The adaptation of soleus and edl in a rat model of distraction osteogenesis: IGF‐1 and fibrosis

Deyne, Patrick G. De; Kinsey, Stephen T.; Yoshino, Sonomi; Jensen-Vick, K.

doi:10.1016/s0736-0266(02)00047-5

Cited by 19 publications

(14 citation statements)

References 35 publications

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“…Although in this study, no adequate labeling was done to rule out definitely an ongoing process of sarcomere neogenesis, the amount of stretching of the sarcomeres was enough to account mathematically for the recorded increase in FL at this time point, suggesting that the number of sarcomeres in series probably did not significantly change after lengthening. This appears to be in contrast to previous reports, which indicated that distraction osteogenesis stimulated muscle growth (Day et al, 1997a;De Deyne, 2002;De Deyne et al, 2002) and induced adding new sarcomeres in se- Fig. 4.…”

Section: Discussioncontrasting

confidence: 96%

Changes in pennate muscle architecture after gradual tibial lengthening in goats

Elsalanty

Makarov

Cherkashin

et al. 2007

The Anatomical Record

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The purpose of this investigation was to examine the changes in unipennate muscle architecture after distraction osteogenesis. Nine adult goats underwent 20% tibial lengthening in one of the hind limbs. Immediately after distraction, lengthened and contralateral (untreated) tibialis caudalis (TC) muscles were harvested. Lengths of the muscle belly, muscle fiber (FL), sarcomere (SL), tendon (TL), and superficial aponeurosis, as well as muscle mass, pennation angle (PA), and physiological cross-sectional area (PCSA), were compared between the treated and contralateral sides. Lengthened TC muscle demonstrated 20.8% increase in belly length, 4.39% increase in TL, and 36.7% increase in FL, while PA decreased by 37.2% (P ¼ 008). Muscle length increase was mainly due to lengthening of muscle belly, which resulted both from FL increase and 15.3% length increase in the aponeurosis component of muscle belly, without significant effect of the PA decrease. The FL increase was due to SL increase, not to sarcomere neogenesis, while mass and PCSA did not change. We concluded that although muscle architecture can be adversely affected by distraction because of deficient sarcomere neogenesis, PCSA can remain unchanged, giving false impression of preserved function. Change in PA plays only minimal role in muscle adaptation to distraction. Anat Rec, 290:461-467, 2007Rec, 290:461-467, . 2007 Wiley-Liss, Inc.

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Section: Discussioncontrasting

confidence: 96%

Changes in pennate muscle architecture after gradual tibial lengthening in goats

Elsalanty

Makarov

Cherkashin

et al. 2007

The Anatomical Record

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“…Several studies have shown that growth factors play a variety of roles during muscle regeneration (Gospodarowicz et al, 1976; Inselburg and Applebaum, 1978; Linkhart et al, 1981; Florini et al, 1986; Olson et al, 1986; Allen and Boxhorn, 1989; Jennische, 1989; Jin et al, 1990; Yablonka-Reuveni et al, 1990; Anderson et al, 1991; Grounds, 1991; Harrington et al, 1992; Doumit et al, 1993; McFarland et al, 1993; Barnard et al, 1994; Coleman et al, 1995; Johnson and Allen, 1995; Jones and Clemmons, 1995; Lefaucheur and Sebille, 1995; Zdanowicz et al, 1995; Chambers and McDermott, 1996; Engert et al, 1996; Florini et al, 1996; Papadakis et al, 1996; Quinn and Haugk, 1996; Floss et al, 1997; Kurek et al, 1997; Lamberts et al, 1997; Barton-Davis et al, 1998; Damon et al, 1998; Springer et al, 1998; Tatsumi et al, 1998; Keller et al, 1999; Gowdak et al, 2000; Sheehan et al, 2000; De Deyne et al, 2002; Musaro et al, 2004; Wieteska-Skrzeczynska et al, 2011a,b). Using a mouse model, Menetrey et al (2000) found that direct injections of insulin-like growth factor-1 (IGF-1), basic fibroblastic growth factor (bFGF), and, to a lesser extent, nerve growth factor (NGF), led to enhanced muscle healing in lacerated, contused, and strain-injured muscle at 2, 5, and 7 days after injury.…”

