Evaluation of Feeding Glucogenic, Lipogenic and their Mixture Diets on Performance, Ruminal Fermentation, Blood Metabolites and Preferences in Holstein Suckling Calves

Document Type : Ruminant Nutrition

Authors

• Saeed Seidali Doolatabad ¹
• Mohsen Sari ¹
• Gholamreza Ghorbanei kharage ²

¹ Department, Agricultural Sciences and Natural Resources University of Khuzestan, Ahvaz, Iran.

² Department of Animal Science, Faculty of Agriculture, Isfahan University of Technology, Isfahan, Iran.

10.22067/ijasr.v12i4.82328

Abstract

Introduction[1] Ingestion of solid feed is necessary to stimulate rumen development in the young calf and facilitate the transition from a pre-ruminant to a functioning ruminant. Lipogenic nutrients in ruminants originate from fermentation of fiber to acetate and butyrate, dietary fat or are derived from body reserves. Glucogenic nutrients originate from starch that has escaped rumen degradation or gluconeogenesis. The use of low-starch starters is prevalent in dairy calf industry worldwide. These starters differ greatly in their composition of both fiber and fat. The NRC (2001) suggested that adequate digestible fiber should be included in starter diets but limited data exist to substantiate this statement. Digestible fiber sources such as sugar beet pulp, soybean hulls, and wheat bran have a lower ME value than corn and barley grains which are starch rich. A meta-analysis of 6 studies showed positive linear relationships between starch concentration of starter feed with ADG. However meta-regression analysis indicated that growth responses to starch concentration were influenced by ME concentration in dry feed fed to the calves. One possible way to enhance energy intake is to increase the energy density of the diet with fat. Convenient starter diets are typically low in fat. Most previous studies have either compared high-starch to high-fiber starter diets or investigated effects of fat supplementation on rumen environment and growth performance whereas our interest is in growth responses to diets differing in starch, NDF, and fat in calves. We hypothesize that a low-starch starter feed in which starch is substituted by fiber and fat will support growth performance similar to a traditional high-starch starter concentrate and high-fiber, high-fat diet might also improve ruminal environment in calves. We also hypothesized that preference for certain type of starter would become apparent, providing an indication of which type of energy sources may be considered more palatable for calves and therefore recommended to formulate starter feed mixture. The objectives of our study was to investigate the effects of lipogenic starter (low-starch with high-fiber and high-fat content) in comparison with a glucogenic (high-starch) or mixture of glucogenic and lipogenic starters on growth performance, ruminal fermentation, as well as blood metabolites of dairy calves during the first 70 d of life.
Materials and Methods In first experiment, thirty Holstein female calves (4 d of age; 41.0 ± 4.0 kg of BW), randomly assigned by BW to one of the three dietary treatments. Treatments consisted of (1) a high starch starter feed containing corn and barley grain (glucogenic); (2) a high fiber and fat starter feed containing soybean hulls, corn germ meal, sugar beet pulp, wheat bran, full fat soybean, and vegetable oil (lipogenic); and (3) a starter feed containing mixture of diets 1 and 2 (MIX). Starter intakes were measured daily and all the calves were weighed at birth and subsequently every 7 d until the end of the experiment. Feed efficiency was calculated as the weight gain to feed intake ratio (kg/kg). In addition, the structural growth indices were measured on d 4, at weaning and at the end of the study. Blood samples from each calf were collected at 35 and 70 d to determine glucose, BUN, and β-hydroxybutyrate. Ruminal fluid was obtained 2 h after offering the morning feed at 35 and 70 d to determine the rumen pH and concentration of volatile fatty acids. Data were analyzed as a completely randomized design using a repeated-measures mixed model (PROC MIXED) of SAS software. In second experiment, 20 Holstein female calves fed a standard ration until 70 days of age. Three days after weaning, each calf was involved in a pairwise preference test between glucogenic and lipogenic diets. For each calf in each pairwise preference test, preference ratio was calculated as the consumption of one feed as a percentage of the consumption of both feeds in the test. Preference ratios were compared for a difference from 0.5 (lack of preference) using t-tests. The feed type was assigned +1 if it was preferred, −1 if it was not preferred, and 0 if the preference ratio in a pairwise preference test did not differ from 0.5. Total preference scores were used as an indicator of overall preference rank of individual feed type.
Results and Discussion Results of the first experiment showed that dry matter intake was higher in the MIX diet group in the post weaning period than the other groups and a tendency to increase dry matter intake was observed throughout the study period. Average daily gain, feed efficiency, body weight, and skeletal growth were not different between treatments. Blood glucose (day 35 and 70) and plasma β-hydroxybutyric acid concentration (day 70) were higher in calves fed the glucogenic and lipogenic diet, respectively, compared to the other treatments. Rumen fluid pH and acetate concentration in calves fed the lipogenic diet were higher than those fed the glucogenic and MIX diets. The second experiment showed that calves preferred the lipogenic diet over the glucogenic diet.
Conclusion The results from this study showed that providing MIX diet rather than glucogenic and lipogenic diets increased post weaning intakes of starter without improving ADG and final BW. The results of the preference test clearly indicate that lipogenic diet is a highly palatable feed for recently weaned dairy calves, whereas glucogenic diet is less preferred. Given the positive trend observed in MIX feed diet, this diet seems to be recommendable for farm application. Whether the effects of energy source in early life could have long-term consequences on growth and milk yield are not known and warrant further research.




