The Effects of Bovine Colostrum in Bone Metabolism in Humans

Not Applicable

Completed

• Conditions: Osteoporosis; Osteopenia
• Interventions: Dietary Supplement: Colostrum supplementation for bone loss

• Registration Number: NCT04040010
• Lead Sponsor: Petros Dinas

Brief Summary

Osteoporosis constitutes a major public health concern. For instance, in European Union 1 in 3 women and at least 1 in 6 men will suffer an osteoporotic fracture during their lifespan. The burden of osteoporosis is estimated to raise 25% by 2025. Worldwide, by 2050, the incidence of osteoporotic fractures is expected to increase 240% in women and 310% in men compared to 1990. The aforementioned estimates might indicate the existence of some gaps related to current products on the market for prevention and treatment of osteoporosis. Actually, the use of the approved pharmacological agents for osteoporosis have been decreasing in European Union and worldwide. Patients are becoming increasingly reluctant to take medicines; even those with severe osteoporosis are refusing treatment. Recent published reports on the matter revealed that patients fear the side effects of current pharmacological agents. Actually, therapy with bisphosphonates, the most prescribed medication for the treatment of postmenopausal, glucocorticoid-induced and male osteoporosis has been associated with severe side effects as osteonecrosis of the jaw and atypical femoral fractures.

Colostrum, a milky substance produced by mammals, known to be responsible for the development of the immune and skeleton systems of the offspring, has on its constituent's lactoferrin (LF). This multi-functional protein has been shown to affect both bone resorbing and bone formation pathways. The safety and tolerance on the use of bovine colostrum in humans (children and adults) have been well documented; it has a 'Generally Recognized As Safe' status from the United States Food and Drug Administration. Allergies and lactose intolerance, which are main shortcomings of milk consumption, have not been reported in relation to colostrum. Actually, human colostrum and bovine colostrum share the same bioactive components, but bovine sources are more potent than that of human. In accordance, bovine colostrum supplementation has been used in several therapeutic applications as gastrointestinal disorders, allergies and autoimmune diseases, viral and bacterial illnesses, and HIV-associated immunomodulation HIV. However, the effectiveness of bovine colostrum (as a whole and not only LF) to reduce bone losses has not been considered yet. Therefore, this study aims at analyzing the effects of bovine colostrum in diminishing bone mass losses in humans.

Detailed Description

Postmenopausal women (without any bone condition), osteopenia and osteoporosis patients (female and male) will be invited to join the study. Participants enrolling the project will be first measured on the following parameters: 1) general characteristics (age, sex, medical history); 2) bone mass parameters through Dual-energy X-ray absorptiometry (DXA); 3) bone formation and resorption markers (alkaline phosphatase, osteocalcin, N-telopeptides and urine deoxypyridinoline). After measuring the aforementioned parameters, consenting participants will be randomized into the following groups: Group 1: postmenopausal women taking colostrum supplementation; Group 2: postmenopausal women taking placebo; Group 3: osteopenia patients taking colostrum supplementation; Group 4: osteopenia patients taking placebo; Group 5: osteoporosis patients taking colostrum supplementation; Group 6: osteoporosis patients taking placebo. Power calculations (90% power, 0.05%) were performed in order to calculate the sample size needed in each group (considering stratification according to group, a minimum of 7 participants in each group are needed). Following 5 months intervention, participants will be re-assessed on the following parameters: 1) general characteristics (age, sex, medical history); 2) bone mass parameters through Dual-energy X-ray absorptiometry (DXA); 3) bone formation and resorption markers (alkaline phosphatase, osteocalcin, N-telopeptides and urine deoxypyridinoline).

Study Timeline

• Study First Submitted: 2019-07-26
• Study First Submitted QC: 2019-07-30
• Study First Posted: 2019-07-31
• Study Start: 2019-09-01
• Primary Completion: 2020-02-29
• Study Completion: 2020-02-29
• Status Verified: 2020-11
• Last Update Submitted: 2020-11-05
• Last Update Posted: 2020-11-06

Recruitment & Eligibility

• Status: COMPLETED
• Sex: All
• Target Recruitment: 60

Inclusion Criteria

• Postmenopausal women (no menses for the last year at least);
• Osteoporosis patients (female): T-score<-2.5 at the femoral neck (or other anatomical site);
• Osteoporosis patients (male): T-score<-2.5 at the femoral neck (or other anatomical site)
• Osteopenia patients (female): T-score<-1.0 at the femoral neck (or other anatomical site);
• Osteopenia patients (male): T-score<-1.0 at the femoral neck (or other anatomical site)
• Patients taking drugs/ supplements for osteoporosis will be accepted in the study after going through a wash-up period

Exclusion Criteria

• Women with irregular menses (i.e. with no established menopause)
• Patients taking medications for other diseases known to interfere with bone metabolism
• Patients with other chronic diseases (e.g. diabetes)

Study & Design

• Study Type: INTERVENTIONAL
• Study Design: PARALLEL

Arm && Interventions

Group	Intervention	Description
Osteopenia patients colostrum supplement	Colostrum supplementation for bone loss	-
Osteoporosis patients colostrum supplement	Colostrum supplementation for bone loss	-
Postmenopausal women placebo	Colostrum supplementation for bone loss	-
Postmenopausal women colostrum supplement	Colostrum supplementation for bone loss	-
Osteopenia patients placebo	Colostrum supplementation for bone loss	-
Osteoporosis patients placebo	Colostrum supplementation for bone loss	-

Primary Outcome Measures

Name	Time	Method
Change of bone mineral content (gr)	Change from baseline of bone mineral content at five months	The bone mineral content (gr) will be analyzed via Dual-energy X-ray absorptiometry scan
Change of deoxypyridinoline (mmol/L)	Change from baseline of deoxypyridinoline at five months	The deoxypyridinoline (mmol/L) will be analyzed via human serum samples using an appropriate ELISA kit
Change of C-terminal telopeptide (CTX) (pg/mL)	Change from baseline of C-terminal telopeptide at five months	The C-terminal telopeptide (CTX) (pg/mL) will be analyzed via human serum samples using an appropriate ELISA kit
Change of alkaline phosphatase (μg/L)	Change from baseline of alkaline phosphatase at five months	The alkaline phosphatase (μg/L) will be analyzed via human serum samples using an appropriate ELISA kit
Change of osteocalcin (μg/L)	Change from baseline of osteocalcin at five months	The osteocalcin (μg/L) will be analyzed via human serum samples using an appropriate ELISA kit
Change of bone mineral density (g/cm2)	Change from baseline of bone mineral density at five months	The bone mineral density (g/cm2) will be analyzed via Dual-energy X-ray absorptiometry scan

Trial Locations

Locations (1)

FAME Lab, Department of Exercise Science, University of Thessaly; 🇬🇷 Tríkala, Thessaly, Greece