Evaluating Stem Cells As A Treatment Option For Kidney Disease

Evaluating Stem Cells As A Treatment Option For Kidney Disease

Current estimates indicate that kidney disease currently affects over 37 million US adults and over 10% of the global population[1]. Characterized by gradual loss of function, kidney disease generally progresses over time and culminates in the inability to remove waste and excess fluid from the blood[2].  

Often demonstrating little to no symptoms in its early stages, chronic kidney disease tends to demonstrate increasing and dangerous symptoms as the condition advances.

To date, treatment for chronic kidney disease has been centered around causal control as a way of slowing the progression of the condition. However, these therapeutic treatment efforts, including multidrug therapy, have demonstrated an inability to reverse the condition from progressing to end-stage renal disease (ESRD) and requiring additional therapy, dialysis, or kidney transplantation. 

Considering the high cost and disruption to normal life function associated with dialysis and the severe shortage of viable kidney donors, neither dialysis nor transplant has proven to be ideal or often recommended treatment strategies. As a result, there has been renewed interest in new and more effective therapeutic options to alleviate, cure, or prevent kidney disease and to improve a patient’s survival and quality of life.

Evaluating the numerous and growing therapeutic applications associated with stem cells’ ability for self-renewal, proliferation, and differentiation, Liu et al.’s review explores the potential benefits offered toward improving renal function and supporting structural repair in those afflicted with kidney disease.

Despite the promising benefits of using stem cells to kidney repair and disease treatment demonstrated through prior preclinical study, the authors point out that certain ethical issues regarding the origin of stem cells, and specifically embryonic stem cells (ESCs) need to be addressed and overcome before clinical application of SCs.

Regardless of the stated drawbacks, Liu et. al concludes that the existing evidence demonstrates that stem cell therapy appears to be a clinically viable alternative for kidney disease, specifically for restoring normal kidney function and for progressing understanding about tissue regeneration, drug screening, and disease modeling.   

Although stem cells demonstrate promise in this regard and while the immunomodulatory properties of mesenchymal stem cells (MSCs) appear to make them the most promising SC for treating kidney disease, the authors also point out that further research is needed before definitively concluding which source of SC is best suited for this application.

As a result of this review, and in an effort to realize these findings into clinical applications in the future, the authors call for larger rigorously designed clinical trials to further assist in determining the clinical efficacy of SC therapy in kidney disease – including the appropriate selection of cell types, number of SCs required, and the appropriate route of administration.

Source: “Stem cells: a potential treatment option for kidney diseases.” 25 Jun. 2020, https://stemcellres.biomedcentral.com/articles/10.1186/s13287-020-01751-2.


[1] “Chronic Kidney Disease Basics – CDC.” https://www.cdc.gov/kidneydisease/basics.html.

[2] “Chronic kidney disease – Symptoms and causes – Mayo Clinic.” 3 Sep. 2021, https://www.mayoclinic.org/diseases-conditions/chronic-kidney-disease/symptoms-causes/syc-20354521.

The Effects of Mesenchymal Stem Cell-Derived Secretome in Parkinson’s Disease

The Effects of Mesenchymal Stem Cell-Derived Secretome in Parkinson’s Disease

Parkinson’s disease (PD) is a debilitating neurodegenerative disorder that currently affects nearly 6 million people worldwide and is currently the second most common neurological condition, behind only Alzheimer’s.

Although the exact cause of PD remains unclear, the condition is characterized by the gradual loss of nerve cells in the brain responsible for producing the neurotransmitter dopamine[1].    While no cure for PD currently exists, current therapeutic treatment approaches focus on improving quality of life but are not able to prevent or slow the progression of the disease.

Recent research has demonstrated positive effects of mesenchymal stem cell (MSC) transplantation that has been associated with secromes; noted beneficial effects include providing a self-regulated regenerative response that limits the area of lesions. Additionally, these MSC-derived secretomes compose soluble factors and encapsulated extravesicles (EV).  These EVs have been found to have a significant impact on physiological processes, including cell-to-cell communication.

Considering MSCs are readily available and easily isolated from a number of sources, including adipose tissue, umbilical cord Wharton’s Jelly, bone marrow, and dental pulp, these stem cells are thought to hold potential as a therapeutic approach to managing PD.

As part of this review, d’Angelo et al. highlight a number of studies demonstrating the potential of MSCs in improving a number of conditions and symptoms consistent with those demonstrated in PD. In these studies, animal models demonstrate improved motor behaviors and correction of functional impairment after transplantation of MSCs. 

