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Relevant bibliographies by topics / University of Minnesota. Agricultural Experiment Station

Academic literature on the topic 'University of Minnesota. Agricultural Experiment Station'

Author: Grafiati

Published: 26 July 2024

Last updated: 27 July 2024

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Journal articles on the topic "University of Minnesota. Agricultural Experiment Station"

1

Watrin, Clifford G., and Edward B. Radcliffe. "Alfalfa Insect Control in Minnesota, 1986." Insecticide and Acaricide Tests 12, no. 1 (January 1, 1987): 177–80. http://dx.doi.org/10.1093/iat/12.1.177a.

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Abstract The study was conducted at the University of Minnesota Agricultural Experiment Station, Rosemount, MN, on 1st regrowth 3rd year alfalfa. Treatments were 26 × 52 ft and replicated 3 times in a randomized design. Spray treatments were applied 21 May with a tractor-drawn boom sprayer at 37.5 gal water/acre at 200 psi. Insects were sampled 7 and 14 days posttreatment by taking 20 sweeps per plot with a 15 inch dia sweep net. All pyrethroids were highly effective.

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2

Krueger, Craig A., and Edward B. Radcliffe. "Alfalfa Insect Control, Minnesota, 1985." Insecticide and Acaricide Tests 11, no. 1 (January 1, 1986): 213. http://dx.doi.org/10.1093/iat/11.1.213.

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Abstract The study was conducted at the University of Minnesota Agricultural Experiment Station, Rosemount, MN, on 2nd regrowth 2nd year alfalfa. Treatments were 52 ft × 52 ft and replicated 3 times in a randomized complete block design. Sprays were applied Aug 14 with a tractor-drawn boom sprayer delivering 18 gal of water/acre at 200 psi. Plant height at spray application vas 8-10 inches. Insects were sampled 1, 3, 7, and 21 days posttreatment by taking 20 sweeps per plot with a 15-inch diam sweep net. Insects were not sampled 14 days posttreatment due to wet weather.

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3

Chen, Chien-chung, and Edward B. RadclifFe. "Control of Alfalfa Weevil Larvae in Minnesota, 1987." Insecticide and Acaricide Tests 13, no. 1 (January 1, 1988): 176. http://dx.doi.org/10.1093/iat/13.1.176.

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Abstract The study was conducted at the University of Minnesota Agricultural Experiment Station in Rosemount on 1st regrowth, 3rd-year alfalfa. Treatments were 22 × 50 ft and replicated 3 times in a randomized complete block design. Spray treatments were applied 23 May with a tractor-drawn boom sprayer delivering 37.5 gal water/acre at 200 psi. Insects were sampled 3 and 7 days posttreatment by taking 20 sweeps/plot with a 38-cm-diam sweep net.

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4

Stucker, David S., and Edward B. Radcliffe. "Alfalfa Insect Control, Minnesota, 1985." Insecticide and Acaricide Tests 11, no. 1 (January 1, 1986): 219–20. http://dx.doi.org/10.1093/iat/11.1.219.

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Abstract The study was conducted at the University of Minnesota Agricultural Experiment Station, Rosemount, MN, on 1st regrowth 2nd year alfalfa. Treatments were 26 × 26 ft and replicated 3 times in a randomized complete block design. Spray treatments were applied on 29 May with a tractor-drawn boom sprayer in 36 gal water/acre at 200 psi. Plant height at spray application was 23-26 inches. Insects were sampled 1, 4, 7, 14, and 21 days posttreatment by taking 10 sweeps per plot with a 15-inch diam sweep net. One day posttreatment, 1.5 inch of rain fell and there was marble-sized hail resulting in broken alfalfa stems and lodging; an additional 0.5 inch of rain 3 days posttreatment.

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5

Hutchison, W. D., and J. J. Lee. "Alfalfa Insect Control—2nd Crop, 1989." Insecticide and Acaricide Tests 15, no. 1 (January 1, 1990): 163. http://dx.doi.org/10.1093/iat/15.1.163.

