************************************************************
54.  Development of a computer program (UTILIS) for correct pig
slurry management.
Balsari, P.; Calvo, A.; Airoldi, G. 

Computers in agricultural extension programs  proceedings of the
4th international conference, 28-31 January 1992, Orlando,
Florida /  sponspored by the Florida Cooperative Extension
Service, University of Florida. St. Joseph, Mich. : American
Society of Agricultural  Engineers, c1992.. p. 559-564. 
Includes references.
Descriptor: pig-slurry; waste-disposal; computer-software
NAL Call No.: S494.5.D3C68-1992
************************************************************     55.  Development of an on-site moderate and limited
small farm wastewater treatment plant.
Yang, P. Y.; Chen, H.; Kongricharoern, N.; Polprasert, C. 

Water-Sci-Technol-J-Int-Assoc-Water-Pollut-Res-Control v.27,
p.115-121. (1993).
In the series analytic: Appropriate waste management technologies
/ edited by G. Ho and K. Mathew. Proceedings of the International 
Conference, held November 27-28, 1991, Perth, Australia.
Descriptor: waste-water-treatment; small-farms; bioreactors-;
pig-slurry; hawaii-; on-farm-treatment
NAL Call No.: TD420.A1P7
************************************************************
56.  Dietary manipulation of nitrogen excretion and slurry volume
from pigs.
Fullarton, P. J.; Cullin, A. W. R.; Broecke, J. v. d. 

Asp-appl-biol p.145-148. (1992).
In the series analytic: Nitrate and farming systems / edited by
J.R. Archer, K.W.T. Goulding, S.C. Jarvis, C.M. Knott, I. Lord,
S.E.  Ogilvy, J. Orson, K.A. Smith, and B. Wilson.
Descriptor: pigs-; pig-slurry; excretion-; nitrogen-; excreta-;
nitrogen-metabolism; experimental-diets; feeds-; protein-content
NAL Call No.: QH301.A76
************************************************************
57.  A direct incorporation of N-15 labelled ammonium sulphate
into a pig slurry: a laboratory experiment on NH3 volatilization.
Moal, J. F.; Martinez, J.; Marol, C.; Guirand, G. 

Bioresour-technol. Barking, Essex, England : Elsevier Applied
Science ; New York, NY : Elsevier Science Publishing Co., 1991-.
1994.  v. 48 (1) p. 87-89. 
Includes references.
Descriptor: pig-slurry; isotope-labeling; nitrogen-;
ammonium-sulfate; incorporation-; ammonia-; volatilization-;
laboratory-methods; nitrogen-; losses-
NAL Call No.: TD930.A32
************************************************************
58.  Drying interval effects on runoff from fescue plots
receiving swine manure.
Edwards, D. R.; Daniel, T. C. 

Trans-ASAE v.36, p.1673-1678. (1993).
Includes references.
Descriptor: pig-manure; drying-; runoff-; nitrate-nitrogen;
ammonium-nitrogen; nitrogen-; phosphorus-; runoff-water;
water-pollution; festuca- arundinacea; fields-; water-quality
Abstract: Application of swine (Sus scrofa domesticus) manure can
lead to elevated runoff concentrations of organic matter and
nutrients. This  experiment was conducted to assess the
influences of swine manure treatment (0 and 220 kg/ha nitrogen
applied) and drying interval (4, 7, and  14 days) between manure
application and first runoff event on quality of runoff from
fescue (Festuca arundinacea Schreb.) plots. Runoff was  generated
from simulated rainfall (50 mm/h) and sampled at 0.08 h intervals
during runoff. Flow-weighted composite runoff samples from each 
treatment and replication were analyzed for nitrate nitrogen
(NO3(-)N), ammonia nitrogen (NH3(-)N), total Kjeldahl nitrogen
(TKN), total  phosphorus (TP), chemical oxygen demand (COD), and
total suspended solids (TSS). One set per treatment of the
noncomposited runoff  samples was also analyzed. Runoff
concentrations of all manure constituents investigated were
higher for the manure-treated plots than for the  untreated
plots. Runoff NO3(-)N increased with drying interval due to
nitrification, but concentrations of other manure constituents
were  unaffected by drying interval. Amounts of constituents lost
from the plots in runoff were higher for the manure-treated plots
than for the  untreated plots, but all (including NO3(-)N) losses
were found independent of drying interval. Analyses of the
noncomposited runoff samples  revealed high variability in the
response of runoff quality to time after the beginning of runoff
for all parameters investigated. Data from the  non-composited
samples did not lend itself to generalized descriptions of
changes with respect to time of runoff concentrations of manure 
constituents.
NAL Call No.: 290.9-Am32T
************************************************************
59.  Economic impact of a swine complex in Southside Virginia.
Thornsbury, S.; Kambhampaty, S. M.; Kenyon, D. 