The authors point out that further research exploring cell-free, therapeutic, personalized approaches for the different neurodegenerative diseases, including PD, is needed. 

d’Angelo et al. also note that, while MSC-derived secretomes have shown positive effects on neuronal cell survival, differentiation, and proliferation, further studies are needed to fully understand all of the bioactive molecules. 

Since MSC-derived secretomes are able to stimulate neurotrophic and neuronal survival pathways and appear to counteract neuronal death, they could potentially be a beneficial tool in future management and prevention efforts for a number of neurodegenerative conditions, including Parkinson’s disease, Alzheimer’s disease, and stroke.

Source:(2020, July 23). Insights into the Effects of Mesenchymal Stem Cell-Derived … – NCBI. Retrieved from https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7432166/


[1] “Parkinsonfoundation.org -.” https://parkinsonfoundation.org/. Accessed 5 Oct. 2021.

What Supplements May Help Support Mesenchymal Stem Cell Health?

What Supplements May Help Support Mesenchymal Stem Cell Health?

Mesenchymal stem cells are critical in many types of innovative and healing therapies. Regenerative medicine, also known as stem cell therapy, can help manage condition symptoms and progression. Conditions can be an autoimmune disease or joint injuries

Because of this, certain supplements may help support the health of mesenchymal stem cells in the body. Encouraging healthy stem cells can help potentially improve the outcomes of stem cell therapies for injuries and other conditions.

Useful Supplements

Many different supplements are likely to support the health of mesenchymal stem cells. More research is needed on the direct effect of these supplements on mesenchymal stem cells specifically.

Still, there is plenty of scientific research to support the idea that certain supplements boost tissue growth. This tissue growth includes the development of mesenchymal stem cells.

Chondroitin/Glucosamine: Typically, these supplements are used to treat the symptoms of arthritis. They are usually harvested using shellfish. 

Glucosamine promotes the growth of cartilage, which entails the development of mesenchymal stem cells. Also, some laboratory trials have shown that these supplements can encourage the longevity of stem cells.

Turmeric: This spice is often used in Indian cuisine. It also has anti-inflammatory properties. In part, turmeric’s effectiveness is related to the presence of curcumin. This chemical compound decreases inflammation and supports general health. 

Some research has suggested that patients with Alzheimer’s disease can see improvements by taking turmeric supplements. Curcumin is believed to support and protect mesenchymal stem cells, as well.

How Do Supplements Support Mesenchymal Stem Cell Growth?

Not all supplement brands are created equally. Be sure to read ingredient lists carefully before purchasing supplements. 

Further research is needed to explore how and what supplements can potentially help mesenchymal stem cells, but there is no current information to show that these supplements could not help promote the growth of mesenchymal stem cells.

Examining the Beneficial Effects of Autologous Mesenchymal Stem Cell Transplantation in Active Progressive Multiple Sclerosis

Examining the Beneficial Effects of Autologous Mesenchymal Stem Cell Transplantation in Active Progressive Multiple Sclerosis

Typically understood to support hematopoiesis and to produce the cells of the mesodermal lineage, mesenchymal stem cells (MSCs) found in bone marrow, fat, and other tissues of the body, have recently been found to contain additional properties that include immunomodulator and neurotrophic effects.

Considering earlier studies that have demonstrated favorable effects of MSC treatments in a variety of conditions – including stroke, multiple sclerosis, multi-system atrophy, and amyotrophic lateral sclerosis, Petrou et al. performed this double-blind study as a way to evaluate the best way of administration and the safety and clinical efficacy of MSC transplantation –  specifically in patients with active and progressive multiple sclerosis. 

The response of the 48 patients with progressive multiple sclerosis and with displaying evidence of either clinical worsening or activity during the previous year in this study were evaluated after being treated intrathecally (IT) or intravenously (IV) with autologous MSCs or with sham injections. Having identified a critical and unmet need for treatment, the goal of Petrou et al.’s study was to examine the therapeutic efficacy of MSC transplantation in this specific population.

Over the course of this controlled clinical trial, participants were randomly assigned to three treatment groups and treated (either intrathecally or intravenously) with autologous MSCs or with sham injections. At the 6-month mark, the authors of this study retreated half of the patients in both the MSC-IT and MSC-IV groups with MSCs, while the remaining participants were treated with sham injections. The same process occurred with patients initially treated with sham injections; meaning that at the 6-month mark, half were either treated with MSC-IT or MSC-IV.

