Climate Change and Production of Horticultural Crops

Author(s):  
Jagan Singh Gora ◽  
Ajay Kumar Verma ◽  
Jitendra Singh ◽  
Desh Raj Choudhary
Author(s):  
O. Adebisi-Adelani ◽  
M. Akeredolu

ABSTRACT Production is the basis of value-chain which is a key factor in Agricultural Transformation Agenda (ATA) in Nigeria. Thus, for successful production of horticultural crops the importance of climate cannot be overemphasized. Therefore, in this era of climate change there is the need to study farmers' knowledge of climate change and their production level. The study was carried out in Nigeria. Multistage sampling technique was used to arrive at a study population of 441 tomato and citrus farmers. Data were collected using Focus Group Discussions (FGDs), structured interview schedule and secondary data (FAOSTAT). It was analyzed using descriptive statistics (frequencies, percentage and pie charts) and inferential statistics (Pearson Product Moment Correlation). There existed no significant relationship between knowledge level of respondents and change in production of both crops. The reason for this could be that no matter what the level of knowledge one may have on the subject of climate change it does not have anything to do with production, adaptation strategies is the key. Citrus and tomato farmers' adaptation strategies to climate change includes among others crop management, use of varieties resistant to pests and diseases, altering the timing or location of cropping activities, different planting dates and shortened length of growing period. In conclusion climate change has affected the production of horticultural crops therefore for ATA to have a good footing there is the need to focus on the adaptation strategies that can combat the effect of climatic changes. Key words: Horticultural crops, Horticultural farmers, Climate, Production, Knowledge,


Author(s):  
Abraham Verghese ◽  
Poluru Venkata Rami Reddy ◽  
Krishnappa Nagarathna Chandrasekhara ◽  
Hospete Kenchaiah Roopa

Agronomy ◽  
2020 ◽  
Vol 10 (6) ◽  
pp. 794 ◽  
Author(s):  
Daniela Sangiorgio ◽  
Antonio Cellini ◽  
Irene Donati ◽  
Chiara Pastore ◽  
Claudia Onofrietti ◽  
...  

In the current scenario of rapidly evolving climate change, crop plants are more frequently subjected to stresses of both abiotic and biotic origin, including exposure to unpredictable and extreme climatic events, changes in plant physiology, growing season and phytosanitary hazard, and increased losses up to 30% and 50% in global agricultural productions. Plants coevolved with microbial symbionts, which are involved in major functions both at the ecosystem and plant level. The use of microbial biostimulants, by exploiting this symbiotic interaction, represents a sustainable strategy to increase plant performances and productivity, even under stresses due to climate changes. Microbial biostimulants include beneficial fungi, yeasts and eubacteria sharing the ability to improve plant nutrition, growth, productivity and stress tolerance. This work reports the current knowledge on microbial biostimulants and provides a critical review on their possible use to mitigate the biotic and abiotic stresses caused by climate changes. Currently, available products often provide a general amelioration of cultural conditions, but their action mechanisms are largely undetermined and their effects often unreliable. Future research may lead to more specifically targeted products, based on the characterization of plant-microbe and microbial community interactions.


2021 ◽  
pp. 95-109
Author(s):  
Muhammad Saqib ◽  
Muhammad Akbar Anjum ◽  
Muhammad Ali ◽  
Riaz Ahmad ◽  
Muhammad Sohail ◽  
...  

