Probiotics can induce wound-healing, combat fatigue and improve athletic performance. These “good bacteria” are also beneficial in arthritis, they improve oral health, and combat aging, candida and cancer.
- Probiotic Four Part Series
- 37) Probiotics are Beneficial in Patients Receiving Hemodialysis
- 38) Probiotics Enhance Wound Healing
- 39) Probiotics Combat Toxins and Pollutants
- 40) Probiotics Reduce MSG
- 41) Probiotics May Increase Testosterone Levels
- 42) Probiotics May increase Oxytocin
- 43) Probiotics Combat Fatigue
- 44) Probiotics Enhance Muscle Recovery and Boost Athletic Performance
- 45) Probiotics Ameliorate Arthritis
- 46) Probiotics are Beneficial for Dental Health
- 47) Probiotics can Improve Lung Injury and Inflammation
- 48) Probiotics are Beneficial in Smokers
- 49) Probiotics are Good for the Bones
- 50) Probiotics Boost Female Fertility
- 51) Probiotics are Beneficial in Endometriosis
- 52) Probiotics are Beneficial in Pregnancy
- 53) Probiotics have a Positive Effect on Infant Growth
- 54) Probiotics Improve Feeding Tolerance
- 55) Probiotics are Beneficial in Aging
- 56) Probiotics can Alleviate Pain
- 57) Probiotics can be Beneficial After Surgery
- 58) Probiotics Combat Candida
- 59) Probiotics May Protect from Heat Stress
- 60) Probiotics May be Beneficial In HIV Infected Patients
- 61) Probiotics Combat and Prevent Cancer
- 62) Probiotics Could Reduce Toxins and Carcinogens in the Gut
- Buy Probiotics
- Further Reading
Probiotic Four Part Series
- Probiotic benefits 1-21 (Part 1)
- Probiotic benefits 22-26 (Part 2)
- Probiotic benefits 27-36 (Part 3)
- Probiotic benefits 37-61 (Part 4)
37) Probiotics are Beneficial in Patients Receiving Hemodialysis
38) Probiotics Enhance Wound Healing
Topical treatment with a water-insoluble glucan from S. cerevisiae enhanced venous ulcer healing in humans. In a patient who had an ulcer that would not heal for over 15 years, this treatment caused a 67.8% decrease in the area of the ulcer (R).
39) Probiotics Combat Toxins and Pollutants
Dietary exposure to heavy metals may have detrimental effects on human and animal health, even at low concentrations. L. rhamnosus, P. freudenreichii and their combination were found to bind cadmium and lead efficiently at low concentration ranges commonly observed in foods (R).
Treatment with L. plantarum alleviates copper toxicity, by increasing copper excretion and reducing the accumulation of copper in tissues. L. plantarum also reversed oxidative stress induced by copper exposure, recovered the ALT and AST blood levels and improved the spatial memory of mice (R).
L. casei decreases the cytotoxic effects of pesticides on human cells (R).
L. casei supplementation reduces the level of aflatoxin in blood, and can improve the adverse effect on body weight and blood parameters in rats (R,R). A fermented milk drink containing L. casei may reduce aflatoxin toxicity in humans (R).
L. paracasei reduced the adverse effects of Zearalenone (ZEN), an estrogenic toxin produced by Fusarium fungi species in pre- or post-harvest cereals in mice (R).
40) Probiotics Reduce MSG
L. brevis inhibits the absorption of MSG from the intestine into the blood in mice (R).
41) Probiotics May Increase Testosterone Levels
42) Probiotics May increase Oxytocin
43) Probiotics Combat Fatigue
44) Probiotics Enhance Muscle Recovery and Boost Athletic Performance
B. coagulans enhances protein absorption, and thereby indirectly improves recovery and training adaptations (R).
L. plantarum significantly decreased body weight and increased relative muscle weight, grip strength and endurance swimming time in mice (R).
45) Probiotics Ameliorate Arthritis
Adjunctive treatment with B. coagulans was safe and effective for patients suffering from rheumatoid arthritis. B. coagulans improved pain, improved self-assessed disability, reduced CRP levels, and improved the ability to walk 2 miles, reach, and participate in daily activities (R).
L. casei positively contributes to osteoarthritis treatment in rats, by reducing pain, inflammatory responses, and articular cartilage degradation. L. casei together with glucosamine decreased expression of various pro-inflammatory cytokines and matrix metalloproteinases, while up-regulating anti-inflammatory cytokines (R).
