CDC's Second Nutrition Report
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Does Dietary Fiber Affect the Levels of Nutritional Components After Feed Formulation?
fibers Article Does Dietary Fiber Affect the Levels of Nutritional Components after Feed Formulation? Seidu Adams 1 ID , Cornelius Tlotliso Sello 2, Gui-Xin Qin 1,3,4, Dongsheng Che 1,3,4,* and Rui Han 1,3,4 1 College of Animal Science and Technology, Jilin Agricultural University, Changchun 130118, China; [email protected] (S.A.); [email protected] (G.-X.Q.); [email protected] (R.H.) 2 College of Animal Science and Technology, Department of Animal Genetics, Breeding and Reproduction, Jilin Agricultural University, Changchun 130118, China; [email protected] 3 Key Laboratory of Animal Production, Product Quality and Security, Jilin Agricultural University, Ministry of Education, Changchun 130118, China 4 Jilin Provincial Key Laboratory of Animal Nutrition and Feed Science, Jilin Agricultural University, Changchun 130118, China * Correspondence: [email protected]; Tel.: +86-136-4431-9554 Received: 12 January 2018; Accepted: 25 April 2018; Published: 7 May 2018 Abstract: Studies on dietary fiber and nutrient bioavailability have gained an increasing interest in both human and animal nutrition. Questions are increasingly being asked regarding the faith of nutrient components such as proteins, minerals, vitamins, and lipids after feed formulation. The aim of this review is to evaluate the evidence with the perspective of fiber usage in feed formulation. The consumption of dietary fiber may affect the absorption of nutrients in different ways. The physicochemical factors of dietary fiber, such as fermentation, bulking ability, binding ability, viscosity and gel formation, water-holding capacity and solubility affect nutrient absorption. The dietary fiber intake influences the different methods in which nutrients are absorbed. -
Polymorphisms in Folic Acid Metabolism Genes Do Not Associate with Cancer Cachexia in Japanese Gastrointestinal Patients
ORIGINAL PAPER Nagoya J. Med. Sci. 80. 529–539, 2018 doi:10.18999/nagjms.80.4.529 Polymorphisms in folic acid metabolism genes do not associate with cancer cachexia in Japanese gastrointestinal patients Takuto Morishita1, Asahi Hishida1, Yoshinaga Okugawa2,3,6, Yuuki Morimoto2, Yumiko Shirai4, Kyoko Okamoto5, Sachiko Momokita6, Aki Ogawa5, Koji Tanaka2,7, Ryutaro Nishikawa2, Yuji Toiyama7, Yasuhiro Inoue7, Hiroyuki Sakurai8, Hisashi Urata2, Motoyoshi Tanaka3, and Chikao Miki2,7 1Department of Preventive Medicine, Nagoya University Graduate School of Medicine, Nagoya, Japan 2Departments of Surgery, Iga City General Hospital, Iga, Japan 3Departments of Medical Oncology, Iga City General Hospital, Iga, Japan 4Departments of Nutrition, Iga City General Hospital, Iga, Japan 5Departments of Nursing, Iga City General Hospital, Iga, Japan 6Departments of Biochemical Laboratory, Iga City General Hospital, Iga, Japan 7Department of Gastrointestinal and Pediatric Surgery, Division of Reparative Medicine, Institute of Life Sciences, Mie University Graduate School of Medicine, Tsu, Japan 8Department of Hepatobiliary Pancreatic and Transplant Surgery, Mie University Graduate School of Medicine, Tsu, Japan. ABSTRACT We used clinical data from Iga General Hospital to examine the association between polymorphisms in MTR (methionine synthase) A2756G (rs1805087), MTRR (methionine synthase reductase) His595Tyr (rs10380), MTHFR (methylenetetrahydrofolate reductase) C677T (rs1801133), MTHFR A1298C (rs1801131) and SHMT (serine hydroxymethyltransferase) C1420T (rs1979277), which are genes involved in folate metabolism, and the risk of weight loss in patients with gastrointestinal cancers, with the aim of establishing personalized palliative care for each patient based on genetic information. The data from 59 patients (37 males and 22 females) with gastrointestinal cancers who visited the outpatient clinic for cancer chemotherapy and palliative care at Iga General Hospital from December 2011 to August 2015 were analyzed. -
Scurvy Due to Selective Diet in a Seemingly Healthy 4-Year-Old Boy Andrew Nastro, MD,A,G,H Natalie Rosenwasser, MD,A,B Steven P
