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Managed Ecosystems and CO2: Case Studies, Processes, and Perspectives

Josef Nösberger ; Stephen P. Long ; Richard J. Norby ; Mark Stitt ; George R. Hendrey ; Herbert Blum (eds.)

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Disponibilidad
Institución detectada Año de publicación Navegá Descargá Solicitá
No detectada 2006 SpringerLink

Información

Tipo de recurso:

libros

ISBN impreso

978-3-540-31236-9

ISBN electrónico

978-3-540-31237-6

Editor responsable

Springer Nature

País de edición

Reino Unido

Fecha de publicación

Información sobre derechos de publicación

© Springer-Verlag Berlin Heidelberg 2006

Tabla de contenidos

Introduction

J. Nösberger; S. P. Long

Part A - Introduction | Pp. 3-13

FACE Technology: Past, Present, and Future

G. R. Hendrey; F. Miglietta

We have started down the path of using OOP in a verification system. We talked about the main theme, creating roles and responsibilities by using abstraction. We talked about the common design biases used when we design a verification system.

You probably are still surrounded by clouds of uncertainty. This is understandable. The next chapters are more specific, talking about making classes and the different ways to connect them.

For now, however, know that designing with OOP is about defining roles and responsibilities and making levels of abstraction, a “layering” for which there are many examples in our everyday lives. To achieve your own design objectives in silicon, use your experience to guide the process.

Part A - Introduction | Pp. 15-43

The Effects of Free-Air [CO] Enrichment of Cotton, Wheat, and Sorghum

B. A. Kimball

Part B - Case Studies | Pp. 47-70

SoyFACE: the Effects and Interactions of Elevated [CO] and [O] on Soybean

D. R. Ort; E. A. Ainsworth; M. Aldea; D. J. Allen; C. J. Bernacchi; M. R. Berenbaum; G. A. Bollero; G. Cornic; P. A. Davey; O. Dermody; F. G. Dohleman; J. G. Hamilton; E. A. Heaton; A. D. B. Leakey; J. Mahoney; T. A. Mies; P. B. Morgan; R. L. Nelson; B. O’Neil; A. Rogers; A. R. Zangerl; X. -G. Zhu; E. H. DeLucia; S. P. Long

The SoyFACE experiment is the first to focus on the affects of e[CO] and e[O] on a seed legume under fully open-air conditions. The experiment mimicked e[CO] and e[O] predicted for the middle of this century and was conducted in one of the world’s major production areas for corn and soybean under cultivation and management techniques standard for the industry in the United States corn-belt region.Growth of soybean at e[CO] resulted in an approximately 25 % increase in the daily integral of net leaf CO2 uptake, a 20% increase in the rate of light saturated CO uptake, a 15 % increase in seed yield, a 15 % increase in above ground primary productivity, and a 20 % increase in node number. Growth of soybean at e[CO] also resulted in approximately a 30 % decrease in mid-day stomatal conductance, a 10 % decrease in stomatal conductance averaged over the day, an 8% decrease in the limitation of photosynthesis by stomatal conductance, and a 2–3 % decrease in harvest index.

Growth of soybean at e[CO] caused about a 5% decrease in the ratio of maximum carboxylation capacity compared to maximum electron transport capacity, indicative of acclimation to optimize photosynthetic performance to the higher [CO] conditions.Growth of soybean at e[CO] extended the growing season and resulted in increased herbivory by Japanese beetles.

Growth of soybean at e[O] was largely deleterious to soybean although the effects developed slowly over the course of the growing season. e[O3] resulted in decreases in seed yield (15–25 %), above-ground primary productivity (11–23 %), and harvest index (2–3 %). Growth at e[O] caused accelerated senescence of the crop.

Part B - Case Studies | Pp. 71-86

Paddy Rice Responses to Free-Air [CO] Enrichment

K. Kobayashi; M. Okada; H. Y. Kim; M. Lieffering; S. Miura; T. Hasegawa

We have started down the path of using OOP in a verification system. We talked about the main theme, creating roles and responsibilities by using abstraction. We talked about the common design biases used when we design a verification system.

You probably are still surrounded by clouds of uncertainty. This is understandable. The next chapters are more specific, talking about making classes and the different ways to connect them.

For now, however, know that designing with OOP is about defining roles and responsibilities and making levels of abstraction, a “layering” for which there are many examples in our everyday lives. To achieve your own design objectives in silicon, use your experience to guide the process.

Part B - Case Studies | Pp. 87-104

Growth and Quality Responses of Potato to Elevated [CO]

M. Bindi; F. Miglietta; F. Vaccari; E. Magliulo; A. Giuntoli

Free-air CO enrichment studies have been a valuable tool for the investigation of plant and ecosystem responses to rising CO levels. The challenges for the next phase of FACE research are clear.

Part B - Case Studies | Pp. 105-119

Responses of an Arable Crop Rotation System to Elevated [CO]

H. J. Weigel; R. Manderscheid; S. Burkart; A. Pacholski; K. Waloszczyk; C. Frühauf; O. Heinemeyer

We have started down the path of using OOP in a verification system. We talked about the main theme, creating roles and responsibilities by using abstraction. We talked about the common design biases used when we design a verification system.

You probably are still surrounded by clouds of uncertainty. This is understandable. The next chapters are more specific, talking about making classes and the different ways to connect them.

For now, however, know that designing with OOP is about defining roles and responsibilities and making levels of abstraction, a “layering” for which there are many examples in our everyday lives. To achieve your own design objectives in silicon, use your experience to guide the process.

Part B - Case Studies | Pp. 121-137

Short- and Long-Term Responses of Fertile Grassland to Elevated [CO]

A. Lüscher; U. Aeschlimann; M. K. Schneider; H. Blum

Part B - Case Studies | Pp. 139-155

Impacts of Elevated CO on a Grassland Grazed by Sheep: the New Zealand FACE Experiment

P. C. D. Newton; V. Allard; R. A. Carran; M. Lieffering

Because e[CO] causes partial stomatal closure, transpiration from plant leaves is reduced, which has many ramifications for plant water relations, which can be summarized as follows:

Part B - Case Studies | Pp. 157-171

Responses to Elevated [CO] of a Short Rotation, Multispecies Poplar Plantation: the POPFACE/EUROFACE Experiment

G. Scarascia-Mugnozza; C. Calfapietra; R. Ceulemans; B. Gielen; M. F. Cotrufo; P. DeAngelis; D. Godbold; M. R. Hoosbeek; O. Kull; M. Lukac; M. Marek; F. Miglietta; A. Polle; C. Raines; M. Sabatti; N. Anselmi; G. Taylor

We have started down the path of using OOP in a verification system. We talked about the main theme, creating roles and responsibilities by using abstraction. We talked about the common design biases used when we design a verification system.

You probably are still surrounded by clouds of uncertainty. This is understandable. The next chapters are more specific, talking about making classes and the different ways to connect them.

For now, however, know that designing with OOP is about defining roles and responsibilities and making levels of abstraction, a “layering” for which there are many examples in our everyday lives. To achieve your own design objectives in silicon, use your experience to guide the process.

Part B - Case Studies | Pp. 173-195