2019 ◽  
Vol 38 (1) ◽  
pp. 55
Author(s):  
Yusdar Hilman ◽  
Suciantini Suciantini ◽  
Rini Rosliani

<p>Horticultural products (fruits, vegetables and ornamental crops) which have high competitiveness and added value, require supporting appropriate cultivation technology. The objective of this paper was to sort out adaptive technologies that can be implemented for horticultural cultivation, especially on dry land, to minimize yield loss due to climate changes. Horticultural crops in dry lands faced various problems. Characteristics of horticultural crops, among others were easily damage, bulky, sensitive to water stress and the incidence of pests and diseases. Another issue that has begun to happen in the field is the occurrence of extreme climate change, especially El Nino or La Nina that caused crop failures, damage to agricultural land resources, increased in frequency, extent, and intensity of drought, increased moisture, increased in the susceptibility to pests and the disease. Thus the integrated efforts that are needed in strengthening the capability of dry land to face climate change are by the application of adaptative technology, drafting disaster mitigation concepts, observing climate change, policy analysis related to the application of adaptive technology on climate change. The discussed Horticulture Commodities are focused on economically profitable crops, including: vegetables (potatoes, shallots, chili), fruits (bananas, citrus and melons) and ornamental crops (chrysanthemums, orchids, Polycias and Gerbera) scattered in two zoning zones where namely (i) lowland (0-600 meters above sea level); (ii) highlands (&gt; 600 meters above sea level) and (iii) in both elevations of the site which have wet climates and dry climates. Attempsto be made to promote horticultural crops include performing water-efficient irrigation (drip irrigation), mulching, the use of shading on certain crops, proper fertilization, the use of organic fertilizer, planting system and planting distance, and tolerant varieties. Some adaptative technologies that can be adopted for horticultural crops include (1) developing watersaving irrigation technologies (drip and sprinkler irrigation on shallots), (2) applying healthy crop cultivation (good quality seeds, variety tolerant to disease and sub-optimal environment for tomatoes, red or hot chilli shallots and bananas), (3) using environmentally friendly chemical control (concept of threshold control in red or hot chilli), (4) protecting yield and quality of harvest (the use of silver black mulch on shallots and melons, and the use of shade for ornamental plants on dry land).</p><p>Keywords: Horticulture, climate change, upland, adaptation technology</p><p> </p><p><strong>Abstrak</strong></p><p>Sistem produksi hortikultura (buah buahan, sayuran, dan tanaman hias) yang berdaya saing tinggi dan bernilai tambah memerlukan dukungan teknologi. Tulisan ini merangkum teknologi adaptasi komoditas hortikultura pada lahan kering dalam upaya meminimalisasi tingkat kehilangan hasil akibat perubahan iklim. Usaha tani tanaman hortikultura pada lahan kering dihadapkan pada berbagai masalah, di antaranya tanaman mudah dan cepat rusak, sensitif terhadap cekaman lingkungan, dan rentan terhadap hama dan penyakit. Masalah lain yang berdampak negatif terhadap sistem produksi komoditas hortikultura ialah perubahan iklim ekstrem, terutama el-nino dan la-nina. Perubahan iklim tidak hanya menyebabkan kegagalan panen, tetapi juga merusak sumber daya lahan pertanian, meningkatkan luas areal dan intensitas tanaman yang mengalami kekeringan, meningkatkan kelembaban, dan perkembangan hama dan penyakit tanaman. Oleh karena itu diperlukan integrasi pengelolaan lahan dan aplikasi teknologi adaptif perubahan iklim, penyusunan konsep mitigasi bencana, observasi perubahan iklim, dan analisis kebijakan yang terkait dengan aplikasi teknologi adaptasi terhadap perubahan iklim. Pembahasan difokuskan pada tanaman yang secara ekonomi menguntungkan, antara lain kentang, bawang merah, cabai untuk komoditas sayuran; pisang, jeruk, dan melon untuk komoditas buah-buahan; dan krisan, anggrek, polycias dan gerbera untuk tanaman hias. Komoditas hortikultura tersebut tersebar di dua zonasi ketinggian tempat, yakni dataran rendah (0–600 m dpl) dan dataran tinggi (&gt; 600 m dpl). Beberapa teknologi adaptasi yang dapat diadopsi di antaranya (1) irigasi hemat air (irigasi tetes dan irigasi curah pada bawang merah), (2) budi daya tanaman sehat (benih bermutu, varietas toleran penyakit dan lingkungan suboptimal untuk komoditas kentang, cabai, bawang merah, dan pisang, (3) pengendalian hama dan penyakit ramah lingkungan (konsep ambang pengendalian pada cabai, jeruk), dan (4) perlindungan hasil dan peningkatan kualitas hasil panen (penggunaan mulsa plastik hitam perak pada tanaman bawang merah dan melon, serta penggunaan naungan pada tanaman hias anggrek dan krisan). Kata kunci: hortikultura, perubahan iklim, lahan kering, teknologi adaptasi</p>