 

Keywords

• Energy sources
• Growth performance
• Starch concentration
• Starter feed

20.1001.1.20083106.1399.12.4.4.7

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References

1-       Araujo, R. C., A. V. Pires, I. Susin, C. Q. Mendes, G. H. Rodrigues, I. U. Packer, and M. L. Eastridge. 2008. Milk yield, milk composition, eating behavior, and lamb performance of ewes fed diets containing soybean hulls replacing coastcross hay. Journal of Animal Science, 86(12):3511-3521.

2-       Allen, M. S. 2000. Effects of diet on short-term regulation of feed intake by lactating dairy cattle. Journal of dairy science, 83(7):1598-1624.

3-       AOAC International. 2002. Official Methods of Analysis, 16^th ed. Association of Official Analytical Chemists, Arlington, VA, USA.

4-       Baldwin, R. L., K. R. McLeod, J. L. Klotz, and R. N. Heitmann. 2004. Rumen development, intestinal growth and hepatic metabolism in the pre- and post-weaning ruminant. Journal of Dairy Science, 87:55–65.

5-       Beiranvand, H., G. R. Ghorbani, M. Khorvash, and M. KazemiBonchenari. 2014a. Forage and sugar in dairy calves starter diet and their interaction on performance, weaning age and rumen fermentation. Journal of Animal Physiology and Animal Nutrition, 98(3):439–445.

6-       Beiranvand, H., G. R. Ghorbani, M. Khorvash, A. Nabipour, M. Dehghan-Banadaky, A. Homayouni, and S. Kargar. 2014b. Interactions of alfalfa hay and sodium propionate on dairy calf performance and rumen development. Journal of Dairy Science, 97(4):2270–2280.

7-       Beiranvand, H., M. Khorvash, G. R. Ghorbani, A. Homayouni, L. Bachmann, and S. Kargar. 2014c. Evaluation of ketogenic vs. glucogenic substrates as energy sources in starter diets for Holstein dairy calves. Canadian Journal of Animal Science, 94(4):717–723.

8-       Danesh Mesgaran, M., A. M. Tahmasbi, and A. R. Vakili. 2008. Digestion and Metabolism in Ruminant. Ferdowsi University of Mashhad press. 203–204 (In Persian).

9-       Drackley, J. K. 2008. Calf nutrition from birth to breeding. Veterinary Clinics of North America: Food Animal Practice, 24(1):55–86.

10-   Dym, C. L., W. H. Wood, and M. J. Scott. 2002. Rank ordering engineering designs: Pairwise comparison charts and borda counts. Research in Engineering Design, 13(4):236–242.

11-   Ferreira, L. S., and C. M. Bittar. 2011. Performance and plasma metabolites of dairy calves fed starter containing sodium butyrate, calcium propionate or sodium monensin. Animal, 5(2):239-245.

12-   Ghasemi, E., M. Azad-Shahraki, and M. Khorvash. 2017. Effect of different fat supplements on performance of dairy calves during cold season. Journal of Dairy Science, 100(7):5319–5328.

13-   Ginane, C., R. Baumont, and A. Favreau-Peigné. 2011. Perception and hedonic value of basic tastes in domestic ruminants. Physiology Behavior, 104(5):666–674.

14-   Govil, K., D. S. Yadav, A. K. Patil, S. Nayak, R. P. S. Baghel, P. K. Yadav, C. D. Malapure, and D. Thakur. 2017. Feeding management for early rumen development in calves. Journal of Entomology and Zoology Studies, 5(3):1132-1139.

15-   Hill, S. R., B. A. Hopkins, S. Davidson, S. M. Bolt, D. E. Diaz, C. Brownie, T. Brown, G. B. Huntington, and L. W. Whitlow. 2009. The addition of cottonseed hulls to the starter and supplementation of live yeast or mannan oligosaccharide in the milk for young calves. Journal of Dairy Science, 92(2):790–798.

