Taipei Medical University
Taipei, 110, Taiwan
NCT Number: NCT04951843
The present project is to identify the effect of black soy beans Koji product supplementation on nutrients absorption and anti-aging effect in elderly.
Looking for future studies?
Notify MeAll sexes
Interventional
Not applicable
Taipei, 110, Taiwan
Previous studies show that supplementation of soy protein can effectively increase muscle mass and protein utilization. Besides, soy extracts and isoflavones can stimulate muscle growth by activating the anabolic pathway of muscle tubules. Black soybean is known to be rich in legume protein and isoflavones.We speculate that black soybean supplementation can improve the nutritional status and muscle mass of elderly people, thereby delaying the deterioration of muscular dystrophy in the elderly. Reduce the occurrence of debilitation in the elderly.
Healthy volunteers accepted: Yes
Only the study team can determine whether someone qualifies for participation.
Inclusion criteria
Exclusion criteria
Black soybean koji product
Time frame: Change from baseline outcome measure at 10th week (post-test)
Measure Participants' detected body composition by using bioelectrical impedance analysis (BIA) as a non-invasive test instrument to measure body mass index (BMI).
Time frame: Change from baseline outcome measure at 10th week (post-test).
Measure Participants' detected body composition by using bioelectrical impedance analysis (BIA) as a non-invasive test instrument to measure fat mass.
Time frame: Change from baseline outcome measure at 10th week (post-test)
Measure Participants' detected body composition by using bioelectrical impedance analysis (BIA) as a non-invasive test instrument to measure whole body and appendicular skeletal muscle mass.
Time frame: Change from baseline outcome measure at 10th week (post-test)
Measure Participants' detected body composition by using bioelectrical impedance analysis (BIA) as a non-invasive test instrument to measure Visceral fat area(VFA) (cm2).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Measure Participants' detected body composition by using bioelectrical impedance analysis (BIA) as a non-invasive test instrument to measure Basal Metabolic Rate(BMR) (kcal)
.
Time frame: Change from baseline outcome measure at 10th week (post-test)
Measure Participants' detected body composition by using bioelectrical impedance analysis (BIA) as a non-invasive test instrument to measure Mineral (kg) in whole body.
.
Time frame: Change from baseline outcome measure at 10th week (post-test)
Measure Participants' detected body composition by using bioelectrical impedance analysis (BIA) as a non-invasive test instrument to measure Bone Mineral Content (kg).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Measure Participants' detected body composition by using bioelectrical impedance analysis (BIA) as a non-invasive test instrument to measure whole body Extracellular Water (L), Intracellular Water(L), and Total Body Water (L), et al.
.
Time frame: Change from baseline outcome measure at 10th week (post-test)
Using hand grips to measure hand grip strength.
Time frame: Change from baseline outcome measure at 10th week (post-test)
Measuring participants' speed to walk 5 ft.
Time frame: Change from baseline outcome measure at 10th week (post-test)
Total genome DNA from samples was extracted from stool samples using the CTAB/SDS method. One hundred ng of DNA was amplified with barcoded primers16S V3+V4: 314F-806R annealing to the V3-V4region of the 16S rRNA. All of the PCR reactions were carried out using a Phusion® High-Fidelity PCR Master Mix (New England Biolabs, Location). Samples with a bright main strip between 400 and 450bp were selected from 2% agarose gel for further experiments. Mixture PCR products were purified using a Qiagen Gel Extraction Kit (Qiagen, Germany). Libraries were generated with the TruSeq® DNA PCR-Free Sample Preparation Kit and quantified with Qubit and Q-PCR. The purified DNA was then sequenced using the HiSeq2500 PE250 (Company, Location).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Measurements of short-chain fatty acids in feces during the experiment by using gas chromatography.
Time frame: Change from baseline outcome measure at 10th week (post-test)
The inflammation-associated serum cytokines TNF-α was analyzed using colorimetric kits (Company, Location). Thioredoxin (Cloud-Clone Corp, SEA702Hu, City, State, USA) and Complement Component 5a (Cloud-Clone Corp, SEA388Hu) in the urine was evaluated for the effects of inflammation states and also assessed using colorimetric kits. The procedures followed the kit instructions and were measured using an ELISA reader (Bio Tek, PowerWave XS2, City, State, USA).
Time frame: Change from baseline outcome measure at 10th week (post-test)
The inflammation-associated serum cytokines IL-6 was analyzed using colorimetric kits (Company, Location). Thioredoxin (Cloud-Clone Corp, SEA702Hu, City, State, USA) and Complement Component 5a (Cloud-Clone Corp, SEA388Hu) in the urine was evaluated for the effects of inflammation states and also assessed using colorimetric kits. The procedures followed the kit instructions and were measured using an ELISA reader (Bio Tek, PowerWave XS2, City, State, USA).
Time frame: Change from baseline outcome measure at 10th week (post-test)
The inflammation-associated serum cytokines IL-1β (BioLegend, City, State, USA) was analyzed using colorimetric kits (Company, Location). Thioredoxin (Cloud-Clone Corp, SEA702Hu, City, State, USA) and Complement Component 5a (Cloud-Clone Corp, SEA388Hu) in the urine was evaluated for the effects of inflammation states and also assessed using colorimetric kits. The procedures followed the kit instructions and were measured using an ELISA reader (Bio Tek, PowerWave XS2, City, State, USA).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of red blood cells( M/ul)
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of Hemoglobin(g/dL).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of MCHC(g/dL)
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of albumin(g/dL).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of Hematocrit(%).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of RDW-CV(%).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of HbA1C(%).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of MCV(fL).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of MCH(pg).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of Platelets(k/uL).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of WBC(k/uL) .