Publication collection, Virginia Cooperative Extension Service.
1993. (448-215) 14 p. 
Includes references.
Descriptor: pig-farming; econometric-models;
agroindustrial-complexes; economic-impact; environmental-impact;
regional-planning; animal-wastes; virginia-;
impact-analysis-for-planning-implan;
virginia-impact-projection-vip
NAL Call No.: S544.3.V8V52
************************************************************
60.  Economic impact of varying swine manure application rates on
continuous corn.
Chase, C.; Duffy, M.; Lotz, W. 

J-Soil-Water-Conserv v.46, p.460-464. (1991).
Includes references.
Descriptor: zea-mays; pig-manure; fertilizers-;
application-rates; economic-impact; crop-yield;
soil-conditioners; production-costs; returns-; iowa-;
buchanan-county,-iowa
NAL Call No.: 56.8-J822
************************************************************
61.  Effect of form and rate of pig manure on the growth,
nutrient uptake, and yield of barley (cv. Galleon).
Brechin, J.; McDonald, G. K. 

Aust-j-exp-agric v.34, p.505-510. (1994).
Includes references.
Descriptor: hordeum-vulgare; piggery-effluent; application-rates;
superphosphate-; urea-; pesticide-mixtures; growth-rate;
nutrient-uptake; crop-yield; nitrogen-content; phosphorus-;
sodium-; biomass-production; maize-ears; kernels-; weight-;
south-australia
NAL Call No.: 23-Au792
************************************************************
62.  Effect of manuring practices and increased copper
concentrations on soil microbial populations.
Huysman, F.; Verstraete, W.; Brookes, P. C. 

Soil-biol-biochem v.26, p.103-110. (1994).
Includes references.
Descriptor: soil-bacteria; soil-fungi; populations-;
metal-tolerance; copper-; bioavailability-; pig-manure;
application-to-land; heavy-metals; contamination-;
soil-pollution; polluted-soils
Abstract: Addition of piggery manure to soils over 5 yr (manured
soils) increased the amount of Cu extracted by EDTA and 
diethylenetriaminepentaacetic acid (DTPA) compared to selected
reference soils. DTPA-extractable Cu ranged from about 3 to 10 p
g Cu g-1  soil in the manured soils and from about 1 to 2
micrograms Cu g soil in the reference soils. Although the soil Cu
concentrations in the manured  soils were many times smaller than
currently permitted, the increase in DTPA- or EDTA-extractable Cu
was correlated with a 10- to a 1000- fold increase in the number
of aerobic Cu-resistant bacteria. Although the Cu was mainly
concentrated in the plough layer (15 cm) of the  manured soils,
Cu-resistant bacteria were also detected down to 110 cm soil
depth. In contrast, no such differences were found between the
total  number of colony forming units, total microbial biomass or
the degree of Cu-resistance of fungi and anaerobic bacteria
between manured and  reference soils. It is suggested that the
degree of Cu-resistance of the aerobic soil bacteria may provide
a sensitive measure of Cu bioavailability  in soil. In general,
bacteria were more sensitive to Cu than fungi. All of the 42
Cu-resistant bacterial strains investigated were oxidase-positive 
and 50% of the strains were pigmented. In contrast, only 20% of
the 37 Cu-sensitive bacterial strains investigated were
oxidase-positive and  none were pigmented. Cu-resistant bacteria
exhibited more resistance to several antibiotics and heavy metals
than Cu-sensitive bacteria.
NAL Call No.: S592.7.A1S6
************************************************************
63.  Effect of natural substances on plants: biological control
of telluric phytopathogenic fungi by an antifungal compost.
Reisinger, O.; Durecu, S.; Toutain, F. 

