This document summarizes a study on the effect of partially replacing concentrate mixture with sprouted wheat and maize fodder on milk yield and quality in lactating cows. Nine crossbred cows were divided into three groups fed different levels of replacement: Group A received 25% replacement, Group B received 37.5% replacement, and Group C received the control diet. Milk yield increased the most (15.37%) for Group A in Phase 2 with 37.5% replacement. Milk fat, protein and total solids also increased more for Groups A and B compared to the control Group C across phases. The study concluded that partially replacing concentrate mixture with hydroponic wheat and maize fodder up to 37.5%
Effect of carbohydrate source and cottonseed meal levelon Feed intake, rumen...Faisal A. Alshamiry
conducted to investigate the effects of locally available carbohydrate sources and cotton-seed meal levels on voluntary feed intake, rumen fermentation, and milk production in lactating dairy cows.
Dual-purpose crop developments, fodder trading and feed processing options fo...ILRI
Invited lead paper presented by M. Blümmel, S.A. Tarawali, N. Teufel and I.A. Wright at the International Dairy Conference 2010 held at Bangladesh Agricultural University, Mymensingh, Bangladesh, April 3-4, 2010
Exogenous carbohydrases such as xylanases, amylases, and glucanases have been reported to improve energy utilization and performance of broiler chickens (Olukosi et al., 2008; Vieira et al., 2015). These enzymes may improve the access of endogenous enzymes to cell contents due to hydrolysis of cell wall arabinoxylans (Kocher et al., 2003) as well as to augment endogenous amylase in young birds (Gracia et al., 2003). Decreases in endogenous amino acid losses may also contribute to the beneficial effects of amylases (Jiang et al., 2008).
Effect of carbohydrate source and cottonseed meal levelon Feed intake, rumen...Faisal A. Alshamiry
conducted to investigate the effects of locally available carbohydrate sources and cotton-seed meal levels on voluntary feed intake, rumen fermentation, and milk production in lactating dairy cows.
Dual-purpose crop developments, fodder trading and feed processing options fo...ILRI
Invited lead paper presented by M. Blümmel, S.A. Tarawali, N. Teufel and I.A. Wright at the International Dairy Conference 2010 held at Bangladesh Agricultural University, Mymensingh, Bangladesh, April 3-4, 2010
Exogenous carbohydrases such as xylanases, amylases, and glucanases have been reported to improve energy utilization and performance of broiler chickens (Olukosi et al., 2008; Vieira et al., 2015). These enzymes may improve the access of endogenous enzymes to cell contents due to hydrolysis of cell wall arabinoxylans (Kocher et al., 2003) as well as to augment endogenous amylase in young birds (Gracia et al., 2003). Decreases in endogenous amino acid losses may also contribute to the beneficial effects of amylases (Jiang et al., 2008).
Knowledge of amino acid (AA) digestibility of feed ingredients is necessary to feed broilers with
properly balanced compound diets. For this reason, more attention has recently been given to the
determination of AA digestibility of ingredients, recognizing that it may vary greatly depending
upon the feed ingredient. The effects of the inclusion of a mono-component serine protease
(Ronozyme® ProAct) on standardized ileal amino acid digestibility (SIAAD) of diets containing wheat
by-products (wheat DDGS (WDDGS) and wheat middlings (WM)) were evaluated in broilers.
- Improvement of SIAAD in the presence of protease is not the same for all AA and varies from one ingredient to another one. The effects of added protease are dependent on feed composition and on intrinsic digestibility of AA (COWIESON and ROOS (2014)).
- Factors such as type and quality of the ingredients, industrial processing and the presence of anti-nutritional substances such as tannins, phytates, trypsin inhibitors in plant species modulate the digestibility in poultry feed and thus the effectiveness of exogenous protease.
-The physiological state of animals (growth or maintenance), feed consumption or the nutritional feed quality could also influence the digestibility values.
Effect of Temperature on Methane Production from Field-Scale Anaerobic Digest...LPE Learning Center
Full proceedings at: http://www.extension.org/72729 Anaerobic digestion is a process that results in the production of biogas that can be used a renewable source of electricity on-farm or sold to the distribution grid. Temperature is a critical parameter for anaerobic digestion since it influences both system heat requirements and methane production. Although anaerobic digestion can take place under psychrophilic (15-25°C), mesophilic (35-40°C), and thermophilic (50-60°C) conditions, temperatures of 35-37°C are typically recommended for methane production from animal manure. However, digesters require significant amount of heat energy to maintain temperatures at these levels. There is limited information about methane production from dairy digesters at temperatures less than 35°C and results in the literature are presented from laboratory-scale rather than field-scale systems.