Section: Muscle Regenerationmentioning

confidence: 99%

Biological approaches to improve skeletal muscle healing after injury and disease

Gharaibeh

Chun-Lansinger

Hagen

et al. 2012

Birth Defects Research Pt C

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Skeletal muscle injury and repair are complex processes, including well‐coordinated steps of degeneration, inflammation, regeneration, and fibrosis. We have reviewed the recent literature including studies by our group that describe how to modulate the processes of skeletal muscle repair and regeneration. Antiinflammatory drugs that target cyclooxygenase‐2 were found to hamper the skeletal muscle repair process. Muscle regeneration phase can be aided by growth factors, including insulin‐like growth factor‐1 and nerve growth factor, but these factors are typically short‐lived, and thus more effective methods of delivery are needed. Skeletal muscle damage caused by traumatic injury or genetic diseases can benefit from cell therapy; however, the majority of transplanted muscle cells (myoblasts) are unable to survive the immune response and hypoxic conditions. Our group has isolated neonatal skeletal muscle derived stem cells (MDSCs) that appear to repair muscle tissue in a more effective manner than myoblasts, most likely due to their better resistance to oxidative stress. Enhancing antioxidant levels of MDSCs led to improved regenerative potential. It is becoming increasingly clear that stem cells tissue repair by direct differentiation and paracrine effects leading to neovascularization of injured site and chemoattraction of host cells. The factors invoked in paracrine action are still under investigation. Our group has found that angiotensin II receptor blocker (losartan) significantly reduces fibrotic tissue formation and improves repair of murine injured muscle. Based on these data, we have conducted a case study on two hamstring injury patients and found that losartan treatment was well tolerated and possibly improved recovery time. We believe this medication holds great promise to optimize muscle repair in humans. (Part C) 96:82–94, 2012. © 2012 Wiley Periodicals, Inc.

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“…Many reports have shown that growth factors play a variety of roles during muscle regeneration [Gospodarowicz et al, 1976;Linkhart et al, 1981;Florini et al, 1986;Olson et al, 1986;Allen and Boxhorn, 1989;Jennische, 1989;Jin et al, 1990;Yablonka-Reuveni et al, 1990;Anderson et al, 1991;Grounds, 1991;Harrington et al, 1992;Doumit et al, 1993;McFarland et al, 1993;Barnard et al, 1994;Coleman et al, 1995;Johnson and Allen, 1995;Jones and Clemmons, 1995;Lefaucheur and Sebille, 1995;Zdanowicz et al, 1995;Chambers and McDermott, 1996;Engert et al, 1996;Florini et al, 1996;Papadakis et al, 1996;Quinn and Haugk, 1996;Floss et al, 1997;Kurek et al, 1997;Lamberts et al, 1997;Barton-Davis et al, 1998;Damon et al, 1998;Springer et al, 1998;Tatsumi et al, 1998;Keller et al, 1999;Gowdak et al, 2000;Sheehan et al, 2000;De Deyne et al, 2002;Musaro et al, 2004]. Direct injections of insulin-like growth factor (IGF)-1, basic fibroblast growth factor (bFGF), and, to a lesser extent, nerve growth factor (NGF), were found to enhance skeletal muscle healing in several mouse muscle injury models …”

Section: Various Approaches Can Be Used To Improve Muscle Regenerationmentioning

confidence: 99%

Muscle Injuries and Repair: What's New on the Horizon!

Huard

Lü

et al. 2016

Cells Tissues Organs

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Although we recognize the many advantages of improved musculoskeletal health, we also note that our ability to sustain this health and to maintain quality of life in an aging population is currently deficient. However, global efforts have produced numerous advances in tissue engineering and regenerative medicine that will collectively serve to fill this deficiency in the near future. The purpose of this review is to highlight our current knowledge, to outline our recent advances, and to discuss the evolving paradigms in skeletal muscle injury and repair.

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The adaptation of soleus and edl in a rat model of distraction osteogenesis: IGF‐1 and fibrosis

Cited by 19 publications

References 35 publications

Changes in pennate muscle architecture after gradual tibial lengthening in goats

Changes in pennate muscle architecture after gradual tibial lengthening in goats

Biological approaches to improve skeletal muscle healing after injury and disease

Muscle Injuries and Repair: What's New on the Horizon!

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