Prior to the start of this study, Petrou et al. established a number of primary and secondary endpoints. Predetermined primary endpoints of this study included: the safety of the MSC-IV and MSC-IT treatments and the difference among the three groups in relation to performance on the Expanded Disability Status Scale (EDSS) at 6- and 12-month intervals.  Predetermined secondary endpoints included the difference between the sham-treated and MSC-IT or MSC-IV treated group in the number of relapses and the relapse rate, the number of MRI gadolinium-enhancing lesions, the annualized rate of change in the T2 lesion load on MRI, percent brain volume change, performance on a series of physical and cognitive functions, and the retinal nerve fiber layer thickness.

At the conclusion of this 14-month trial, the authors reported that the study demonstrated positive results in all predetermined primary endpoints. More specifically, throughout the course of this study, the authors discovered that significantly fewer patients experienced treatment failure in the MSC0IT and MSC-IV groups compared with those in the sham-treated group.  Additionally, over the course of the following year, nearly 59% and 41% of patients treated with MSC-IT and MSC-IV exhibited no evidence of multiple sclerosis activity;  this is compared with less than 10%  of patients in the sham-treated group.

Significant improvements of those receiving MSC-IT treatment (compared to sham treatment) were also observed in the following: ambulation index, the sum of functional scores, 25-foot timed walk test, 9-hole peg tests, PASAT and OWAT/KAVE cognitive tests, and newer biomarkers, including retinal nerve fiber layer and motor network. The authors also report beneficial, but less significant effects were observed in the MSC-IV groups. 

Although the authors report a number of limitations associated with this study, including a small number of patients in each group, the short duration of the study, and the crossover design of the study (which could have resulted in a “carry-over” effect from the first cycle of treatment), they also conclude that the clinically significant findings observed in patients with progressive multiple sclerosis who were previously unresponsive to traditional or conventional therapies provide clear evidence of short-term efficacy and possible indications of neuroprotection induced by administration of autologous MSCs in patients with progressive multiple sclerosis. 

In addition, the authors found that intrathecal administration of MSCs appears more beneficial than intravenous, as well as the potential benefits provided by receiving repeated injections of MSCs.

As such, Petrou et al. conclude by calling for a larger phase III study to confirm these findings and as a way to further evaluate the therapeutic potential of autologous MSCs in neuroinflammatory and neurodegenerative diseases, including active progressive multiple sclerosis.

Source:  (2020, December 1). Beneficial effects of autologous mesenchymal stem cell … – PubMed. from https://pubmed.ncbi.nlm.nih.gov/33253391/

Use of Stem Cells to Treat Perianal Crohn’s Disease

Use of Stem Cells to Treat Perianal Crohn’s Disease

Crohn’s disease, a form of chronic inflammatory bowel disease, affects an estimated 700,000 people in the United States, affecting men and women equally. While the disease is characterized by abnormal inflammation in the gastrointestinal and digestive tracts, some people with the illness develop perianal Crohn’s disease. In this case, the inflammation extends to areas around the anus. The precise proportion of Crohn’s disease patients who develop perianal Crohn’s disease is debated, but the need for better treatments for the condition is not. A new and unique treatment is the use of stem cells to treat Perianal Crohn’s Disease.

Unfortunately, though there are several drug and surgical interventions that have been developed to treat perianal Crohn’s disease, each of the available treatment options suffers critical limitations, including risks for adverse side effects.  There is no available therapeutic approach that successfully achieves long-term remission.

Based on the need for – and lack of – more efficacious interventions for perianal Crohn’s disease and the ability of cell-based therapies to address similar types of disease, researchers have positioned that stem cell therapy may be a promising avenue for the relevant patient population. A recent review published in the Journal of Crohn’s and Colitis covers the research that has been conducted to address this possibility and the data that suggest that mesenchymal stem cells could provide a safe and effective way to treat perianal Crohn’s disease without the unwanted side effects associated with conventional treatment options.

In this review, the authors cover clinical trials on cell-based therapies for perianal Crohn’s disease, including phase 1, phase 2, and phase 3 randomized controlled trials. The authors consider the differences in outcomes between conventional treatments and cell-based therapies and offer suggestions for the direction of research into the use of stem cells for the treatment of perianal Crohn’s disease.

 

 

Reference: Lightner, A.L. & Faubion, W.A. (2017). Mesenchymal stem cell injections for the treatment of perianal Crohn’s disease: What we have accomplished and what we still need to. Journal of Crohn’s and Colitis, 11(10), 1267-1276.

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