The objective of this study was to evaluate the effect of two relatively low digestion temperatures (22 and 28°C) on methane production using replicate continuously-fed, field-scale dairy manure digesters at two organic loading rates. The results were compared with those from identical digesters operated at 35°C.
Research has demonstrated that phytase is the only enzyme that is able to initiate
the release of phosphorus (P) from the phytate molecule, making it available for
absorption and utilization (Selle and Ravindran, 2007). The industrial demand for
phytases with greater potency in intestinal phytate hydrolysis and better heat
stability continues to stimulate the search for new enzyme sources. Enzyme
preparations with phytases derived from A. ficuum, Peniophora lycii and E. coli are
available commercially. More recently, new microbial 6-phytases produced by
synthetic genes, mimicking a gene from C. braakii or isolated from Buttiauxella,
were introduced into the market.
Overview Of Enzymes - Dr. Pedro Urriola, from the 2015 Allen D. Leman Swine Conference, September 19-22, 2015, St. Paul, Minnesota, USA.
More presentations at http://www.swinecast.com/2015-leman-swine-conference-material
The research shows the results of using a protease (Ronozyme ProAct) in improving protein and amino acid digestibility of a conventional commercial 45% protein Meat and Bone Meal.
Why not join the Feed Enzyme discussion on LinkedIn?
http://www.linkedin.com/groups?home=&gid=4738175&trk=anet_ug_hm&goback=%25
Follow us: @DSMFeedTweet
Or speak the expert: @Jobsorbara
The color of the egg yolk and chicken skin is determined by the concentration and type of carotenoid present in the broiler or layer diet. This is important to keep in mind, as different colours are preferred depending on the geographical area.
Find out more about the effect of different types of carotenoids on broiler skin and egg yolk colour. In particular, look closely at effective the CAROPHYLL Red and Yellow products by DSM.
To find out more about DSM's work on poultry visit us at: http://www.dsm.com/markets/anh/en_US/species/species-poultry.html
Or why not talk to the expert on Twitter: @goldenyolk
Knowledge of amino acid (AA) digestibility of feed ingredients is necessary to feed broilers with
properly balanced compound diets. For this reason, more attention has recently been given to the
determination of AA digestibility of ingredients, recognizing that it may vary greatly depending
upon the feed ingredient. The effects of the inclusion of a mono-component serine protease
(Ronozyme® ProAct) on standardized ileal amino acid digestibility (SIAAD) of diets containing wheat
by-products (wheat DDGS (WDDGS) and wheat middlings (WM)) were evaluated in broilers.
- Improvement of SIAAD in the presence of protease is not the same for all AA and varies from one ingredient to another one. The effects of added protease are dependent on feed composition and on intrinsic digestibility of AA (COWIESON and ROOS (2014)).
- Factors such as type and quality of the ingredients, industrial processing and the presence of anti-nutritional substances such as tannins, phytates, trypsin inhibitors in plant species modulate the digestibility in poultry feed and thus the effectiveness of exogenous protease.
-The physiological state of animals (growth or maintenance), feed consumption or the nutritional feed quality could also influence the digestibility values.
Effect of Temperature on Methane Production from Field-Scale Anaerobic Digest...LPE Learning Center
Full proceedings at: http://www.extension.org/72729 Anaerobic digestion is a process that results in the production of biogas that can be used a renewable source of electricity on-farm or sold to the distribution grid. Temperature is a critical parameter for anaerobic digestion since it influences both system heat requirements and methane production. Although anaerobic digestion can take place under psychrophilic (15-25°C), mesophilic (35-40°C), and thermophilic (50-60°C) conditions, temperatures of 35-37°C are typically recommended for methane production from animal manure. However, digesters require significant amount of heat energy to maintain temperatures at these levels. There is limited information about methane production from dairy digesters at temperatures less than 35°C and results in the literature are presented from laboratory-scale rather than field-scale systems.
The objective of this study was to evaluate the effect of two relatively low digestion temperatures (22 and 28°C) on methane production using replicate continuously-fed, field-scale dairy manure digesters at two organic loading rates. The results were compared with those from identical digesters operated at 35°C.
Research has demonstrated that phytase is the only enzyme that is able to initiate
the release of phosphorus (P) from the phytate molecule, making it available for
absorption and utilization (Selle and Ravindran, 2007). The industrial demand for
phytases with greater potency in intestinal phytate hydrolysis and better heat
stability continues to stimulate the search for new enzyme sources. Enzyme
preparations with phytases derived from A. ficuum, Peniophora lycii and E. coli are
available commercially. More recently, new microbial 6-phytases produced by
synthetic genes, mimicking a gene from C. braakii or isolated from Buttiauxella,
were introduced into the market.