Dev-Agric-Manage-For-Ecol p.145-153. (1992).
In the series analytic: Humus its structure and role in
agriculture and environment / edited by J. Kubat. Proceedings of
the 10th  Symposium Humus et Planta, August 19-23, 1991, Prague,
Czechoslovakia.
Descriptor: cucumis-sativus; linum-usitatissimum;
fusarium-oxysporum-f; sp; -lini; phomopsis-sclerotioides;
biological-control; composts-; pig-slurry; plant-nutrition;
france-
Abstract: Antipathogenic activity of a compost prepared of the
solid phase of anaerobically fermented pig slurry has been tested
in laboratory and  glasshouse experiments. It was shown that this
compost sensibly limited the severity of pathogenic effect of
Fusarium oxysporum f. sp. lini and  diminished incidence of
Phomopsis sclerotioides with cucumber cultivated in naturally
infected soil. Laboratory experiments have shown that  there is
at least one bacterial biological element responsible for
induction and acceleration of autolysis of pathogenic fungi.
NAL Call No.: S601.D4
************************************************************
64.  Effect of organic manure on organic phosphorus fractions in
two paddy soils.
Zhang, Y. S.; Werner, W.; Scherer, H. W.; Sun, X. 

Biol-fertil-soils v.17, p.64-68. (1994).
Includes references.
Descriptor: paddy-soils; ultisols-; entisols-; pig-manure;
cattle-manure; cellulose-; soil-organic-matter; phosphorus-;
inorganic-phosphorus; anaerobic- conditions; organic-phosphorus
NAL Call No.: QH84.8.B46
************************************************************
65.  Effect of pH on the behaviour of volatile compounds in
organic manures during dry-matter determination.
Derikx, P. J. L.; Willers, H. C.; Have, P. J. W. t. 

Bioresour-technol. Barking, Essex, England : Elsevier Applied
Science ; New York, NY : Elsevier Science Publishing Co., 1991-.
1994.  v. 49 (1) p. 41-45. 
Includes references.
Descriptor: pig-manure; cattle-manure; poultry-manure; drying-;
dry-matter; ammonia-; volatile-compounds; volatile-fatty-acids;
ph-; methodology-
NAL Call No.: TD930.A32
************************************************************
66.  The effect of pig slurry on exchangeable potassium in
calcareous soils.
Bernal, M. P.; Lax, A.; Roig, A. 

Biol-fertil-soils v.16, p.169-172. (1993).
Includes references.
Descriptor: calcareous-soils; cation-exchange;
exchangeable-cations; potassium-; pig-slurry; waste-disposal;
illite-; interstratified-minerals; montmorillonite-; spain-
NAL Call No.: QH84.8.B46
************************************************************