Italus Hortus ◽  
2020 ◽  
Vol 27 ◽  
pp. 1-1
Author(s):  
Boris Basile ◽  
Hilary Rogers ◽  
Youssef Rouphael

Horticulture, as one of the main agricultural pillars, plays a leading role in the 2030 Agenda for Sustainable Development currently adopted by the United Nations. Wellbalanced but creative and far-sighted models for the future of the horticultural sector are needed to assure food security, decrease poverty, counteract environmental degradation and combat climate change. During the last few decades, the international horticultural scientific community has produced a large body of research aiming to support the development of this critical agricultural sector. Italus Hortus (IH) aims to contribute to this challenging goal, covering all aspects of horticulture where a science-based innovation is possible and required. One of these aspects is the definition of innovative cultivation strategies and post-harvest technologies to allow yield stability and quality improvement. The latter includes also the design of cultivation models that by increasing the resilience of the horticultural crops, can mitigate the impact of climate change on the quantitative and qualitative yield performance of the cultivations. At the same time, horticulture will become one of the main actors of a more circular and climate-neutral economy. Increasing attention will be given to the study of cultivation strategies that can help to reduce soil degradation, and the negative effects of current horticultural management on the environment (smart and efficient use of the required inputs, introduction of environmentally-friendly biodegradable plastics, etc.). Some of these goals will be also achieved by increasing the technological level of agriculture including integrating modeling, proximal/remote sensing, mechanization/automation/robotics, mapping, geomatics, decision making, and/or statistics to define a more precise and smart horticulture. In addition, our scientific community will play a major role in supporting the research of innovative cropping systems, such as vertical farming and other solutions useful for the development of urban greening/agriculture (vertical gardens) and/or space farming. As new Editors of Italus Hortus, we are fully aware of the large volume of new sciencebased insights that the horticultural sector is eager for. We are enthusiastically committed to facilitating its dissemination and we will work to make Italus Hortus play a significant role in defining the horticulture of the future. We would like to take this opportunity to thank the former Editor-in-chief, Prof. Paolo Inglese, the former and current Editorial Boards, and all the paper authors and reviewers for the outstanding job they have done so far or they will do in the future.


2013 ◽  
pp. 87-100 ◽  
Author(s):  
D. Neilsen ◽  
G.H. Neilsen ◽  
S. Smith ◽  
I. Losso ◽  
B. Taylor ◽  
...  

2014 ◽  
Vol 24 (1) ◽  
pp. 132-137 ◽  
Author(s):  
Virginia I. Lohr

Horticultural crops are being affected by weather extremes consistent with predictions from climate change models. Impacts include crop losses and extended growing seasons. Negative effects on crop productivity are predicted to vastly overwhelm any positive effects. Students who graduate from our programs will need additional knowledge to succeed compared with those trained in previous decades. To determine the extent to which higher educational institutions across the United States are educating students about these issues, a survey was conducted to gather information on the incorporation of climate change literacy in horticultural curricula. Most programs do not currently offer classes with “climate change” or “global warming” in the formal title or description, but many instructors are including at least some information related to climate change in specific courses they teach. Instructors of courses in fruits, vegetables, or turf, and instructors who do not teach at 1862 land-grant universities, are more likely than other instructors to include content related to climate change in their courses. Instructors who do not have tenure and instructors who teach plant identification courses are more likely than other instructors to have increased the content on climate change in their classes over time.


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