Commentary - (2024) Volume 12, Issue 6
Investigating Stoichiometryâs Impact on Ecosystem Services in Organic Agricultural Systems
Nika Reetsch*
*Correspondence:
Nika Reetsch, Department of Environmental Sciences, Technische Universität Dresden, Pienner Str. 19, 01735 Tharandt,
Germany,
Email:
Department of Environmental Sciences, Technische Universität Dresden, Pienner Str. 19, 01735 Tharandt, Germany
Received: 02-Dec-2024, Manuscript No. jbes-25-159421;
Editor assigned: 03-Dec-2024, Pre QC No. P-159421;
Reviewed: 18-Dec-2024, QC No. Q-159421;
Revised: 24-Dec-2024, Manuscript No. R-159421;
Published:
30-Jan-2025
, DOI: 10.37421/2332-2543.2024.12.565
Citation: Reetsch, Nika. “Investigating Stoichiometry’s Impact
on Ecosystem Services in Organic Agricultural Systems.” J Biodivers Endanger
Species 12 (2024): 565.
Copyright: © 2024 Reetsch N. This is an open-access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution and reproduction in any medium, provided the original author and source are credited.
Introduction
The philosophy of organic farming is an integrated strategy in which all
components of farming systems are connected to one another and support
one another. Crop nutrition comes from a healthy, biologically active soil, pest
control comes from on-farm biodiversity, crop rotation and multiple cropping
keep the system healthy, and on-farm resource management with livestock
integration ensure productivity and sustainability. Organic management
places more emphasis on maximising productivity and minimising resource
use than it does on maximising productivity and overusing resources at the
expense of resources intended for future generations. The philosophy of
organic farming is an integrated strategy in which all components of farming
systems are connected to one another and support one another. Crop nutrition
comes from a healthy, biologically active soil, pest control comes from on-farm
biodiversity, crop rotation and multiple cropping keep the system healthy, and
on-farm resource management with livestock integration ensure productivity
and sustainability. Organic management places more emphasis on maximising
productivity and minimising resource use than it does on maximising
productivity and overusing resources at the expense of resources intended for
future generations [1].
Description
The purposeful efforts of motivated individuals to establish the finest
possible relationship between the land and humans have given rise to organic
agriculture. The environment surrounding organic agriculture has significantly
expanded in complexity since its inception. Certainly, its emergence into the
world of policymaking, its presence in the anonymous global market, and the
conversion of organic products into commodities present significant challenges
today. The worldwide community has become significantly more aware of the
need of protecting the environment and ensuring the quality of food during
the past two decades. Dedicated supporters of organic farming believe
that it can satisfy both of these needs and serve as the foundation for the
full development of rural areas. The general public is now accepting organic
agriculture after almost a century of growth. The guiding principle of organic
farming is an integrated approach in which all elements of farming systems are
interconnected and mutually supportive. Crop rotation and multiple cropping
maintain the system healthy. On-farm resource management with livestock
integration ensures productivity and sustainability. Crop nutrition comes from
a healthy, biologically active soil. Pest control comes from on-farm biodiversity
[2].
Organic farming theory this region is well accustomed to organic farming.
Anyone who attempts to write a history India and China must be mentioned
when discussing organic farming. These two's farmers Countries have been
farmers for forty centuries, and organic farming has kept them alive. The following concepts form the foundation of the organic farming concept: The
best agricultural model is nature because it doesn't require any inputs. Neither
asks for excessive amounts of water. The foundation of the entire system is
a profound knowledge of nature's workings. The system does not support
nutrient mining in the soil and does not alter it in any way to suit modern
requirements. In this approach, the soil is a living thing. Nearly 70% of the
population of India depends on agriculture for their livelihood, which has been
the foundation of the Indian economy. Organic farming coexists with nature, as
opposed to than opposed to it [3].
This entails employing methods to increase crop productivity without
endangering the natural environment, the inhabitants or those who work
and live there. Here, a farmer makes use of all his or her knowledge, various
methods and resources for collaborating with nature. Farmer creates a
good equilibrium in this way. Organic farming is extremely important in the
current environment because everyone is aware of their health. If we look
at the agricultural situation over the last three to four decades, the careless
usage of the destruction of soil was caused by pesticides, chemical fertilisers,
synthetic growth regulators, etc. quality, risky produce, and negative effects.
The organic agriculture sector is expanding quickly, and statistical data are
currently available from 154 sources [4].
For a sizeable portion of the world's population, wheat serves as their
primary source of food and is the second most widely farmed crop in the
world. For the processing sector, modern wheat cultivars must meet particular
technological quality standards. Intense genetic breeding efforts have
been made to produce products that meet these requirements. Contrarily,
conventional breeding has reduced genetic diversity and crop tolerance to
pedoclimatic and various habitats. Ancient wheat cultivars are being used
more frequently lately, which can be attributed to its improved nutraceutical
characteristics, increased resilience to climate change, and cheaper input
needs. On the one hand, organic farming focuses on preserving the natural
fertility of the soil while using less outside inputs. On the other side, the
system is hampered by the lower yields per hectare and, thus, the greater
amount of land needed to meet the demand for food. To evaluate the actual
environmental effects of organic and conventional farming systems, a thorough
evaluation of the literature was recently conducted throughout the scientific
community. Principal findings revealed significant variation, primarily owing
to pertinent differences in management techniques as well as differences in
the two agricultural systems' analytical approaches that make comparisons
challenging [5].
Conclsuion
Even when using similar agricultural practises, zoning various agricultural
aptitude groups may result in distinct outcomes. Recent research confirmed
that organic farming is not an effective way to maximise land use efficiency,
supporting the findings of who reported that organic farming requires about
84% more land than conventional farming. This is mostly caused by the lower
yields (from crops and animals) compared to conventional farming, which
range from 20 to 34% less. Lower yields in organic farming are typically
caused by nutritional deficiencies, weeds, pests, and illnesses. Based on
the discrepancies described in the literature, a thorough analysis that takes
into account the most significant effect categories is essential. The present
literature mostly concentrates on a small number of effect categories. There
aren't many articles that examine every category that exists, and they hardly
ever compare organic with conventional farming. The dearth of studies on the
environmental effects of growing ancient wheat types in both conventional and organic farming systems emphasises the importance of this research.
References
- Abdi, Ehsan. "How does organic matter affect the physical and mechanical properties of forest soil?." J Forstry Res 29 (2018): 657-662.
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- Barbeta, Adrià. "An explanation for the isotopic offset between soil and stem water in a temperate tree species." N Phytologist 227 (2020): 766-779.
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