Comparison of Field Seeding of Sugar Beets and Mangel Wurzels with Two Methods of Transplanting 1

Similar documents
Effect of Method of Application of Double Superphosphate on the Yield and Phosphorus Uptake by Sugar Beets 1

Plant Tissue Testing as a Guide to Side-Dressing Sugar Beets 1

Some Crossing Experiments with Sugar Beets

Utilization of Phosphorus From Various Fertilizer Materials By Sugar Beets in Colorado 1

Refinements in the Technique of Isolating By Bags and Cages 1

The Sun-Blotch Disease of Avocado

THE EFFECTS OF MINITUBER SIZE AND HARVEST DATE ON GERMINATION, TUBER SET, AND YIELD OF RUSSET BURBANK POTATOES. Steven R. James '

FIELD TRIALS FOR RESISTANCE TO PHYTOPHTHORA ROOT ROT

Effect of Plant Spacing on Performance of Six Sugarbeet Hybrids

Asparagus investigations in south Louisiana

ROTATION CROP EFFECTS ON RHIZOCTONIA DISEASES OF SUGARBEET IN INFESTED FIELDS. Carol E. Windels and Jason R. Brantner

PRELIMINARY OBSERVATIONS ON WHITE LUPINE AT MADRAS AND REDMOND, OREGON, IN J. Loren Nelson '

Soil Structure in Relation to Beet Growth

APPLICATION METHOD AND RATE OF QUADRIS FOR CONTROL OF RHIZOCTONIA CROWN AND ROOT ROT. Jason R. Brantner and Carol E. Windels

VEGETATIVE PROPAGATION OF MATURE SYCAMORE. Samuel B. Land, Jr, 1

Black Root of Sugar Beets and Possibilities for Its Control

SUNFLOWER COMPETITION

Sugarbeets Enjoy Warm Winter

Soil Moisture Range and the Growth of Young Lemon and Avocado Plants

2017 Sweet Potato Slip Production Research Update

The Use of Coated Seed in Modern Agriculture

THE UNIVERSITY OF ILLINOIS LIBRARY

Evaluation of new low- and moderate-chill peach cultivars in coastal southern California

Relationship of Soil Moisture and Drainage Conditions to Tree Decline in Avocado Orchards *

Growth and nutrient absorption of grapes as affected by soil aeration. I. With non-bearing Delaware grapes A. KOBAYASHI, K. IWASAKI and Y.

Effect of Five Planting Dates on Yield of Six Sweet Onions

Selection of Clonal Avocado Rootstocks in Israel for High Productivity under Different Soil Conditions

THE IMMEDlATE EFFECT OF CROSS-POLLINATION ON THE SIZE AND SHAPE OF BEAN SEED

Managing Phosphorus to Optimize Potato Tuber Yield in the San Luis Valley

Oxygen Diffusion, Water, and Phytophthora cinnamomi in Root Decay and Nutrition of Avocados 1

USE OF THE ETIOLATION TECHNIQUE IN ROOTING AVOCADO CUTTINGS

Spacing Affects Yield, Size of Carrots

Bacterial Vascular Necrosis and Rot of Sugarbeet: Genetic Vulnerability and Selecting for Resistance E. D. Whitney and R. T.

California Avocado Society 1958 Yearbook 42: GRAFT COMPATIBILITY IN THE GENUS PERSEA

Research Report: Effects of early season heating, low tunnels, and harvest time on ginger yields in NH, 2017 Introduction. Zingiber officinale

Ditylenchus dipsaci, which proliferates in the storage

Potassium Applications and Yellow Shoulder Disorder of Tomatoes in High Tunnels

Agronomy Notes Vol 32 No Root growth and development of float tobacco transplants before and after. transplanting

THE USE OF A SMALL HYDROPONIC SYSTEM FOR PRODUCING MARIGOLDS

How Important Are Bacteria for the Vase Life of Cut Gerbera Flowers?

Research Progress Report Southern Region Small Fruit Consortium

Soil moisture extraction and physiological wilting of cotton on Mississippi River alluvial soils

Alpine Russet Management Recommendations Idaho

Root Temperature Effects on the Growth of Walnut and Avocado Seedlings

PHYTOPHTHORA ROOT AND RUNNER ROT OF CRANBERRY IN WISCONSIN- THE CURRENT SITUATION

H. E. Sommer, H. Y. Wetzstein and N. Lee

TOLERANCE OF OPEN-POLLINATED DICKINSON AVOCADO SEEDLINGS TO LIME SOIL

THE POSSIBILITY OF CONTROLLING SCLEROTIUM ROLFSII ON SOYBEAN (GLYCINE MAX) USING TRICHODERMA AND TEBUCONAZOLE*) OKKY S.

report on PLANT DISEASE SOYBEAN SEED QUALITY AND FUNGICIDE SEED TREATMENT

4. VEGETATIVE PROPAGATION

Recommended Resources: The following resources may be useful in teaching this

Prediction of Sweet Corn Seeds Field Emergence under Wet Soil Condition

Agronomic Evaluations of an Arkansas Rock Phosphate

Phytotoxicity and Efficacy of Rhapsody (Bacillus subtilis) for Control of Botrytis cinerea on Lily (Lilium Star Gazer and Show Winner )

MSU Extension Publication Archive. Scroll down to view the publication.