Overview Of Enzymes - Dr. Pedro Urriola, from the 2015 Allen D. Leman Swine Conference, September 19-22, 2015, St. Paul, Minnesota, USA.
More presentations at http://www.swinecast.com/2015-leman-swine-conference-material
The research shows the results of using a protease (Ronozyme ProAct) in improving protein and amino acid digestibility of a conventional commercial 45% protein Meat and Bone Meal.
Why not join the Feed Enzyme discussion on LinkedIn?
http://www.linkedin.com/groups?home=&gid=4738175&trk=anet_ug_hm&goback=%25
Follow us: @DSMFeedTweet
Or speak the expert: @Jobsorbara
The color of the egg yolk and chicken skin is determined by the concentration and type of carotenoid present in the broiler or layer diet. This is important to keep in mind, as different colours are preferred depending on the geographical area.
Find out more about the effect of different types of carotenoids on broiler skin and egg yolk colour. In particular, look closely at effective the CAROPHYLL Red and Yellow products by DSM.
To find out more about DSM's work on poultry visit us at: http://www.dsm.com/markets/anh/en_US/species/species-poultry.html
Or why not talk to the expert on Twitter: @goldenyolk
This is a presentation made by Chief Visionary and Founder of the Pet bharo project in India at IIM Ahmedabad in 2009. This PPT takes a person intending to go into commercial hydrponics into the nuances of this industry. more details are available on www.petbharoproject.co.in or contact ceo@petbharoproject.co.in
Techxellance agro farm - End-to-end services in Hydroponics and AquaponicsTechxellance Solutions
Techxellance Solutions Pvt. Ltd formed in year 2012 by a group of young and dynamic experts, having more than 18 years of experience in their profession, have come together with a vision of helping society to stay healthy by having healthy vegetables. In a very short spam of time Techxellance team has spread their wings by providing cost effective & innovative end-to-end solutions which helps customers & farmers to cultivate pesticide free & dirt free vegetables at home, terrace or on a farm. Techxellance is into business of sales & service in various technologies like IT & Agro; here in Agrotech division we offer end-to-end solutions to farmers and consumers through Alternative Farming Technology called Soilless Farming with the help of Hydroponics and Aquaponics technology. Techxellance’s team is keenly working on cost effective and accessible solution in aquaponics & hydroponics, garden automation, building facilities & products that respect the natural environment, while simultaneously growing fresher, healthier produce.
Thanking you,
Regards,
Sameer Pokle
www.techxellanceagrofarm.com
Dr. John Patience - Dietary Fat: It Is Much More Than An Energy Source To The...John Blue
Dietary Fat: It Is Much More Than An Energy Source To The Pig - Dr. John Patience, from the 2015 Allen D. Leman Swine Conference, September 19-22, 2015, St. Paul, Minnesota, USA.
More presentations at http://www.swinecast.com/2015-leman-swine-conference-material
Dr. Brian Richert - Alternative Feed Ingredients: Real Options or Just a Nice...John Blue
Alternative Feed Ingredients: Real Options or Just a Nice Idea? - Dr. Brian Richert, Associate Professor of Animal Sciences, Department of Animal Sciences, Purdue University, from the 2012 Minnesota Pork Congress, January 18-19, Minneapolis, MN, USA.
A nice overview presentation on the production, technology advancements and feeding applications of distillers grain both dry and wet.
http://www.cowcubes.com - for information on DDGS range cubes
Lori Thomas - The Effect of Parity and Stage of Gestation on Whole Body and M...John Blue
The Effect of Parity and Stage of Gestation on Whole Body and Maternal Growth and Feed Efficiency of Gestating Sows - Lori Thomas, from the 2017 Allen D. Leman Swine Conference, September 16-19, 2017, St. Paul, Minnesota, USA.
More presentations at http://www.swinecast.com/2017-leman-swine-conference-material
Dr. Joel DeRouchey - Feed Price Update and Daily Feed Efficiency Drivers John Blue
Feed Price Update and Daily Feed Efficiency Drivers - Dr. Joel DeRouchey, Kansas State University, from the 2013 World Pork Expo, June 5 - 7, 2013, Des Moines, IA, USA.
