isometric resultant forces were predicted. The maximum stress at a common fracture‐prone region in each optimized geometry was compared under likely stress fracture‐inducing midstance jogging conditions. No direct correlations were found between stress reductions over an initially uniform circular hollow cylindrical geometry under these critical design conditions and the exercise‐based sets of active muscles, joint angles, or individual muscle force and local stress magnitudes. Additionally, typically favorable increases in cross‐sectional geometric measures did not guarantee stress decreases at these locations. Instead, tibial stress distributions under the exercise conditions best predicted strengthening ability. Exercises producing larger anterior distal stresses created optimized tibia shapes that better resisted the high midstance jogging bending stresses. Bent leg configurations generating anteriorly directed or inferiorly directed resultant forces created favorable adaptations. None of the studied loads produced by a straight leg was significantly advantageous. These predictions and the insight gained can provide preliminary guidance in the screening and development of targeted bone strengthening techniques for those susceptible to distal tibial stress fractures.

Journal

International Journal for Numerical Methods in Biomedical Engineering – Wiley

Published: Jan 1, 2018

Keywords: ; ; ; ;

References

  • Stress fractures caused by physical exercise
    Orava, S; Puranen, J; Ala‐Ketola, L
  • Ramey LN high‐risk stress fractures: diagnosis and management
    McInnis, KC
  • Dual‐energy X‐ray absorptiometry derived structural geometry for stress fracture prediction in male U.S. Marine Corp recruits
    Beck, TJ; Ruff, CB; Mourtada, FA
  • Bone health in athletes: the role of exercise, nutrition, and hormones
    Goolsby, M; Boniquit, N
  • Do high impact exercises produce higher tibial strains than running?
    Milgrom, C; Finestone, A; Levi, Y
  • Stress fractures of the distal tibia and calcaneus subsequent to acute fractures of the tibia and fibula
    Zlatkin, MB; Bjorkengren, A; Sartoris, DJ; Resnick, D
  • Simultaneous bilateral tibial stress fractures in a 15‐year‐old milkman—a case report
    Speed, CA; Fordham, JN; Cunningham, JL
  • Cortical microstructure and estimated bone strength in young amenorrheic atheletes, eumenorrheic athletes and non‐athletes
    Ackerman, KE; Putman, M; Guereca, G
  • Ground reaction forces, bone characteristics, and tibial stress fracture in male runners
    Crossley, K; Bennell, KL; Wrigley, T; Oakes, BW
  • Analysis of biomechanical mechanisms of tibial stress fractures among Israeli infantry recruits
    Milgrom, C; Giladi, M; Simkin, A
  • Recovery of muscle atrophy and bone loss from 90 days bed rest: results from a one‐year follow‐up
    Rittweger, J; Felsenberg, D
  • Bone stress in runners with tibial stress fractures
    Meardon, SA; Wilson, JF; Gries, SR; Kernozek, TW; Derrick, TR
  • Bone, exercise, and stress fractures
    Burr, DB
  • Sagittal plane bending moments acting on the lower leg during running
    Phuah, AH; Schache, AG; Crossley, K; Wrigley, T; Creaby, MW
  • External frontal plane loads may be associated with tibia stress fracture
    Creaby, MW; Dixon, SJ
  • The area moment of inertia of the tibia: a risk ractor for stress fractures
    Milgrom, C; Giladi, M; Simkin, A
  • Participation in ball sports may represent a prehabilitation strategy to prevent future stress fractures and promote bone health in young athletes
    Tenforde, AS; Sainani, KL; Sayres, LC; Milgrom, C; Fredericson, M
  • Femoral bone strength and its relation to cortical and trabecular changes after treatment with PTH, alendronate and their combination as assessed by finite element analysis of quantitative CT scans
    Keaveny, TM; Hoffmann, PF; Sing, M
  • Experimentally tested computer modeling of stress fractures in rats
    Stern‐Perry, M; Gefen, A; Shabshin, N; Epstein, Y
  • Biomechanical analysis for stress fractures of the anterior middle third of the tibia in athletes: nonlinear analysis using a three‐dimensional finite element method
    Sonoda, N; Chosa, E; Totoribe, K; Tajima, N
  • Intermediate effects of modified landing pattern of a probabilistic tibial stress fracture model in runners