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of AST(U/L).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of ALT(U/L).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of GGT(U/L).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of T-Cholesterol(mg/dL).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of triglyceride(mg/dL).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of BUN(mg/dL).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of Uric acid(mg/dL).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of HDL-C(mg/dL).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of LDL-C(mg/dL).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of hs-CRP(mg/dL).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of fasting blood glucose(mg/dL).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of creatinine(mg/dL).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of 【Free T4(ng/dL)】
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of 【hsTSH(ulU/dL)】
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of 【 HOMA-IR】
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of 【 insulin(uU/dL)】
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of 【eGFR (mL/min/1.73^2)】
Time frame: Change from baseline outcome measure at 10th week (post-test)
Use the Clinical Chemistry Analyzer to detection of Ca(mmol/dL).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Fasting for 8 hours, collecting 10ml urine. Routine urine analysis which includes specific gravity index (USG).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Fasting for 8 hours, collecting 10ml urine. Routine urine analysis which includes pH.
Time frame: Change from baseline outcome measure at 10th week (post-test)
Fasting for 8 hours, collecting 10ml urine. Routine urine analysis which includes Total protein (mg/dL).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Fasting for 8 hours, collecting 10ml urine. Routine urine analysis which includes glucose (-/+).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Fasting for 8 hours, collecting 10ml urine. Routine urine analysis which includes Urine Urea Nitrogen(-/+).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Fasting for 8 hours, collecting 10ml urine. Routine urine analysis which includes ketones(-/+).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Fasting for 8 hours, collecting 10ml urine. Routine urine analysis which includes Creatinine(mg/dL).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Fasting for 8 hours, collecting 10ml urine. Routine urine analysis which includes bilirubin (-/+).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Fasting for 8 hours, collecting 10ml urine. Routine urine analysis which includes Albumin(mg/L).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Fasting for 8 hours, collecting 10ml urine. Routine urine analysis which includes Albumin/Creatinine(mg/g).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Fasting for 8 hours, collecting 10ml urine. Routine urine analysis which includes Nitrite(-/+).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Fasting for 8 hours, collecting 10ml urine. Routine urine analysis which includes WBC esterase(-/+).
Time frame: Change from baseline outcome measure at 10th week (post-test)
Oxidative stress assessment to assess Superoxide dismutase (SOD) in serum was measured by the ELISA kit.
Time frame: Change from baseline outcome measure at 10th week (post-test)
Oxidative stress assessment to assess Glutathione peroxidase (GPx) in serum was measured by the ELISA kit..
Time frame: Change from baseline outcome measure at 10th week (post-test)
Oxidative stress assessment to assess Catalase in serum was measured by the ELISA kit..
Time frame: Change from baseline outcome measure at 10th week (post-test)
Measure participants' height. The height measurement method is to measure after you take off your shoes and step on the machine.
Time frame: Change from baseline outcome measure at 10th week (post-test)
Measure participants' body weight. The body weight measurement method is to measure after you take off your shoes and step on the weight machine.
Time frame: Change from baseline outcome measure at 10th week (post-test)
Measure participants' waist circumference. The waist measurement method is to use a tape measure to measure the waist circumference above the human hips.
Time frame: Change from baseline outcome measure at 10th week (post-test)
Measure participants' arm circumference. The measurement method of the arm circumference is the circumference of the upper arm and is measured at the mid-point between the tips of the shoulder and elbow. .
Time frame: Change from baseline outcome measure at 10th week (post-test)
Measure participants' calf circumference. The measurement method of the calf circumference should be the same as the shoulder width and place the tape measure at the thickest part of the calf with a horizontal line around it for measurement.
Time frame: Change from baseline outcome measure at 10th week (post-test)
Measure participants' hip circumference. The hip measurement method is to use a tape measure to measure the maximum hip diameter.
Time frame: Change from baseline outcome measure at 10th week (post-test)
Using Physical Activity Questionnaire to assess participants' activity level.
Time frame: Change from baseline outcome measure at 10th week (post-test)
The 24-hour diet recall method is conducted by interviewers who have received professional training in food serving size. Ask participants to recall all food and beverages actually consumed in the past 24 hours and record them in the questionnaire. Location, and the name, material, quantity and preparation method of food; among them, the estimation of the quantity can be assisted by using food weighing tools and food quantitative aids.
Time frame: Change from baseline outcome measure at 10th week (post-test)
Assess the number of bowel movements, bowel habits, bowel pattern, and flatulence
Time frame: Change from baseline outcome measure at 10th week (post-test)
This Mini nutrition assessment is a Indicator of nutrition status .The score range from 0-30,24 to 30 points represent Normal nutritional status, 17 to 23.5 points represent At the risk of malnutrition, less than 17 points represent Malnourished.
National Taiwan University Hospital
Other
The Effect of Black Soybeans Koji Product Supplementation on Nutrients Absorption and Anti-aging Effect in Elderly
Acronym: KPS
OpenTrials presents study information sourced from ClinicalTrials.gov. The official registry record should be consulted for the latest information.
View the official ClinicalTrials.gov record (opens in a new tab)This listing is for discovery and informational purposes only. It is not medical advice, does not guarantee that a study is recruiting, and does not determine eligibility. Contact the study team and a qualified healthcare professional when considering participation.
Published trials that share one or more normalized conditions with this study.
NCT07580144
Atrophy, Frailty
Konya, Turkey (Türkiye)
View Trial DetailsNCT06629805
Atrophy, Muscular Atrophy
Yangsan, South Korea
View Trial DetailsNCT07629063
Atrophy, Basal Ganglia Diseases
Istanbul, Turkey (Türkiye)
View Trial DetailsNCT07716839
Aging, Atrophy
Montes Claros, Minas Gerais, Brazil
View Trial Details