Similarly, L. casei effectively suppressed symptoms of rheumatoid arthritis in rats: paw swelling, lymphocyte infiltration and destruction of cartilage tissues. Anti-inflammatory cytokines were increased, while pro-inflammatory cytokines were decreased (R,R,R).
L. acidophilus decreases arthritis symptoms and maintains normal histology of reproductive organs in rats (R).
L. acidophilus showed effects comparable to the drug indomethacin, in decreasing organ damage associated with arthritis in rats. This probiotic down-regulated pro-inflammatory and up-regulated anti-inflammatory cytokines (R).
L. helveticus strongly alleviated symptoms of arthritis in mice (R).
46) Probiotics are Beneficial for Dental Health
Probiotics are beneficial for managing gingivitis or periodontitis (R).
L. rhamnosus reduces oral counts of Streptococcus mutans, a bacterium correlated with caries formation (R).
Long-term consumption of L. rhamnosus containing milk reduces caries development in children (R).
Heat-killed L. plantarum can decrease the depth of periodontal pockets in patients undergoing supportive periodontal therapy (R).
Oral administration of L. casei reduced the number of pathogenic (periodontopathic) bacteria in healthy volunteers with mild to moderate gum inflammation (periodontitis) (R).
L. salivarius beneficially changed the bacterial population of gum plaque in volunteers (R).
L. salivarius increases resistance to caries risk factors in volunteers (R).
L. brevis improves pH, significantly reduces salivary mutans streptococci and bleeding on probing in high caries risk schoolchildren (R).
L. brevis has anti-inflammatory effects and can bring about the total disappearance or amelioration of clinical symptoms in patients with periodontitis (R).
L. brevis exerts anti-inflammatory properties by preventing nitric oxide synthesis and may delay gingivitis development in humans (R).
B. subtilis reduces periodontal pathogens in humans (R).
Oral L. reuteri containing tablets significantly reduced inflammation in patients with chronic periodontitis (R).
L. brevis inhibits periodontal inflammation, significantly decreases bone loss and lowers the count of anaerobic bacteria in mice with periodontitis (R).
B. subtilis and Bacillus licheniformis supplementation provided a protective effect against bone loss in rats with periodontitis (R).
S. cerevisiae, as monotherapy or as an adjuvant, accelerated the tissue-repair process and ameliorated periodontitis in rats (R).
47) Probiotics can Improve Lung Injury and Inflammation
48) Probiotics are Beneficial in Smokers
In healthy shift workers, L. casei reduced the total number of clinical infectious diseases (CIDs) in the subgroup of smokers (R).
L. salivarius improved periodontal clinical parameters in smokers (R).
49) Probiotics are Good for the Bones
Administration of probiotics leads to higher bone mineralization and greater bone strength in animals. The preferential bacterial genus that has shown these beneficial effects in bone is Lactobacillus (R).
L. helveticus fermented milk whey contains bioactive components that increase bone formation (R).
B. longum supplementation alleviated bone loss, and increased bone formation parameters and bone mass density in ovariectomized rats (R).
50) Probiotics Boost Female Fertility
L. plantarum reinforced natural microflora and lead to a resurge of fertility in mice infected with E. coli (R).
51) Probiotics are Beneficial in Endometriosis
L. gasseri inhibits the growth of endometrial tissue in the abdominal cavity in mice and rats (R).
52) Probiotics are Beneficial in Pregnancy
Use of a specific set of probiotics during the first 1,500 days of life can lower the risk of infections and inflammatory events in infants (R).
L. rhamnosus affects the immune regulation and immune responses favorably in mothers and offspring. In addition, some of the beneficial effects of prenatal L. rhamnosus supplementation extend into postnatal life of the offspring, suggesting a possible immunoprogramming effect of L. rhamnosus (R).
The intake of milk fermented with L. casei during the lactation period modestly contributes to the modulation of the mother’s immunological response after delivery, and decreases the incidence of gastrointestinal episodes in the breastfed child (R).
B. animalis spp. lactis supplementation in pregnancy has the potential to influence fetal immune parameters as well as immunomodulatory factors in breast milk (R).
B. animalis ssp. lactis mitigates the negative immune-related effects of not breastfeeding and cesarean delivery by augmenting the immune response, evidenced by increased anti-rotavirus- and anti-poliovirus-specific IgA (R).
Oral administration of L. salivarius during late pregnancy appears to be an efficient method to prevent breast infection in pregnant women (R).