Scurvy Due to Selective Diet in a Seemingly Healthy 4-Year-Old Boy Andrew Nastro, MD,a,g,h Natalie Rosenwasser, MD,a,b Steven P. Daniels, MD,c Jessie Magnani, MD,a,d Yoshimi Endo, MD,e Elisa Hampton, MD,a Nancy Pan, MD,a,b Arzu Kovanlikaya, MDf Scurvy is a rare disease in developed nations. In the field of pediatrics, it abstract primarily is seen in children with developmental and behavioral issues, fDivision of Pediatric Radiology and aDepartments of malabsorptive processes, or diseases involving dysphagia. We present the Pediatrics and cRadiology, NewYork-Presbyterian/Weill Cornell Medical Center, New York, New York; bDivision of case of an otherwise developmentally appropriate 4-year-old boy who Pediatric Rheumatology and eDepartment of Radiology, developed scurvy after gradual self-restriction of his diet. He initially Hospital for Special Surgery, New York, New York; and d presented with a limp and a rash and was subsequently found to have anemia Division of Neonatal-Perinatal Medicine, University of Michigan, Ann Arbor, Michigan gDepartment of Pediatrics, and hematuria. A serum vitamin C level was undetectable, and after review of NYU School of Medicine, New York, New York hDepartment of the MRI of his lower extremities, the clinical findings supported a diagnosis of Pediatrics, Bellevue Hospital Center, New York, New York scurvy. Although scurvy is rare in developed nations, this diagnosis should be Dr Nastro helped conceptualize the case report, considered in a patient with the clinical constellation of lower-extremity pain contributed to writing the introduction, initial presentation, hospital course, and discussion, and or arthralgias, a nonblanching rash, easy bleeding or bruising, fatigue, and developed the laboratory tables while he was anemia. -
Macronutrients and Human Health for the 21St Century
nutrients Editorial Macronutrients and Human Health for the 21st Century Bernard J. Venn Department of Human Nutrition, University of Otago, Dunedin 9054, New Zealand; [email protected] Received: 30 July 2020; Accepted: 4 August 2020; Published: 7 August 2020 Abstract: Fat, protein and carbohydrate are essential macronutrients. Various organisations have made recommendations as to the energy contribution that each of these components makes to our overall diet. The extent of food refining and the ability of food systems to support future populations may also impact on how macronutrients contribute to our diet. In this Special Issue, we are calling for manuscripts from all disciplines to provide a broad-ranging discussion on macronutrients and health from personal, public and planetary perspectives. Keywords: macronutrient; fat; protein; carbohydrate; acceptable macronutrient distribution range; starch; sustainability The macronutrients, fat, protein and carbohydrate provide energy and essential components to sustain life. Fat is composed of glycerol and fatty acids; protein is an agglomeration of amino acids; and carbohydrate is simple sugars occurring either as monosaccharides or chains of connected monosaccharides (e.g., starch) whose bonds are either hydrolysed in the human small intestine to monosaccharides or are resistant to hydrolysis (dietary fibre). To maintain longevity and health, a combination of these macronutrients is required in our diet. It is elusive as to whether there is a combination of macronutrients that provides optimal health. When expressed as a percentage of energy to the diet, human populations have historically survived on diets with greatly differing proportions of these macronutrients. For example, the animal-based diet of an Alaskan Inuit group was found to comprise 33% protein, 41% fat and 26% carbohydrate [1]. -
Nutrition 102 – Class 3
Nutrition 102 – Class 3 Angel Woolever, RD, CD 1 Nutrition 102 “Introduction to Human Nutrition” second edition Edited by Michael J. Gibney, Susan A. Lanham-New, Aedin Cassidy, and Hester H. Vorster May be purchased online but is not required for the class. 