More presentations at http://www.swinecast.com/2013-world-pork-expo
Potential and limitations of by-product based feeding systems to mitigate gre...ILRI
Presentation by M. Blümmel, S. Anandan, and C.S. Prasad to the 13th Biennial Animal Nutrition Conference of the Animal Nutrition Society of India: Diversification of Animal Nutrition Research in the Changing Scenario, Bangalore, India, 17-19 December 2009.
Haematology and Serum Biochemistry of West African Dwarf (WAD) Bucks fed silage combination of corn cobs, cowpea husks and wet brewer grains.
The combination are feed needed during dry season to reduce the cost of feeds and they are materials that are easy to get.
2. EFFECT OF PARTIAL REPLACEMENT OF CONCENTRATE
MIXTURE BY SPROUTED WHEAT AND MAIZE FODDER
ON MILK YIELD AND MILK QUALITY OF LACTATING
COWS
Presented by
MD. MAZHARUL ISLAM
ID No.: 15 DS JJ 01 M
Reg. No.: 36518; Session: 2009-2010
Supervisor
Prof. Dr. MD. NURUL ISLAM
Professor
Dept. of DAIRY SCIENCE
Co-Supervisor
Dr. MOHAMMAD SHOHEL RANA
SIDDIKI
Associate Professor
Dept. of DAIRY SCIENCE
Department of Dairy Science
Bangladesh Agricultural University
Mymensingh-2202
3. Introduction
Scarcity
Increasing human population
Industrialization
Limited land
Limited land for fodder cultivation
Feeding of fodders
Increases animal productivity
Profitability of dairy farmers.
Deficient in Milk production
Produce 6.97 MMT of Milk annually against
the requirement of appx. 14.45MMT
4. SPROUTED FODDER/HYDROPONIC FODDER??
Derived from the Greek word ‘Hydro’ means ‘water’ and
‘ponic’ means ‘working’
It is a method of growing plants without soil.
Hydroponic fodder is also known as ‘sprouted fodder’
Advantages:
Shorter period of time (8-10 days)
Smaller area than traditionally-grown crops
Year-round growing system, produces a consistent
quantity and quality of plant material
5. The following objectives are undertaken
To study the feasibility of partial replacement of
conventional concentrate mixture by sprouted
fodder (wheat and maize) in lactating crossbred
cows ration.
To study the effect of feeding different levels of
sprouted fodder (wheat and maize) on milk
yield and milk quality of lactating crossbred
cows.
6. Materials and Method
Experimental Period
10th November’15 to 20th January’16 (Fodder production, Feeding
trial, Laboratory analysis)
Divided into three phases: 3 weeks in each phase
Experimental Site
Fodder production: Faculty of Fisheries.
Feeding trial : Bangladesh Agricultural University Dairy Farm .
Laboratory analysis : Dairy Technology and Microbiology
Laboratory.
Experimental Animals
Selected nine lactating crossbred cows(Holstein Friesian)
Divided into three groups having three cows in each
Groups are represented as A, B and C
7. Experimental Diet Phase-1
Group-A Group-B Group-C
Concentrate
Mixture
3 kg 3 kg 4 kg
Sprouted Fodder 1kg sprouted wheat
(25% replacement)
1kg sprouted Maize
(25% replacement)
No sprouted
fodder
Phase-2
Concentrate
Mixture
2.5 kg 2.5 kg 4kg
Sprouted Fodder
1.5kg sprouted wheat
(37.5% replacement)
1.5kg sprouted
Maize (37.5%
replacement)
No sprouted
fodder
Phase-3
Concentrate
Mixture
2 kg 2kg 4kg
Sprouted Fodder
2kg sprouted wheat
(50% replacement)
2kg sprouted Maize
(50% replacement)
No sprouted
fodder
In all three phases green grass were given ad libitum basis.