L. acidophilus, L. casei and B. bifidum significantly decreased fasting plasma glucose, insulin levels, and insulin resistance and increased insulin sensitivity in pregnant women with gestational diabetes mellitus. In addition, significant decreases in serum triglycerides and VLDL cholesterol concentrations were recorded (R).
B. coagulans containing symbiotic decreased blood insulin levels, HOMA-IR and HOMA-B in pregnant women (R).
Preeclampsia is associated with impaired antioxidant defense that results in maternofetal complications. S. cerevisiae scavenged nitric oxide radicals and decreased oxidative stress in red blood cells and alleviated stress status in the preeclamptic fetus (R).
Continuous consumption of fermented milk containing L. casei alleviates constipation-related symptoms, provides satisfactory bowel habit and results in earlier recovery from hemorrhoids in women after childbirth (R).
L. fermentum alleviates pain and reduces the load of Staphylococcus in the breastmilk of women suffering from painful breastfeeding (R).
53) Probiotics have a Positive Effect on Infant Growth
B. breve significantly decreased aspirated air volume and improved weight gain in very low birth weight infants (R).
L. plantarum strain maintained the growth of infant mice during chronic undernutrition (R).
54) Probiotics Improve Feeding Tolerance
Preterm infants supplemented with B. coagulans had improved feeding tolerance (R).
55) Probiotics are Beneficial in Aging
Levels of Bifidobacteria decrease as we age (R).
B. animalis spp. lactis can enhance natural immunity in healthy elderly subjects (R). B. animalis spp. lactis increases leukocyte phagocytic and NK cell tumor-cell-killing activity in the elderly and increases the proportions of total, helper (CD4(+)), and activated (CD25(+)) T lymphocytes and natural killer cells (R,R,R).
B. longum stimulates the immune functions in the elderly (R).
B. bifidum and L. acidophilus positively modulate of the immunological and inflammatory response in elderly subjects (R).
L. delbrueckii ssp. bulgaricus could favor the maintenance of an adequate immune response in the elderly, mainly by slowing the aging of the T-cell subpopulations and increasing the number of immature T cells which are potential responders to new antigens (R).
Feeding of probiotic bacteria (L. reuteri) to aged mice induced integumentary changes mimicking peak health and reproductive fitness characteristic of much younger animals (R).
L. lactis along with L. acidophilus or combined with L. acidophilus and B. bifidum reversed age related decline in immune functions and improve lymphocyte functions in ageing mice (R).
Dahi containing L. acidophilus was effective in reversing age-related immune function decline in mice (R), where this probiotic also combats oxidative stress and molecular alterations associated with aging (R).
L. fermentum alleviates immunosenescence by enhancing antioxidant enzyme activities, and was shown to reduce E. coli infection in aging mice (R).
L. johnsonii helps recover nutritional status and systemic immune responses in aged mice (R).
B. bifidum delays immunosenescence in mice by enhancing the anti-oxidation activity in thymus and spleen, and by improving the immune function (R).
Intake of heat-killed L. lactis altered the intestinal flora, affected plasma metabolite levels, including fatty acid levels, and slowed down age-related hearing loss in mice, by inhibiting the loss of neurons and hair cells in mouse inner ear (R).
56) Probiotics can Alleviate Pain
Oral administration of L. acidophilus induces the expression of mu-opioid and cannabinoid receptors in intestinal epithelial cells and mediates analgesic functions in the gut similar to the effects of morphine (R).
B. coagulans + fructooligosaccharide (FOS) decreased abdominal pain duration and frequency in children with GI disorders (R).
B. coagulans synbiotic seems to be effective in the treatment of childhood functional abdominal pain (R).
B. coagulans significantly improved abdominal pain and the quality of life in adults with postprandial intestinal gas-related symptoms and no GI diagnoses (R).
57) Probiotics can be Beneficial After Surgery
A symbiotic containing L. acidophilus, L. rhamnosus, L. casei, B. bifidum and fructooligosaccharides reduced postoperative mortality, lowered the incidence of postoperative infections, shortened the duration of antibiotic therapy, and decreased noninfectious complications, decreasing overall hospital stay in patients undergoing surgery for periampullary neoplasms (R).
58) Probiotics Combat Candida
Clinical trials have shown the beneficial effects of probiotics in reducing oral, vaginal, and enteric colonization by Candida. Probiotics alleviate clinical signs and symptoms, and, in some cases, reduce the incidence of invasive fungal infection in critically ill patients (R).
