Actovegin reduces the ROS level in blood samples of heart failure patients and diminishes necrosis of SK-N-SH human neuroblastoma cells

Actovegin in the management of patients after ischemic stroke: A systematic review

BACKGROUND

Actovegin is a hemodialysate of calf's blood and has been used for several decades in the countries of Central Asia, East Asia, Russia and some European countries. It has been used to treat patients with various neurological conditions, vascular disorders, and ischemic stroke.

OBJECTIVES

To perform a systematic review to evaluate the effect of Actovegin in patients who have suffered an ischemic stroke.

METHODS

A search of MEDLINE, PubMed, Cochrane and Embase was carried out from inception to October 10, 2021 for clinical trials and observational studies with a control group, published in English or Russian.

RESULTS

Of 220 identified unique records, 84 full-text articles were screened, and 5 studies were selected that met the inclusion criteria. This included 4 observational studies with control groups and one randomized, placebo-controlled clinical trial. These studies enrolled a total of 3879 patients of which 720 patients received Actovegin administered intravenously and/or orally for a duration ranging from 10 to 180 days. Because of study heterogeneity, meta-analysis was not performed. No consistent evidence on improved survival, quality of life, neurologic symptoms, activities of daily living or disability was identified. One study showed statistically significant improvements in the Alzheimer's Disease Assessment Scale, cognitive subscale, extended version (ADAS-cog+) for Actovegin compared with placebo at 6 months but the clinical relevance of this change is uncertain. One study reported a higher incidence of recurrent ischemic stroke, transient ischemic attack or intracerebral hemorrhage in patients taking Actovegin compared to placebo.

CONCLUSIONS

The benefits of Actovegin are uncertain and that there is potential risk of harm in patients with stroke. More evidence is needed from rigorously designed clinical trials to justify the role of Actovegin in patients with ischemic stroke.

Intramuscular Injection of Combined Calf Blood Compound (CFC) and Homeopathic Drug Tr14 Accelerates Muscle Regeneration In Vivo

Skeletal muscle injuries in competitive sports cause lengthy absences of athletes from tournaments. This is of tremendous competitive and economic relevance for both the athletes and their respective clubs. Therapy for structural muscle lesions aims to promote regeneration and fast-track return-to-play. A common clinical treatment strategy for muscle injuries is the intramuscular injection of calf blood compound and the homeopathic drug, Tr14. Although the combination of these two agents was reported to reduce recovery time, the regulatory mechanism whereby this occurs remains unknown. In this in vivo study, we selected a rat model of mechanical muscle injury to investigate the effect of this combination therapy on muscle regeneration. Gene expression analysis and histological images revealed that this combined intramuscular injection for muscle lesions can enhance the expression of pro-myogenic genes and proteins and accelerate muscle regeneration. These findings are novel and depict the positive effects of calf blood compound and the homeopathic drug, Tr14, which are utilized in the field of Sports medicine.

Update on the Role of Actovegin in Musculoskeletal Medicine: A Review of the Past 10 Years

BACKGROUND

Actovegin is a biological drug with a controversial history of use in the treatment of sports injuries during the past 60 years. Particular concerns have been raised about its ergogenic potential to enhance performance, but some of these have been based on little more than anecdote.

OBJECTIVES

In this article, we review the most recent scientific evidence to determine the clinical efficacy, safety profile, and legal status of Actovegin.

METHODS

We considered all studies directly commenting on experience with Actovegin use as the primary intervention within the past 10 years. Outcomes included mechanisms of action, clinical efficacy in enhancing muscle repair, any report of safety issues, and any evidence for ergogenic effect.

RESULTS

Our database search returned 212 articles, abstracts were screened, and after inclusion/exclusion criteria were applied, 25 articles were considered: Publications included 11 primary research articles (7 in vitro studies and 4 clinical trials), 8 review articles, 5 editorials, and a single case report.