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Abstract This test was conducted in a 2-yr-old alfalfa stand on the University of Minnesota Agricultural Experiment Station at Rosemount. Plots measuring 40 by 35 ft were replicated 4 times in a randomized complete block design. Treatments were applied 15 Jul with a tractor-drawn 22-ft boom sprayer delivering 23 gal/acre at 40 psi. At the time of application, between 0900-1200 h, temperature averaged 78°F and windspeed <5 mph.

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Watrin, Clifford G., and Edward B. Radcliffe. "Control of Potato Leafhopper Nymphs with Foliar Insecticides, 1986." Insecticide and Acaricide Tests 12, no. 1 (January 1, 1987): 150–51. http://dx.doi.org/10.1093/iat/12.1.150.

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Abstract Potatoes were planted 24 May, at the University of Minnesota Agricultural Experiment Station, Rosemount MN. Plots were 40 ft long, with 40 inch row spacing, randomized in complete blocks with 3 replications. Insect numbers were estimated by counting nymphs on the underside of 30 leaves per plot. Foliar sprays were applied using a C02 powered hand-sprayer delivering 36 gal of water/acre at 35 psi. Treatments were applied 27 Jul, and evaluations were made 7 days posttreatment.

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7

Hutchison, W. D., D. W. Bartels, and J. H. Rinkleff. "Alfalfa Insect Control—2Nd Crop, 1990." Insecticide and Acaricide Tests 17, no. 1 (January 1, 1992): 175. http://dx.doi.org/10.1093/iat/17.1.175.

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Abstract This test was conducted in a 3-yr-old alfalfa stand located on the University of Minnesota Agricultural Experiment Station at Rosemount. Plots measuring 25 × 40 ft were replicated 4 times in a randomized complete block design. Treatments were applied 6 Jul with a tractor-drawn 25-ft boom sprayer delivering 19 gal/acre at 40 psi. Treatments were applied between 1100-1300 h; wind speed was <5 mph and temperature averaged 80°F

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8

Bartels, D. W., W. D. Hutchison, and P. C. Bolin. "Insecticidal and Microbial Control of Lepidopteran Larvae in Minnesota Cabbage, 1992." Insecticide and Acaricide Tests 18, no. 1 (January 1, 1993): 90–91. http://dx.doi.org/10.1093/iat/18.1.90a.

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Abstract This study was carried out at the University of Minnesota, Agricultural Experiment Station, at Rosemount in cabbage transplanted 11 Jun. Treatments were replicated 4 times and arranged in a randomized complete block design. Each replicate consisted of 2 rows on 91.4 cm (36 inch) centers, measuring 9.14 m (30 ft) in length. All plots were separated by 2.14 m (7 ft) alleys on either side and by 10 ft alleys at each end. All treatments were applied using a Spirit, high-clearance sprayer, with 5 hollow-cone nozzles (TX-10) overlapping the 2 rows, and delivering 27 gal/acre at 45 psi.

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9

Watrin, Clifford G., and Edward B. Radcliffe. "Control of Potato Leafhopper Nymphs with Foliar Insecticides, 1985." Insecticide and Acaricide Tests 11, no. 1 (January 1, 1986): 184–85. http://dx.doi.org/10.1093/iat/11.1.184.

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Abstract Potatoes were planted 24 May, at the University of Minnesota Agricultural Experiment Station, Rosemount MN. Treatments were 20 ft long, with 40-inch row spacing, randomized in complete blocks with 3 replications. Insect numbers were estimated by counting nymphs on the underside of 35 leaves per plot. Foliar sprays were applied using a CO2 powered hand-sprayer delivering 36 gal of water/acre at 35 psi. Treatments were applied 22 Jul and 30 Jul. Percent control was calculated by comparison of treatment counts to those for the untreated control.

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10

Lagnaoui, Abdelaziz, Edward B. Radcliffe, and Grant Terlemezian. "Wireworm Control on Potato, 1989." Insecticide and Acaricide Tests 15, no. 1 (January 1, 1990): 131. http://dx.doi.org/10.1093/iat/15.1.131.