In patients with vulvovaginal candidiasis, L. plantarum reduces vaginal discomfort after conventional treatment, improves vaginal bacteria content and the vaginal pH value (R).
In a clinical trial L. plantarum use was associated with a three-fold reduced risk of recurrence of vulvovaginal candidiasis (R).
L. rhamnosus has been shown to prevent enteric colonization by Candida species in preterm neonates (R).
L. reuteri lozenges were shown to fight oral candida in a study of older patients (R).
S. cerevisiae, when administered orally, colonizes the bowel of healthy volunteers and can potentially replace resident Candida species (R).
See individual probiotic posts for more information and animal studies.
59) Probiotics May Protect from Heat Stress
Exposure to extreme heat can cause illnesses and injuries. B. subtilis was effective in the prevention of complications related to heat stress in rats. When rats were subjected to heat stress (45°C), adverse effects such as morphological changes in the intestine, bacterial translocation, elevated levels of LPS and IL-10, and increased vesiculation of erythrocytes were observed only in animals not protected with B. subtilis (R).
60) Probiotics May be Beneficial In HIV Infected Patients
61) Probiotics Combat and Prevent Cancer
Probiotic bacteria have shown anti-tumor activities, and can reduce the risk of cancer. They are effective in delaying cancer onset and progression as well as in controlling cell growth mechanisms (R).
Studies in Humans:
L. rhamnosus has been shown to decrease the incidence of colon tumors and precancerous lesions in experimental animals as well as in human cells (R), and possess antitumor effects in animal models of bladder cancer (R).
L. casei decreased cell migration and invasion of colorectal cancer cells (R,R), inhibited human and mouse colon cancer cell growth, and resulted in an 80% reduction in tumor volume of treated mice (R).
L. casei delayed and suppressed tumor growth in mice with breast cancer, both when it was administered preventively and as a treatment. L. casei further reduced tumor vascularity and lung metastasis, and prolonged survival (R,R,R).
Similarly, L. casei decreased breast tumor volume and tumor vascularity in rats (R).
L. delbrueckii ssp. bulgaricus inhibits intestinal carcinogenesis in rats, ear-duct tumors in rats, and tracheal carcinogenesis in hamsters (R). This probiotic was also reported to inhibit the growth of sarcoma (R), leukemia, plasmacytoma, adenocarcinoma, melanosarcoma, and spontaneous tumors in mice (R).
L. acidophilus suppressed colon tumor incidence, tumor multiplicity, and reduced tumor size in mice (R).
L. acidophilus reduced tumor volume growth by 50.3 %, reduced the severity of colonic carcinogenesis, and enhanced cancer cell death in mice (R).
Dietary B. longum significantly inhibited colon and liver and small intestinal tumors in male rats. In female rats, dietary supplementation also suppressed mammary carcinogenesis (R).
An antitumor molecule derived from L. brevis inhibits colon adenocarcinoma cell viability and the growth of these cells in mice (R).
Mice with fibrosarcoma, treated by S. thermophilus were protected against this tumor when re-challenged. Additionally, spleen T-lymphocytes from cured animals could effectively transfer the antitumor activity to recipients transplanted with the tumor (R).
P. freudenreichii is able to kill colon cancer cells in rats (R).
62) Probiotics Could Reduce Toxins and Carcinogens in the Gut
- Probiotic (Garden of Life) (AMZN) or Probiotics (Garden of Life) (IHERB)
- Probiotics (Swanson 65 billion) (AMZN)
- Probiotics (Now-100 billion)
- Probiotic (VSL-3)
- Probiotics (prescript assist) – great for IBS
- Probiotic (AOR) (AMZN) or Probiotic AOR (IHERB)
- Probiotic – Saccharomyces Boulardii (AMZN) or S Boulardii (IHERB)
- Lactobacillus rhamnosus GG (AMZN) or L. rhamnosus GG (IHERB)
For technical information, check individual probiotic chapters:
- B. animalis (B. lactis)
- B. bifidum
- B. breve
- B. coagulans (L. sporogenes)
- B longum
- B. subtilis
- C. butyricum
- L. acidophilus
- L. brevis
- L. casei
- L. crispatus
- L. delbrueckii (L. bulgaricus, L. lactis)
- L. gasseri
- L. helveticus
- L. johnsonii
- L. lactis
- L. paracasei
- L. plantarum
- L. reuteri
- L. rhamnosus
- L. salivarius
- P. freudenreichii
- S. boulardii
- S. cerevisiae
- S. thermophilus