XI B R.AR.Y OF THE UNIVERSITY OF ILLINOIS G30.7. HGb. ho.354-3g3. cop. 2. TCR1CUITURE

EFFECT OF TUBER PLACEMENT ON YELLOW NUTSEDGE REPRODUCTION

EFFECT OF PHOSPHATIC FERTILIZER RATES LEVEL ON GROWTH, CRUDE PROTEIN CONTENT AND NITROGEN FIXATION ABILITY OF ALFALFA AT SOWING YEAR

JUNE La'Wn Seeding. L. E. Longley. University of Minnesota Agricultural Experiment Station

SELECTING CRIMSON CLOVER FOR HARD SEED AND LATE MATURITY. G. W. Evers and G. R. Smith

Chap 12. Plant Propagation. I. Three Methods of Plant Propagation

SPINACH EARLY AND LATE. Circular 404 BY J. W. LLOYD UNIVERSITY OF ILLINOIS COLLEGE OF AGRICULTURE AND AGRICULTURAL EXPERIMENT STATION

Greenhouse tomato experiments

INFLUENCE OF GLASSHOUSE CONDITIONS ON FLOWER BEHAVIOR OF HASS AND ANAHEIM AVOCADOS

-636. The Amaryllis TEXAS A&M UNIVERSITY TEXAS AGRICULTURAL EXTENSION SERVICE. }. E. Hutchison, Director, College Station, Texas

TRANSPLANTING METHODS FOR THE CULTIVATION OF CORN LILY (VERATRUM CALIFORNICUM)

MATERIALS AND METHODS

Adaptation and selection in Salt treated Arabidopsis Dr Jeremy Pritchard, Biosciences, Birmingham.

\ as a Medium. \ for Anthuriums \ H. Y. Nakasone H. Kamemoto. \ Wood Shavings \ HAWAII AGRICULTURAL EXPERIMENT STATION. ~.z. NOVEMBER 1957 CIRCULAR 53

Selecting Quality Trees from the Nursery. Created from research by Dr. Edward F. Gilman and Traci Partin (University of Florida)

GUIDE TO EVALUATING THE RISK OF DISEASE IN A GREENHOUSE

ZOYSIA GRASS. Rfo FOR ILLINOIS LAWNS. e:() ~t'/,,~, ~' ' A~ Y10.77l{ C l. - () ~'V' ~'v " ,r.,...<'".",\.' VV. By H. R. Kemmerer and F. F.

ACTIVITY 2 How Does Your Garden Grow?

Grower Summary HNS 168. Rosaceous trees: evaluation of treatments for control of replant disease in Sorbus aucuparia. Final 2011

Role of Plant Hormones on Vegetative Growth of Tomato (Lycopersicon esculentum Mill.)

'UF Multi-flora Peach' and 'UF Multi-flora Pink Frost' Gerberas - University of Florida Cultivars for Landscapes and Large Pots 1

Inbred Planting Technique for Nakhon Sawan 3 Hybrid Maize Seed Production

TAXONOMY Family Names Family Scientific Name: Scientific Names

FUTURE ORCHARDS Crop Loading. Prepared by: John Wilton and Ross Wilson AGFIRST Nov 2007

The quest for acid-tolerant lucerne

Purposes and Uses of Hedges

Assessment of aluminium stress tolerance of triticale breeding lines in hydroponics

Agronomy of Castor Beans. Crop Research Unit Research & Development Division Ministry of Industry Commerce Agriculture & Fisheries

+id 1:;~ T. C. Juang and G. Uehara Taiwan Sugar Experiment Station Taiwan and Hawaii Agricultural Experiment Station Honolulu, Hawaii

EFFECTS OF AMMONIUM LIGNOSULFONATE ON SOIL MICROBIAL POPULATIONS, VERTICILLIUM WILT, AND POTATO SCAB.

FAILURE TO CONTROL PHYTOPHTHORA CINNAMOMI AND PYTHIUM SPLENDENS WITH METALAXYL AFTER ITS PROLONGED USE

EFFECT OF IN-FURROW FUNGICIDE APPLICATION METHOD ON CONTROL OF RHIZOCTONIA AND SUGARBEET STAND ESTABLISHMENT. Jason R. Brantner and Jeffrey D.