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Abstract Certified B-size potatoes were planted 23 May at the University of Minnesota Agricultural Experiment Station, Rosemount, MN. Treatments were 2 rows wide and 100 ft long with 40-inch row spacing. Treatments were randomized in complete blocks with 4 replications. Granular insecticides were applied in furrow with a planter-mounted granular applicator. A non-insecticidal check was planted between every 2 insecticidal treatments. The plots were not sprayed with any foliar insecticide. On 18 Sep, potatoes were harvested, counted and scored for wireworm injury. Control for each treatment was calculated as percent reduction in wireworm damage relative to the adjacent untreated control.

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Dissertations / Theses on the topic "University of Minnesota. Agricultural Experiment Station"

1

Haney, Richard A. Jr, Hector J. Gonzalez, and Patricia Paylore. "College of Agriculture: A Century of Discovery." College of Agriculture, University of Arizona (Tucson, AZ), 1985. http://hdl.handle.net/10150/558261.

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Books on the topic "University of Minnesota. Agricultural Experiment Station"

1

University of Minnesota. Agricultural Experiment Station. The Minnesota Agricultural Experiment Station: A proven investment for today and the future. St. Paul, Minn.]: Minnesota Agricultural Experiment Station, 1985.

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2

R, Linden D., Minnesota Agricultural Experiment Station, and Rosemount Agricultural Experiment Station, eds. Agricultural utilization of sewage sludge: A twenty year study at the Rosemount Agricultural Experiment Station University of Minnesota. St.Paul,Minn: Minnesota Agricultural Experiment Station, University of Minnesota, 1995.

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3

Nuckton, Carole Frank. Oregon invests!: Describing potential economic, environmental, and social effects of Oregon Agricultural Experiment Station research projects. Corvallis, OR: Oregon Agricultural Experiment Station, Oregon State University, 1993.

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4

Oregon State University. Agricultural Experiment Station., ed. 100 years of progress: The Oregon Agricultural Experiment Station, Oregon State University, 1888-1988. Corvallis, Or: Oregon Agricultural Experiment Station, College of Agricultural Sciences, Oregon State University, 1990.

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5

Barnett, H. L. Fungus physiology research at the West Virginia Agricultural and Forestry Experiment Station, 1922-1982. Morgantown: Agricultural and Forestry Experiment Station, West Virginia University, 1985.

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6

Haruyoshi, Ikawa, and Hawaii Institute of Tropical Agriculture and Human Resources., eds. Soils of the Hawaii Agriculture Experiment Station, University of Hawaii: Soil survey, laboratory data, and soil descriptions. [Honolulu]: HITAHR, College of Tropical Agriculture and Human Resources, University of Hawaii, 1985.

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7

Wiegmann, Fred. Looking back: The Department of Agricultural Economics & Agribusiness at Louisiana State University, 1937-1992. [Baton Rouge]: Louisiana State University Agricultural Center, Louisiana State University and A&M College, 1993.

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8

Hopkin, John A. Agricultural economics: Its history and development at Texas A & M University through 1983. College Station, Tex: Dept. of Agricultural Economics, Texas Agricultural Experiment Station, Texas A&M University, 1985.

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9

Martin, Hood David, Wagner Ilka P, Jacobson Adrienne C, Texas A & M University. Hoof Project., and Texas Agricultural Experiment Station, eds. Proceedings of the Hoof Project, College of Veterinary Medicine, Texas A & M University & Texas Agricultural Experiment Station. College Station, TX: The Project, 1997.

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10

Organic Grape and Wine Production Symposium (3rd 1995 Geneva, N.Y.). Organic Grape and Wine Production Symposium: Cornell University, Department of Horticultural Science, New York State Agricultural Experiment Station. Edited by Pool Robert M, New York Grape Production Research Fund., Cornell University. Dept. of Horticultural Science., and New York State Agricultural Experiment Station. Geneva, [N.Y.]: Communications Services, New York State Agricultural Experiment Station, Cornell University, 1995.