Layout
OF
FEEDING
TRIAL
9. Average Milk yield result (l/d/h) in whole three phases
Milk yield in different phases Experimental Groups
Group A
(mean±SD)
Group B
(mean±SD)
Group C
(mean±SD)
Phase -1
7.32±0.14 8.15±0.72 6.73±1.13
Initial record 6.70±0.10 7.75±0.75 6.85±1.15
% Change 9.25± 0.04 5.16± 0.04 1.75± 0.04
Phase -2 7.72±0.12 8.50±1.00 6.75±1.32
Initial record 6.70±0.10 7.75±0.75 6.85±1.15
% Change 15.37± 0.02 9.67± 0.25 1.45± 0.17
Phase -3 7.70±0.10 8.43±1.03 6.40±1.20
Initial record 6.70±0.10 7.75±0.75 6.85±1.15
% Change 15.07± 0.01 8.77± 0.23 6.5± 0.50
10. Average milk yield (l/d) in each group of cows in different phases
0
1
2
3
4
5
6
7
8
9
10
Group A Group B Group C
Avg.milkyield(l/d)
Treated groups
Phase 1 Phase 2 Phase 3
11. Average Milk Fat content (g/kg) in different groups of
cows
0
10
20
30
40
50
60
p-1 p-2 p-3
Fatcontent(g/kg)
Different phases
A B C
12. Average Milk Protein content (g/kg) in different group of
cows
2.95
3
3.05
3.1
3.15
3.2
3.25
3.3
P-1 P-2 P-3
Different phases
A B C
13. Average Milk Total Solids content (g/kg) in different group
of cows
110
115
120
125
130
135
140
P-1 P-2 P-3
TScontent,(g/kg)
Different phases
A B C
14. Average chemical parameters of milk samples collected during
experimental period in ‘phase-1’
Chemical
parameters
Experimental Groups Levels of
significanceGroup A
(mean±SD)
Group B
(mean±SD)
Group C
(mean±SD)
Specific gravity 1.030±0.00 1.032±0.00 1.033±0.00 NS
Acidity (%) 0.15±0.01 0.15±0.01 0.16±0.00 NS
Fat (g/kg) 47.7a±0.18 42.9b±0.34 42.7b±0.08 *
Protein (g/kg) 32.2±0.01 31.8±0.06 31.9±0.08 NS
Lactose (g/kg) 45.2±0.04 46.2±0.12 46.3±0.11 NS
TS (g/kg) 131.5a±0.10 127.4b±0.16 128.1b±0.12 *
SNF (g/kg) 84.0±0.06 84.6±0.18 85.3±0.20 NS
Ash (g/kg) 6.6±0.01 6.5±0.01 6.7±0.02 NS
* 5% significance (p<0.05), abc = mean value with different superscripts letter within a row differed
significantly.
15. Average chemical parameters of milk samples collected during
experimental period in ‘phase-2’
Chemical
parameters
Experimental Groups Levels of
significanceGroup A
(mean±SD)
Group B
(mean±SD)
Group C
(mean±SD)
Specific gravity 1.029±0.00 1.031±0.00 1.032±0.00 NS
Acidity (%) 0.16±0.01 0.15±0.01 0.15±0.01 NS
Fat (g/kg) 50.6a±0.03 44.2b±0.34 44.4b±0.18 *
Protein (g/kg) 32.3a±0.03 31.6b±0.06 30.9b±0.06 *
Lactose (g/kg) 46.1±0.18 44.0±0.11 44.6±0.13 NS
TS (g/kg) 134a.4±0.17 125.6b±0.22 124.5b±0.13 *
SNF (g/kg) 83.8±0.20 81.3±0.13 82.5±0.20 NS
Ash (g/kg) 6.4±0.00 6.4±0.01 6.6±0.02 NS
* 5% significance (p<0.05), abc = mean value with different superscripts letter within a row
differed significantly.
16. Average chemical parameters of milk samples collected during
experimental period in ‘phase-3’
Chemical
parameters
Experimental Groups Levels of
significanceGroup A
(mean±SD)
Group B
(mean±SD)
Group C
(mean±SD)
Specific gravity 1.029±0.00 1.030±0.00 1.032±0.00 NS
Acidity (%) 0.16±0.00 0.16±0.00 0.16±0.01 NS
Fat (g/kg) 50.3a±0.1 45.4b±0.36 42.3c±0.03 *
Protein (g/kg) 32.4a±0.02 32.3ab±0.05 31.4b±0.02 *
Lactose (g/kg) 45.6±0.09 46.4±0.06 45.6±0.05 NS
TS (g/kg) 134.9a±0.04 120.7c±0.31 126.2b±0.09 *
SNF (g/kg) 84.6±0.14 85.2±0.06 83.9±0.07 NS
Ash (g/kg) 6.5±0.01 6.6±0.01 6.7±0.00 NS
* 5% significance (p<0.05), abc = mean value with different superscripts letter within a row
differed significantly.
17. Conclusion
In case of 37.5% replacement of conc. mixture
by sprouted Wheat and Maize fodder gives
result of higher percentage milk yield.
The Milk Fat, Protein and Total solids content
are also increase when sprouted Wheat and
Maize fodder partially replaced with conc.
mixture.
Feeding addition of hydroponic fodder with
conc. mixture to dairy cows shows better
quantity of milk yield as well as milk quality.