monday tuesday wednesday thursday friday saturday sunday partyday funday niceday 53A2.2583 53A4.2584 53A5.2585 53A6.2586 53A6.2587 53A8.2588 53A9.2589 53A9.259A 53AA.258A 5412.2692 5413.2693 5414.2694 5415.2695 5415.2696 5417.2697 5418.2698 5419.2699 5421.27A1 5422.27A2 5422.27A3 5424.27A3 5424.27A5 5424.27A6 5427.27A7 5428.27A8 5429.271A 5429.27A9 542A.27AA 5431.2711 5431.2712 5433.2713 5434.2714 5434.2715 5436.2715 5437.2717 5438.2718 5439.2719 5441.2721 5441.2722 5443.2723 5444.2724 5444.2725 5446.2726 5446.2727 5448.2728 5449.2729 5449.273A 544A.272A 5451.2731 5452.2731 5453.2733 5454.2733 5454.2735 5456.2736 5456.2737 5456.2738 5459.2739 5461.2741 5462.2742 5463.2743 5463.2744 5465.2745 5465.2746 5467.2747 5467.2748 5469.2749 546A.274A 5471.2751 5471.2752 5473.2753 5474.2753 5475.2755 5476.2756 5476.2757 5478.2758 5479.2759 547A.275A 5482.2762 5483.2762 5483.2764 5485.2765 5485.2766 5485.2767 5488.2767 5489.2769 5489.277A 548A.2761 548A.276A 5491.2771 5492.2772 5493.2773 5494.2774 5495.2775 5496.2776 5497.2777 5498.2778 5499.2779 54A1.2681 54A1.2682 54A1.2683 54A4.2684 54A5.2685 54A6.2686 54A6.2687 54A8.2688 54A8.2689 54A8.2691 54AA.268A 5512.2792 5512.2793 5514.2794 5514.2795 5516.2796 5517.2797 5517.2798 5519.2799 5522.28A2 5523.28A3 5524.28A4 5524.28A5 5524.28A6 5527.28A7 5527.28A8 5529.2811 5529.281A 5529.28A9 552A.28A1 552A.28AA 5532.2812 5532.2813 5534.2814 5535.2815 5536.2816 5536.2817 5538.2818 5539.2819 5542.2822 5542.2823 5544.2824 5545.2825 5546.2826 5546.2827 5548.2828 5549.2829 5549.283A 554A.2821 554A.282A 5551.2831 5552.2832 5552.2833 5554.2833 5555.2835 5555.2836 5557.2837 5557.2838 5559.2838 5559.284A 5561.2841 5562.2842 5563.2842 5563.2844 5563.2845 5566.2846 5567.2847 5568.2848 5568.2849 5571.2851 5571.2852 5573.2853 5574.2854 5575.2855 5575.2856 5575.2857 5578.2858 5579.2858 557A.285A 5581.2861 5582.2862 5582.2863 5584.2864 5585.2865 5586.2866 5586.2867 5586.2868 5589.2869 558A.286A 5591.2871 5592.2872 5593.2873 5594.2874 5595.2875 5596.2875 5597.2877 5598.2878 5598.2879 559A.287A 55A1.2781 55A1.2782 55A1.2783 55A4.2784 55A5.2785 55A6.2786 55A7.2787 55A8.2788 55A9.2788 55A9.2791 55A9.279A 55AA.278A 5611.2891 5612.2892 5613.2893 5613.2894 5613.2895 5616.2896 5617.2897 5621.29A1 5622.29A2 5623.29A3 5624.29A4 5624.29A5 5624.29A6 5627.29A7 5628.29A8 5628.29A9 562A.29AA 5631.2911 5632.2912 5632.2913 5634.2914 5635.2915 5635.2916 5637.2917 5637.2918 5639.2918 5639.2921 5639.292A 563A.291A 5642.2922 5643.2923 5643.2924 5645.2925 5646.2926 5646.2927 5648.2928 5649.2929 5652.2932 5652.2933 5654.2934 5654.2935 5654.2936 5654.2937 5658.2938 5659.2939 565A.2931 565A.293A 5661.2941 5662.2941 5663.2943 5664.2944 5665.2945 5666.2946 5666.2947 5666.2948 5669.2949 5669.295A 5671.2951 5672.2952 5673.2953 5674.2954 5675.2955 5676.2956 5677.2957 5678.2958 5678.2959 5681.2961 5682.2962 5683.2963 5684.2964 5685.2965 5685.2966 5687.2967 5688.2968 5689.2969 5689.2971 568A.296A 5692.2972 5693.2973 5693.2974 5695.2975 5696.2976 5697.2977 5698.2978 5699.2979 56A1.2881