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Book chapters on the topic "University of Minnesota. Agricultural Experiment Station"

1

Sauer, Richard J., and Carl E. Pray. "Mobilizing Support for Agricultural Research at the Minnesota Agricultural Experiment Station." In Policy for Agricultural Research, 211–33. CRC Press, 2019. http://dx.doi.org/10.1201/9780429301940-9.

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2

Mercer, L. Preston, and Danita Saxon Kelley. "Analysis of Bioperiodicity in Physiological Responses1 1This work was supported by United States Department of Agriculture NRICGP Grant 9400531 and the Agricultural Experiment Station, The University of Kentucky." In Mathematical Modeling in Experimental Nutrition - Vitamins, Proteins, Methods, 217–26. Elsevier, 1996. http://dx.doi.org/10.1016/s1043-4526(08)60031-5.

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3

BECKETT, J. B. "Cytogenetic, Genetic and Plant Breeding Applications of B–A Translocations in Maize† †Cooperative investigation between the US Department of Agriculture, Agricultural Research Service, and the University of Missouri Agricultural Experiment Station; journal series no. 10487." In Chromosome Engineering in Plants: Genetics, Breeding, Evolution, Part A, 493–529. Elsevier, 1991. http://dx.doi.org/10.1016/b978-0-444-88259-2.50029-1.

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4

HAUNOLD, ALFRED. "Cytology and Cytogenetics of Hops* *Contribution of the U.S. Department of Agriculture, Agr. Research Service, in cooperation with the Agricultural Experiment Station, Oregon State University, Technical paper No. 8092." In Developments in Plant Genetics and Breeding, 551–63. Elsevier, 1991. http://dx.doi.org/10.1016/b978-0-444-88260-8.50034-3.

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5

Sposito, Garrison. "The Statistical Physics of Subsurface Solute Transport." In Vadose Zone Hydrology. Oxford University Press, 1999. http://dx.doi.org/10.1093/oso/9780195109900.003.0007.

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The first detailed study of solute movement through the vadose zone at field scales of space and time was performed by Biggar and Nielsen (1976). Their experiment was conducted on a 150-ha agricultural site located at the West Side Field Station of the University of California, where the soil (Panoche series) exhibits a broad range of textures. Twenty well-separated, 6.5-m-square plots, previously instrumented to monitor matric potential and withdraw soil solution for chemical analysis, were ponded with water containing low concentrations of the tracer anions chloride and nitrate. After about 1 week, steady-state infiltration conditions were established, and 0.075 m of water containing the two anions at concentrations between 0.1 and 0.2 mol L-1 was leached through each plot at the local infiltration rate, which varied widely from 0.054 to 0.46 m day-1, depending on plot location. Once this solute pulse had infiltrated (< 1.5 days), leaching under ponded conditions was recommenced with the water low in chloride and nitrate. Solution samples were extracted before and after the solute pulse input at six depths up to 1.83 m below the land surface in each plot. Analyses of these samples for chloride and nitrate produced a broad range of concentration data which nonetheless showed an excellent linear correlation between the concentrations of the two anions (R2= 0.975), with a proportionality coefficient equal to that expected on the basis of the composition of the input pulse. Values of the measured solute concentrations at each sampling depth were tabulated as functions of the leaching time. Biggar and Nielsen (1976) decided to fit their very large concentration-depth-time database to a finite-pulsc-input solution of the one-dimensional advection-dispersion equation, leaving both the dispersion coefficient D and advection velocity u as adjustable parameters. The 359 field-wide values of u obtained in this way were highly variable (CV ≈ 200%), but also highly correlated (R2 = 0.84) and proportional to values of the advection velocity calculated directly as the ratio of water flux density to water content in each field plot (Biggar and Nielsen, 1976, figure 4).

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6

Ehrenfeld, David. "Hot Spots and the Globalization of Conservation." In Swimming Lessons. Oxford University Press, 2002. http://dx.doi.org/10.1093/oso/9780195148527.003.0024.