2 Technical Difficulties Contact: Erin Deichman 574.753.1706 [email protected] 3 Questions You may raise your hand and type your question. All questions will be answered at the end of the webinar to save time. 4 Review from Last Week Vitamins E, K, and C What it is Source Function Requirement Absorption Deficiency Toxicity Non-essential compounds Bioflavonoids: Carnitine, Choline, Inositol, Taurine, and Ubiquinone Phytoceuticals 5 Priorities for Today’s Session B Vitamins What they are Source Function Requirement Absorption Deficiency Toxicity 6 7 What Is Vitamin B1 First B Vitamin to be discovered 8 Vitamin B1 Sources Pork – rich source Potatoes Whole-grain cereals Meat Fish 9 Functions of Vitamin B1 Converts carbohydrates into glucose for energy metabolism Strengthens immune system Improves body’s ability to withstand stressful conditions 10 Thiamine Requirements Groups: RDA (mg/day): Infants 0.4 Children 0.7-1.2 Males 1.5 Females 1 Pregnancy 2 Lactation 2 11 Thiamine Absorption Absorbed in the duodenum and proximal jejunum Alcoholics are especially susceptible to thiamine deficiency Excreted in urine, diuresis, and sweat Little storage of thiamine in the body 12 Barriers to Thiamine Absorption Lost into cooking water Unstable to light Exposure to sunlight Destroyed -
Case Study 54 Year Old Female with DEPRESSION
Case Study 54 year old female with DEPRESSION Patient was initially seen in June of 2008. She had been suffering from depression for the past 5 years. Her psychiatrist had tried various anti-depressant medications, including Zoloft and Lexapro. At the time of her initial consultation, she was taking Prozac which provided mild relief of her depression. In addition to this, she had been taking Prempro for 3 years. Interestingly, her homocysteine levels were 18.2 umol/L. She had been taking a once-a-day multivitamin and a calcium citrate/vitamin D supplement. She was 20 pounds overweight. Her appetite was described as “too good”. She also has had a long history of poor sleep. SpectraCell’s MicroNutrient testing revealed functional deficiencies of folic acid, vitamin b6, vitamin d, selenium and serine. However, the whole family of B vitamins was at the lowest end of normal. Based upon these deficiencies, she was administered the following daily nutritional supplement protocol. 1) B-complex weighted with extra B6 (250 mg). This contained 800 mcg of folic acid 2) 1000 IU of vitamin D3. This was in addition to her calcium/vitamin D supplement which provided 400 IU per day 3) 200 mcg of selenium 4) 100 mg of PHOSPHATIDYLSERINE TID In addition, she was instructed to consume foods high in these nutrients. She was also instructed to receive 15 minutes of direct sunlight each morning. Follow up SpectraCell’s MicroNutrient testing was performed six months later. All deficiencies were resolved except for vitamin D, which was improved but not fully resolved. -
Guidelines on Food Fortification with Micronutrients
GUIDELINES ON FOOD FORTIFICATION FORTIFICATION FOOD ON GUIDELINES Interest in micronutrient malnutrition has increased greatly over the last few MICRONUTRIENTS WITH years. One of the main reasons is the realization that micronutrient malnutrition contributes substantially to the global burden of disease. Furthermore, although micronutrient malnutrition is more frequent and severe in the developing world and among disadvantaged populations, it also represents a public health problem in some industrialized countries. Measures to correct micronutrient deficiencies aim at ensuring consumption of a balanced diet that is adequate in every nutrient. Unfortunately, this is far from being achieved everywhere since it requires universal access to adequate food and appropriate dietary habits. Food fortification has the dual advantage of being able to deliver nutrients to large segments of the population without requiring radical changes in food consumption patterns. Drawing on several recent high quality publications and programme experience on the subject, information on food fortification has been critically analysed and then translated into scientifically sound guidelines for application in the field. The main purpose of these guidelines is to assist countries in the design and implementation of appropriate food fortification programmes. They are intended to be a resource for governments and agencies that are currently implementing or considering food fortification, and a source of information for scientists, technologists and the food industry. The guidelines are written from a nutrition and public health perspective, to provide practical guidance on how food fortification should be implemented, monitored and evaluated. They are primarily intended for nutrition-related public health programme managers, but should also be useful to all those working to control micronutrient malnutrition, including the food industry. -
The Science and Scope of Nutrition