Cereal Seed Health and Seed Treatment Strategies: Exploiting new seed testing technology to optimise seed health decisions for wheat.

APES- Environmental Effects of Radiation Laboratory Activity. Purpose: To see the effect of the seed irradiation on germination and plant growth

VENTURA COUNTY AVOCADO ROOT ROT RESISTANCE PLOT

A Preliminary Report on Asparagus Harvest Duration

Name: Plants and Minerals. Class: Date: 29 minutes. Time: 29 marks. Marks: Level 1,2 and 3. Increasing demand. Comments:

Further Evaluation of Biological Control Agents for Verticillium Wilt in Peppermint. Sai Sree Uppala, Bo Ming Wu, Mark Hagman and Jim Cloud

Effects of Pre-chilling and Pre- and Post-budbreak Temperature on the Subsequent Growth and Cut-flower Quality of Forced Tree Peony

Effect of Soil Amendment with Dry and Wet Distillers Grains on Growth of Canola and Soil Properties

Vegetarian Newsletter

Root Growth and Development of Float Tobacco Transplants Before and After Transplanting

MEDLEY 50G SYSTEMIC GRANULAR FUNGICIDE

Solutions for Pot-in-Pot Root Escape, Root Circling, and Heat Shock at Harvest by Dr. Carl E. Whitcomb

Grafting and Rootstock Effects on Fruit Yield and Composition in Organic, Field-grown Tomato

Transcription:

PROCEEDINGS THIRD GENERAL MEETING 377 Literature Cited 1. Deming, G. W. Comparative Yields of Equal Plant Populations of Sugar Beets with Different Spacing Relations. Proc. Amer. Soc. Sugar Beet Techn. 3 (i. e. 2, 1940) : 32-36. (1941) No. 1. 2. Gaskill, J. O., and G. W. Deming. Wide Spacing as an Aid In Selection. Proc. Amer. Soc. Sugar Beet Techn. 1 (1938) : 40-41. 3. Nuckols, S. B. Methods of Testing Sugar-Beet Varieties. Presented before the American Society of Agronomy, Washington, D. C., Nov. 20, 1936. 4. Nuckols, S. B. Growing of Sugar Beets in Hills Free from Competition. Proc. Amer. Soc. Sugar Beet Techn. 1 (1938) : 39-40. Comparison of Field Seeding of Sugar Beets and Mangel Wurzels with Two Methods of Transplanting 1 JOTIN- O. GASKILL 2 Experiments regarding transplanting of sugar beets for commercial beet-sugar production have been reported by Nuckols (2), Pritchard and Longley (3), Goss and Holt (1), and various other investigators. The reports differed as to the feasibility of transplanting for this purpose, and the method has not come into general use. Transplanting of seedlings obtained from very small seedlots recently has become a common practice in connection with sugar-beet breeding work. The principal reasons for the adoption of this method are: First, that the limited numbers of seedlings obtained from such seedlots can be used to maximum advantage, and second, that gaps 1 Contribution from the Division of Sugar Plant Investigations, Bureau of Plant Industry, U. S. Department of Agriculture. 2 Assistant Pathologist, located at Fort Collins, Colo. The writer is indebted to R. Ralph Wood, Agent, for assistance in carrying out the details of this experiment.

373 AMERICAN SOCIETY SUGAR-BEET TECHNOLOGISTS in stand largely can be avoided. It is recognized that transplanting of sugar-beet seedlings ordinarily causes abnormal branching of the tap root, but it has been assumed that neither this change in type of root growth nor other effects of transplanting interfere seriously with development of final root size and sucrose percentage, in so far as comparison between strains or individual plants is concerned, provided that the population in any given test is made up entirely of transplanted seedlings. The preliminary experiment reported in this paper was conducted for the purpose of comparing relative performance of widely differing types of beets grown from direct field seeding and from transplanted seedlings, respectively. A wide-spacing arrangement was used in order to avoid the effects of competition. Methods Ten sugar-beet varieties or strains, three mangel-wurzel varieties, and two F 1 hybrids of mangel wurzels and sugar beets, representing a wide range of types in both root-yielding ability and sucrose percentage, were used in the experiment. In the field, plants were spaced 40 inches apart in 40-inch rows, and plots were 1 row wide and 23.3 feet long. Each variety occurred in a compact block of 3 plots in which the following treatments were applied, respectively: a. Seed planted in field, directly. b. Seed planted in 3-inch flower pots in the greenhouse; seedlings transplanted in field 4 weeks later. c. Seed planted in 1 x 8-inch paper tubes in greenhouse; seedlings transplanted in field 4 weeks later. In each treatment seed was planted on May 4, 1940. In order to offset an expected nitrate deficiency in the paper tubes, they were watered, during the third and fourth weeks after seeding, solely with a 0.7-percent solution of sodium nitrate ; and a few days after transplanting, each of these plants was given a surface application of approximately 1 heaping teaspoonful of sodium nitrate. Thinning of plants in pots and tubes was done before transplanting, leaving a single plant in each container. Thinning of plants of treatment "a" was done about June 13. All roots were dug on September 27, trimmed as mother beets (see fig. 1), and washed. After a short period of storage in the root cellar, each beet was weighed and analyzed for sucrose percentage. Analysis was performed by means of a standard boring method.