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Eight friends were seated around the dining room table, two bulging photo albums at the ready, about to start a round of that curious adult version of Show and Tell known as Our Summer Vacation. Donna and Stanley had begun their album with pictures of Stanley delivering a lecture to clinical psychologists at the Catholic University of Campinas, in the state of São Paulo, Brazil. This was followed by page after page of lush, colorful South American scenery: snapshots of the mighty Iguazú Falls taken from the river below; towering walls of green vegetation along the Rio Paraná; a thick growth of native trees overtaking the exotic plantings left behind by the celebrated botanist Moises Bertoni at the remains of his agricultural experiment station in the Paraguayan province of Alto Paraná. Then there were pictures of Stan-ley and Donna with their Brazilian hosts, flanked by stately palms; pictures at their friends’ beautiful beach house in Ubatuba; pictures of costumed samba dancers; and more pictures of scarlet and blue macaws, gaudy toucans, purple bougainvilleas, brilliant butterflies, and the rich magnificence of one of the last remaining patches of Brazil’s Atlantic coastal forest. The album provided a breathtaking display of natural and human exuberance painted in a profusion of vivid reds, blues, yellows, and, above all, greens. I could almost smell the myriad fragrances borne on the tropical breeze and hear one of my favorite sounds, the chattering of parrots far above in the treetops. As the pages turned, the phrase “hot spots” came into my mind, that graphic term for those patches of exceptionally high biodiversity—many of them in the tropics—that receive the lion’s share of attention from conservation biologists and others dedicated to the preservation of endangered species. I thought of the conservation argument that says if we want to preserve life, look first at the places where, acre for acre, the most kinds of life exist—where an acre can yield a hundred species of trees instead of a handful, and more species of insects than most of us can imagine.

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7

Carsia, Rocco V., and Sasha Malamed. "THE ADRENALS11Supported by United States Department of Agriculture Grant No. 85-CRCR-1-1846, National Institutes of Health Grant Nos. RR-5576, AG00468, New Jersey American Heart Association Chapters, Foundation of the College of Medicine and Dentistry of New Jersey, Rutgers University Research Council Grants, 1982, 1983, 1985 and the New Jersey Agricultural Experiment Station Project Nos. NJ06109, NJ06514." In Development, Maturation, and Senescence of Neuroendocrine Systems, 353–80. Elsevier, 1989. http://dx.doi.org/10.1016/b978-0-12-629060-8.50023-0.

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8

Goodell, Barry, Yuhui Qian, Jody Jellison, Michael Richard, and Weihong Qi. "Lignocellulose oxidation by low molecular weight metal-binding compounds isolated from wood degrading fungi: A comparison of brown rot and white rot systems and the potential application of chelator-mediated fenton reactions* *This is paper 2519 of the Maine Agricultural and Forest Experiment Station. We thank the Wood Utilization Research program at the University of Maine for support of this work. We also appreciate the assistance of Mr. Duan Hui and Ms. Jing Bian in the laboratory." In Progress in Biotechnology, 37–47. Elsevier, 2002. http://dx.doi.org/10.1016/s0921-0423(02)80006-5.

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Conference papers on the topic "University of Minnesota. Agricultural Experiment Station"

1

Gataulina G.G., G. G., and S. E. Pilipenko S.E. "Effect of biologically active substances on the pod formation of soybean plants in the Moscow region." In Растениеводство и луговодство. Тимирязевская сельскохозяйственная академия, 2020. http://dx.doi.org/10.26897/978-5-9675-1762-4-2020-48.

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The effect of biologically active substances Siliplant, Zircon and Epin-Extra on the formation of soybean productivity elements was studied in a field experiment carried out at the Field Experimental Station of the Russian State Agricultural University named after K.A. Timiryazev in 2020. The number of pods on average per plant increased in the variant Zircon by 17%, Siliplant and Epin-Extra by 9 and 11%, respectively. The number of pods on the main stable significantly increased by 9% compared to the control only when the plants were treated with Zircon. The number of pods on the lateral branches exceeded the control by 27 and 43% in the variants Epin-Extra and Zircon.