The Science and Scope 1 of Nutrition LEARNING OBJECTIVES Define the scope and science of nutrition ( Infographic 1.1 ) Explain the connection between nutrition and chronic disease ( Infographic 1.2 ) Define and identify the major macronutrients and micronutrients ( Infographic 1.3 and Infographic 1.4 ) Summarize the purpose of the Dietary Reference Intake (DRI) values ( Infographic 1.5 ) Distinguish between the different types of DRI values and what each represents ( Infographic 1.6 and Infographic 1.7 ) Understand/explain the basis of the scientific method and how it is CHAPTER used in nutrition research ( Infographic 1.8 ) Describe three types of experimental design and the primary advantages of each ( Infographic 1.9 ) Describe reliable sources of nutrition information ( Infographic 1.10 ) t was the final months of World War II, and the Dutch people were starving. As a last-ditch effort to hold on to the Netherlands, the Germans had blocked the transport of food SPL/Science Source SPL/Science Ifrom the Netherlands eastern rural areas to its west- Exploring the ern cities. As a result, people were eating only a few hundred calories per day, typically a couple of small Science of slices of bread and potatoes. Some people used paper to thicken soup. This period, now known as the Dutch Hunger Winter, lasted from October 1944 Nutrition until the Netherlands was liberated in May 1945. 1 Copyright © W. H. Freeman and Company. Distributed by W. H. Freeman and Company strictly for use with its products. Not for redistribution. 02_POP_14867_ch01_001_023.indd 1 10/30/18 10:27 AM 1 THE SCIENCE AND SCOPE OF NUTRITION Thirty years later, a husband and wife it appeared as if a woman’s diet during preg- team of scientists at Columbia University nancy could have a strong influence on the decided to investigate whether these extreme weight of her child. -
Vitamin and Mineral Requirements in Human Nutrition
P000i-00xx 3/12/05 8:54 PM Page i Vitamin and mineral requirements in human nutrition Second edition VITPR 3/12/05 16:50 Page ii WHO Library Cataloguing-in-Publication Data Joint FAO/WHO Expert Consultation on Human Vitamin and Mineral Requirements (1998 : Bangkok, Thailand). Vitamin and mineral requirements in human nutrition : report of a joint FAO/WHO expert consultation, Bangkok, Thailand, 21–30 September 1998. 1.Vitamins — standards 2.Micronutrients — standards 3.Trace elements — standards 4.Deficiency diseases — diet therapy 5.Nutritional requirements I.Title. ISBN 92 4 154612 3 (LC/NLM Classification: QU 145) © World Health Organization and Food and Agriculture Organization of the United Nations 2004 All rights reserved. Publications of the World Health Organization can be obtained from Market- ing and Dissemination, World Health Organization, 20 Avenue Appia, 1211 Geneva 27, Switzerland (tel: +41 22 791 2476; fax: +41 22 791 4857; e-mail: [email protected]). Requests for permis- sion to reproduce or translate WHO publications — whether for sale or for noncommercial distri- bution — should be addressed to Publications, at the above address (fax: +41 22 791 4806; e-mail: [email protected]), or to Chief, Publishing and Multimedia Service, Information Division, Food and Agriculture Organization of the United Nations, 00100 Rome, Italy. The designations employed and the presentation of the material in this publication do not imply the expression of any opinion whatsoever on the part of the World Health Organization and the Food and Agriculture Organization of the United Nations concerning the legal status of any country, territory, city or area or of its authorities, or concerning the delimitation of its frontiers or boundaries. -
The Nutrition Contribution of Dietary Supplements on Total Nutrient Intake in Children and Adolescents
European Journal of Clinical Nutrition (2016) 70, 257–261 © 2016 Macmillan Publishers Limited All rights reserved 0954-3007/16 www.nature.com/ejcn ORIGINAL ARTICLE The nutrition contribution of dietary supplements on total nutrient intake in children and adolescents M Kang1, DW Kim2, H Lee3,YJLee3, HJ Jung1, H-Y Paik1,3 and YJ Song4 BACKGROUND/OBJECTIVES: The use of dietary supplements (DSs) by children and adolescents is increasing. The aim of this study was to identify the characteristics of DS users and examine the nutritional contributions of DSs to total nutrient intakes in children and adolescents, using data obtained from a national survey. SUBJECTS/METHODS: In total, 