PROCEEDINGS -THIRD GENERAL MEETING 379 Figure 1. Representative roots of an F 1 hybrid, of sugar beet x mangel wurzel, which were grown to maturity in the field, under 40 x 40-mch spacing, after being started as follows: ta) direct field seeding, (b) seedlings started in 3 inch flower pots, and (c) seedlings started in 1 x 8-inch paper tubes. Note differences between treatments in length and degree of branching of the fleshy part of the tap root. Rule at left is 18 inches long. Results As shown in the summary of results (table 1), the correlation coefficients for weight of root were 0.91 for treatments "a" versus "b" and 0.85 for "a" versus "c". For sucrose percentage the coefficients were 0.96 for treatments "a" versus "b" and 0.97 for "a" versus "c ". All four of these values were highly significant. Coefficients of variability for weight of root did not differ significantly, but the difference approached significance in one case, namely: Treatment "b" (28.05) and "c" (35.92), suggesting that the tube method of transplanting ("c") tended toward a greater variability between individual plants. In sucrose percentage, none of the differences between coefficients of variability approached significance. The average weight of root for treatment "a" was larger than that for treatments "b" and "c", being significantly larger than the latter. In sucrose percentage the treatment means were almost identical. In comparing the three treatments as to apparent effect upon the fleshy part of the tap root (see figure 1), it was noted that the tube method of transplanting did not materially affect root shape, while the use of pots resulted in short, highly branched roots.

380 AMERICAN SOCIETY SUGAR-BEET TECHNOLOGISTS Table 1. Comparison of field seeding of sugar beets, mangel wurzels, and their hybrids with 2 methods of transplanting ; data obtained by weighing and analyzing individually 239 roots grown under 40 x 40-inch spacing. Treatments (seed planted May 4, 1940) : a. Seed planted in field, directly, b. Seed planted in 3-inch flower pots in greenhouse; seedlings transplanted in field 4 weeks later. e. Seed planted in 1 x 8-inch paper tubes in greenhouse; seedlings transplanted in field 4 weeks later. +Thinned to known F1 plants, by means of red-hypocotyl color factor. Calculated from individual-root data. ^Calculated from plot means shown above.

PROCEEDINGS THIRD GENERAL MEETING 381 Summary and Conclusions Under the conditions of this experiment, relative root size and sucrose percentage of transplanted beets closely paralleled root size and sucrose percentage of beets grown directly from field seeding. Root shape of plants started in 1 x 8-inch paper tubes was more nearly normal than that of plants started in 3-inch flower pots, but in weight of root the latter class of plants more nearly approached the performance of field-seeded beets. The data presented suggest that satisfactory preliminary evaluation of the root-yielding ability and sucrose percentage of new strains of sugar beets can be made, under suitable conditions, and in the relative absence of competition, by means of transplanted seedlings. The occurrence of root diseases was negligible in this experiment, but the greater possibility of root infection afforded by rootlets broken during the transplanting process should not be overlooked. Literature Cited 1. Goss, A., and A. M. Holt. New Mexico Sugar Beets 1898, N. M. Agri. Exp. Sta. Bul. 29 : 194. 1899. 2. Nuckols, S. B. Transplanting Sugar Beets in Utah and Idaho. U. S. D. A. Circ. 156, 14 p. 1931. 3. Pritchard, F. J., and L. E. Longley. Experiments in Transplanting Sugar Beets. Jour. Amer. Soc. Agron. 8 : 106-110, 1916. Mosaic and Seed Production H. E. BREWRAKER 1 When Gaskill reviewed previous literature and presented experimental data obtained in 1938 and 1939 bearing on the effect of mosaic upon seed production in the sugar beet, he found from 23 to 39 percent loss in seed production for mosaic-affected plants as compared with those not affected, the infection having occurred during the vegetative year. 2 In one test, apparently healthy plants were inoculated with mosaic 1 month after planting out for seed production with a measured loss of 26 percent in seed production. There was no significant effect on germination in any of his tests. Agronomist, The Great Western Sugar Company. 2 Gaskill, John O. Effect of Mosaic Upon Yield of Seed by Sugar-beet Roots, Proc. of A. S. S. B. T. 2:190-207. 1940.