CONCLUSIONS

Current literature is still yet to define the active compound(s) of Actovegin, but suggests that it shows antioxidant and antiapoptotic properties, and may also upregulate macrophage responses central to muscle repair. Clinical efficacy was supported by one new original research article, and the use of Actovegin to treat muscle injuries remains safe and supported. Two articles argued the ergogenic effect of Actovegin, but in vitro findings did not to translate to the outcomes of a clinical trial. An adequate and meaningful scientific approach remains difficult in a field where there is immense pressure to deliver cutting-edge therapies.

Multimodal approach to treatment of neurological complications of chronic brain ischemia

Aim. The study of Actovegin effectin clinical presentations and hemorheological characteristics in patients with chronic cerebrovascular pathology (CCVP) and mild cognitive impairment. Materials and methods. The study group included 47 patients (25 male and 22 female), aged 61-75 years (mean age 63.8±5.4) with CCVP who were treated with Actovegin. The control group comprised 28 patients matched by gender and age, without associated cerebrovascular pathology. All patients along with thorough neurological examination underwent laboratory analyses (platelet and erythrocyte rheology), neurovisualization studies (functional magnetic resonance imaging of the brain). Depending on the dosage all patients were divided in two groups: Actovegin 1000 mg and 160 mg daily. Results and discussion. Overall, with Actovegin treatment in 81% of cases positive dynamics both in subjective symptoms, and somatic status was observed. A favorable effect on cognitive function in patients with CCVP was noted. The dose-dependent drug effect was demonstrated. The effect of Actovegin on blood cell functioning included the formation of smaller (Tf and Ts; p=0.0096 and p=0.016) and less solid (γ dis) erythrocyte aggregates (p=0.0034) both in the study and control group. The increase in erythrocyte deformability during therapy was significantly associated with cognitive improvement (via MoCA test, r=0.28). Conclusion. Complex (including neuropsychological and neurovisualizational) examination may not only help determine the cognitive status in patients with CCVP, but also assess the efficacy of neurometabolic therapy. New facts of Actovegin’s influence on erythrocyte aggregation and deformability have been identified, which may enhance micro - and macrocirculation. The acquired data may prove the wide spectrum of Actovegin’s pharmacological effect, which allows to use it in all forms of cerebrovascular pathology.

Improved heart failure by Rhein lysinate is associated with p38MAPK pathway

The present study aimed to explore the role of Rhein lysinate (RHL) in neonatal rat ventricular myocytes (NRVMs) and congestive heart failure induced by co-arctation of the abdominal aorta. Male Sprague-Dawley rats were divided into 3 groups randomly: co-arctation of abdominal aorta group (A group, n=10), sham operation group (SH group, n=10) and RHL treatment rats (A+RHL group, n=10). To establish an in vitro oxidative stressed cardiomyocyte model, NRVMs were treated with 10 µM H₂O₂ for 24 h. MTT assay indicated that H₂O₂ treatment reduced primary cardiomyocyte viability in a time- and dose- dependent manner, whereas RHL abolished the detrimental effects of H₂O₂, indicating a protective role of RHL. Further study demonstrated that H₂O₂-induced reactive oxygen species (ROS) production was reversed by RHL. Then, TUNEL staining was carried out and the results revealed that H₂O₂ markedly enhanced primary cardiomyocyte apoptosis. Conversely, RHL incubation decreased H₂O₂-induced cell apoptosis, indicating the protective role of RHL in primary cardiomyocytes. Furthermore, abnormal p38 activation was identified in the failed heart. Notably, treatment with RHL reduced p38 activation. In addition, RHL significantly enhanced the expression of anti-apoptotic protein, B cell lymphoma (Bcl)-2, however markedly reduced the protein level of Bcl-2 associated X, apoptosis regulator in primary cardiomyocytes, indicating its anti-apoptotic role in the cardiac setting. Overall, RHL protects heart failure primarily by reducing ROS production and cardiomyocyte apoptosis via suppressing p38 mitogen activated protein kinase activation.