3134 subjects aged 9–18 years who participated in the 4th Korea National Health and Nutrition Examination Survey (2007–2009) were selected; the survey included 24-h recall questions on food intake and questions on DS use over the past year. Nutrient intakes from DSs were calculated using the aid of a label-based database on such supplements, and individual total nutrient intakes were derived by combining information on the foods and DSs consumed by each subject. RESULTS: There were 895 DS users (28.5%), 85.2% of whom (n = 577) had complete DS nutrient information and were therefore defined as identified-DS users. Identified-DS users were slightly younger and had a greater household income and better nutritional knowledge than did non-users. The most frequently consumed type of supplement was a ‘multivitamin and minerals’ complex. For total nutrient intake, identified-DS users had a significantly higher intake of most of the nutrients, except for macronutrient and sodium than non-users. -
Dietary Interventions for Potassium Management
Serum Potassium, Potassium Intake & Outcomes in Health and Disease: Dietary Interventions for Potassium KDIGOManagement Mahew R. Weir, MD Professor and Chief Division of Nephrology University of Maryland School of Medicine DISCLOSURE SLIDE Scienfic Advisor: Janssen, Astra, BI, MSD, Akebia, Relypsa, Boston Scienfic, Lexicon, Bayer, Vifor Grant Funding: NIDDK: U01DK116095, R01DK 066013, and U01DK106102, NHLBI: KDIGO R01HL127422, R01HL132732 KDIGO HAZARD RATIOS OF ALL-CAUSE FOR PREDIALYSIS SERUM K CATEGORIES IN 21,013 INCIDENT MHD PATIENTS OBSERVED FOR UP TO 3 YR KDIGO Kovesdy, CP. et al. CJASN September 2007, 2 (5) 999-1007 OVERVIEW • Potassium homeostasis: Renal and non-renal mechanisms • Potassium intake and blood pressure in non-CKD paents • Potassium intake in advanced CKD: what is known, and unknown and clinical implicaons • Conclusions KDIGO SERUM POTASSIUM HOMEOSTASIS AND REGULATION Total0 body potassium: + ~98 % intracellular Increased K intake ~2 % extracellular Reduced K+ excretion K+ movement out of cells Normal serum potassium Increased serum potassium Reduction of Release of Release of Release of serum potassium KDIGOcatecholamines insulin aldosterone K+ excretion: Increased cellular uptake ~90 % renal ~10 % GI (colon) Increased renal excretion Brown RS. Am J Med. 1984;77(5A):3-10 NON-RENAL DETERMINANTS OF POTASSIUM EXCRETION • Circadian rhythm effect on renal funcon • Posture: can influence urine flow rate and sodium excreon • GI absorpon and secreon • Hepac influence of potassium homeostasis KDIGO NORMAL POTASSIUM BALANCE AND RENAL -
Vitamins a and E and Carotenoids
Fat-Soluble Vitamins & Micronutrients: Vitamins A and E and Carotenoids Vitamins A (retinol) and E (tocopherol) and the carotenoids are fat-soluble micronutrients that are found in many foods, including some vegetables, fruits, meats, and animal products. Fish-liver oils, liver, egg yolks, butter, and cream are known for their higher content of vitamin A. Nuts and seeds are particularly rich sources of vitamin E (Thomas 2006). At least 700 carotenoids—fat-soluble red and yellow pigments—are found in nature (Britton 2004). Americans consume 40–50 of these carotenoids, primarily in fruits and vegetables (Khachik 1992), and smaller amounts in poultry products, including egg yolks, and in seafoods (Boylston 2007). Six major carotenoids are found in human serum: alpha-carotene, beta-carotene, beta-cryptoxanthin, lutein, trans-lycopene, and zeaxanthin. Major carotene sources are orange-colored fruits and vegetables such as carrots, pumpkins, and mangos. Lutein and zeaxanthin are also found in dark green leafy vegetables, where any orange coloring is overshadowed by chlorophyll. Trans-Lycopene is obtained primarily from tomato and tomato products. For information on the carotenoid content of U.S. foods, see the 1998 carotenoid database created by the U.S. Department of Agriculture and the Nutrition Coordinating Center at the University of Minnesota (http://www.nal.usda.gov/fnic/foodcomp/Data/car98/car98.html). Vitamin A, found in foods that come from animal sources, is called preformed vitamin A. Some carotenoids found in colorful fruits and vegetables are called provitamin A; they are metabolized in the body to vitamin A. Among the carotenoids, beta-carotene, a retinol dimer, has the most significant provitamin A activity.