    Chen, TL; An, WW; Chan, ZYS; Au, IPH; Zhang, ZH; Cheung, RTH
  • A cross‐sectional study of the effects of load carriage on running characteristics and tibial mechanical stress: implications for stress‐fracture injuries in women
    Xu, C; Slider, A; Zhang, J
  • Experimental and finite element analysis of tibial stress fractures using a rabbit model
    Franklyn, M; Field, B
  • The prediction of stress fractures using a ‘stressed volume’ concept
    Taylor, D; Kuiper, J‐H
  • Development and implementation of a coupled computational muscle force optimization bone shape adaptation modeling method
    Florio, CS
  • Strength adaptations of the tibia bone for prescribed sets of isometric forces and joint angles
    Florio, CS
  • Hip, thigh and calf muscle atrophy and bone loss after 5‐week bedrest inactivity
    Berg, HE; Eiken, O; Miklavcic, L; Mekjavic, IB
  • Exercise‐training protocols for astronauts in microgravity
    Greenleaf, JE; Bulbulian, R; Bernauer, EM; Haskell, WL; Moore, T
  • Isometric progressive resistive exercise for osteoporosis
    Swezey, RL; Swezey, A; Adams, J
  • Effect of modeling method on prediction of cortical bone strength adaptation under various loading conditions
    Florio, CS; Narh, KA
  • Development of a modeling technique for the investigation of muscle activity and its effect on bone stresses in the human leg during an isometric exercise
    Florio, CS; Narh, KA
  • Development of a widely applicable gradientless shape optimization based bone adaptation model for comparative parametric studies
    Florio, CS
  • Ground reaction forces and kinematics in distance running in older‐aged men
    Bus, SA
  • The biomechanics of lower extremity action in distance running
    Cavanagh, PR
  • 2000. Biomechanical analysis of the stance phase during barefoot and shod running
    De Wit, B; De Clercq, D; Aerts, P
  • Ground reaction forces and lower extremity kinematics when running with suppressed arm swing
    Miller, RH; Caldwell, GE; Van Emmerik, REA; Umberger, BR; Hamill, J
  • Ground reaction forces in running: a reexamination
    Munro, CF; Miller, DI; Fuglevand, AJ
  • Internal forces at chronic running injury sites
    Scott, S; Winter, DA
  • Moments of force and mechanical power in jogging
    Winter, DA
  • Stress fractures of the pelvis and legs in athletes: a review
    Behrens, SB; Deren, ME; Matson, A; Fadale, PD; Monchik, KO
  • The forces and moments in the leg during level walking
    Bresler, B; Frankel, JP
  • The projection of the ground reaction force as a predictor of internal joint moments
    Wells, R
  • 1980. Ground reaction forces in distance running
    Cavanagh, PR; Laforture, MA
  • The human tibia: a simplified method of radiographic analysis of its cross‐section with anthropometric correlation
    Stein, ID; Granik, G
  • Loading mode interactions in simulations of long bone cross‐sectional adaptation
    Levenston, ME; Beaupre, GS; Carter, DR
  • Surface bone remodeling induced by a medullary pin
    Cowin, SC; Van Buskirk, WC
  • Skeletal Tissue Mechanics
    Martin, RB; Burr, DB; Sharkey, NA
  • Mechanobiologic influences in long bone cross‐sectional growth
    Van Der Meulen, MCH; Beaupre, GS; Carter, DR
  • The geometrical properties of human femur and tibia and their importance for the mechanical behaviour of these bone structures
    Martens, M; Van Audekercke, R; De Meester, P; Mulier, JC
  • Muscle force magnitudes in the human leg for isometric exercises with various resultant force directions and joint angles
    Florio, CS
  • Neuromuscular adaptation to 8‐week strength training: isotonic versus isokinetic
    Remaud, A; Cornu, C; Guevel, A
  • Influence of muscle activity on the forces in the femur: an in vivo study
    Lu, T‐W; Taylor, SJG; O'connor, JJ; Walker, PS
  • Time to task failure and muscle activation vary with load type for sumbaximal fatiguing contraction with lower leg
    Hunter, SK; Yoon, T; Farinella, J; Griffith, EE; Ng, AV
  • Bone adaptation to a mechanical loading program significantly increases skeletal fatigue resistance
    Warden, SJ; Hurst, JA; Sanders, MS; Turner, CH; Burr, DB; Li, J
  • Prevention of lower extremity stress fractures in athletes and soldiers: a systematic review
    Jones, BH; Thacker, SB; Gilchrist, J; Kimsey Jr, CD; Sosin, DM

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