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2

Gataulina, G. G., and W. F. Konsago. "Effect of biologically active substances (BAS) on the growth of soybean plants." In Растениеводство и луговодство. Тимирязевская сельскохозяйственная академия, 2020. http://dx.doi.org/10.26897/978-5-9675-1762-4-2020-67.

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The effect of biologically active substances (BAS) Siliplant, Epin-Extra and Ekofus on the height and biomass of soybean plants was studied in a field experiment carried out at the Field Experimental Station of the Russian State Agricultural University named after K.A. Timiryazev in 2020. The treatment was carried out at the beginning of flowering according to the method developed by the authors of BAS (Epin-Extra - 40 ml / ha, Siliplant - 1.5 l / ha and Ekofus - 3 l / ha). The growth of plants in height in the variants with biologically active substances significantly exceeded the control by 10,6 – 11,4 %. The maximum plant biomass was registered during the period of seed filling and was significantly higher than the control by 11,1 - 11,4 %.

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3

Shaker Mahmoud, Raam, and Ammar Al-Zubade. "Effect of Gibberellin Spraying On Yield of Bean and Its Components." In IX. International Scientific Congress of Pure, Applied and Technological Sciences. Rimar Academy, 2023. http://dx.doi.org/10.47832/minarcongress9-11.

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A field experiment was conducted at the research field station of the Field Crops Department, College of Agricultural Engineering Sciences, University of Baghdad, Jadriya, during the year 2017-2018— the experiment aimed to study the effect of growth regulator gibberellin on broad bean growth and yield. In a factorial experiment according to RCBD design, the first factor was gibberellin spraying stages (the beginning of vegetative growth and the beginning of flowering), while the second factor was gibberellin concentrations (100, 200, and 300 mg L1), in addition to the comparison treatment, which was sprayed with water only. It was flowering by giving it the highest average plant height, number of pods, and seeds per pod. The results showed the superiority of the spraying stage at the beginning of flowering by giving it the highest mean of plant height, number of pods, and number of seeds per pod. In the spraying phase at the beginning of flowering (S2) and a concentration of 300 mg L-1, the highest average number of pods per plant reached 20.00 pods per plant. In comparison, a treatment at the beginning of flowering (S2) and a concentration of 200 mg L-1 achieved the highest average number of seeds per pod, reached 4.50 Seed in the pod, and achieved the spraying stage at the beginning of vegetative growth (S1) and the concentration was 200 mg L-1, the highest average was 133.3 g. We conclude from this study that spraying gibberellin at the beginning of flowering affected growth indicators and increased yield by increasing the averages of its components, especially by increasing the concentration of gibberellin at 200 and 300 mg L-1.

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4

Chamra, Louay M., Pedro J. Mago, Nick Stone, and Jason Oliver. "Micro-CHP (Cooling, Heating, and Power): Not Just Scaled Down CHP." In ASME 2006 Power Conference. ASMEDC, 2006. http://dx.doi.org/10.1115/power2006-88076.

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The paper will introduce the research community to the Mississippi Micro-CHP (Cooling, Heating, and Power) and Bio-fuel Center, a unique research, demonstration and education center combining the resources and expertise from Mississippi State University Engineering, Agriculture, and the Mississippi Agricultural and Forestry Experiment Station (MAFES). The center is a vertically integrated program to study and demonstrate the entire bio-fuel utilization cycle from “woodchips to micro-CHPs”: feedstock production, conversion to bio-fuel/biogas, conversion to onsite electrical power, and utilization of the resulting waste heat to provide the site’s cooling and heating needs. The “micro” designates a focus on residential, small commercial and rural applications. The coupling of micro-CHP with bio-fuels has to do with addressing regional and demographic consideration of successful micro-CHP implementation as opposed to a one-strategy-fits-all approach. The paper will contrast characteristics of residential and small commercial establishments versus commercial/industrial CHP systems and form a list of desirable characteristics for micro-CHP components and overall micro-CHP system design. Based on these evaluations, future research plans for the Center will be suggested. Another factor that will be stressed is that Micro-CHP will best be utilized if designed as part of a whole building system. The characteristics of the building are as important as the characteristics of the equipment, and both should be designed to work together synergistically.

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