16-   Hill, T. M., H. G. Bateman, J. M. Aldrich, and R. L. Schlotterbeck. 2009. Effects of changing the essential and functional fatty acid intake of dairy calves. Journal of Dairy Science, 92(2):670–676.

17-   Hill, T. M., H. G. Bateman, J. M. Aldrich, and R. L. Schlotterbeck. 2008. Effect of feeding different carbohydrate sources and amounts to young calves. Journal of Dairy Science, 91(8):3128–3137.

18-   Hill, T. M., H. G. Bateman, J. M. Aldrich, J. D. Quigley, and R. L. Schlotterbeck. 2015. Inclusion of tallow and soybean oil to calf starters fed to dairy calves from birth to four months of age on calf performance and digestion. Journal of dairy science, 98(7):4882-4888.

19-   Hu, W., T. M. Hill, T. S. Dennis, F. X. Suarez-Mena, J. D. Quigley, J. R. Knapp, and R. L. Schlotterbeck. 2018. Relationships between starch concentration of dry feed, diet digestibility, and growth of dairy calves up to 16 weeks of age. Journal of Dairy Science, 101(8):7073-7081.

20-   Iwersen, M., U. Falkenberg, R. Voigtsberger, D. Forderung, and W. Heuwieser. 2009. Evaluation of an electronic cowside test to detect subclinical ketosis in dairy cows. Journal of Dairy Science, 92(6):2618–2624.

21-   Khan, M. A., H. J. Lee, W. S. Lee, H. S. Kim, S. B. Kim, K. S. Ki, S. J. Park, J. K. Ha, and Y. J. Choi. 2007. Starch Source Evaluation in Calf Starter: I. Feed Consumption, Body Weight Gain, Structural Growth, and Blood Metabolites in Holstein Calves. Journal of Dairy Science, 90(11):5259–5268.

22-   Khan, M. A., D. M. Weary, and M. A. G. von Keyserlingk. 2011. Hay intake improves performance and rumen development of calves fed higher quantities of milk. Journal of Dairy Science, 94(7):3547–3553.

23-   Kosiorowska, A., L. Puggaard, M. S. Hedemann, J. Sehested, J. S. K. Jensen, N. B. Kristensen, P. Kuropka, K. Marycz, and M. Vestergaard. 2011. Gastrointestinal development of dairy calves fed low- or high-starch concentrate at two milk allowances. Animal, 5(2):211–219.

24-   Kuehn, C. S., D. E. Otterby, J. G. Linn, W. G. Olson, H. Chester-Jones, G. D. Marx, and J. A. Barmore. 1994. The effect of dietary energy concentration on calf performance. Journal of Dairy Science, 77(9):2621-2629.

25-   Montoro, C., F. Boe, I. R. Ipharraguerre, and A. Bach. 2012. Development of a method to evaluate oro-sensory preferences in weaned calves. Livestock Science, 150(1-3):374–380.

26-   Montoro, C., and A. Bach. 2012. Voluntary selection of starter feed ingredients offered separately to nursing calves. Livestock science, 149(1-2):62-69.

27-   National Research Council. 2001. Nutrient Requirements of Dairy Cattle. 7th rev. ed. Natl. Acad. Press, Washington, DC.

28-   Palmquist, D. L. 1994. The role of dietary fats in efficiency of ruminants. Journal of Nutrition, 124(8Suppl):1377-1382.

29-   Robertson, J. B., and P. J. Van Soest. 1981. The detergent system of analysis and its application to human foods. In: W. P. T. James, and O. Theander (Eds.), The Analysis of Dietary Fibre in Food. Chapter 9, Marcel Dekker, New York, USA, PP. 123–158.

30-   Terré, M., E. Pedrals, A. Dalmau, and A. Bach. 2013. What do preweaned and weaned calves need in the diet: A high fiber content or a forage source? Journal of dairy science, 96(8):5217-25.

31-   Thomas, D. B., and C. E. Hinks. 1982. The effect of changing the physical form of roughage on the performance of the early-weaned calf. Animal Production, 35(3):375–384.

32-   Vakili, A. R., A. Mortezaee, and M. Danesh Mesgaran. 2014. Effect of dietary energy source on ruminal fermentation, venous blood gases and various blood metabolites of Baluchi sheep. Annual Research and Review in Biology, 4(2):451–459.

Van Soest, P. J., J. B. Robertson, and B. A. Lewis. 1991. Methods for dietary fiber, neutral detergent fiber, and nonstarch polysaccharides in relation to animal nutrition. Journal of Dairy Science, 74(10):3583–3597.