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市場調查報告書
商品編碼
1625323
2030 年植物生長室市場預測:按設備類型、功能、應用、最終用戶和地區進行的全球分析Plant Growth Chamber Market Forecasts to 2030 - Global Analysis By Equipment Type (Reach-In Chambers, Walk-In Chambers), Function (Plant Growth, Seed Germination, Environmental Optimization and Tissue Culture), Application, End User and by Geography |
根據 Stratistics MRC 的數據,2024 年全球植物生長室市場規模為 6.1268 億美元,預計到 2030 年將達到 8.6909 億美元,預測期內複合年成長率為 6.0%。
用於模擬和追蹤植物生長所需的特定條件的受控環境稱為植物生長室。在這個室內,研究人員和園丁可以精確調節溫度、濕度、光照強度和二氧化碳水平,為各種植物物種創造理想的生長條件。植物生長室廣泛應用於氣候變遷研究、植物育種、農業研究等領域,幫助科學家了解植物如何應對不同的環境條件。此外,這些室可以透過模擬惡劣的自然條件進行全年種植,確保結果一致,並允許進行戶外不可能的實驗。
據國際能源總署 (IEA) 稱,植物生長室使研究人員能夠研究氣候變遷對植物生長的影響,並開發有彈性的作物品種,同時將濕度控制在60% 至70% 之間。它在植物生長方面發揮著永續作用。
不斷發展的農業研究
提高農業生產力的需求引發了對提高作物產量、品質和抗病性的積極研究。植物生長室已成為此過程中的重要工具,因為它們可以繁殖和追蹤不同的環境條件。在控制環境中,研究人員可以創造不同的氣候、光週期和濕度水平,並觀察植物的反應。此外,作物育種、病蟲害防治、養分最佳化等創新有益於傳統農業以及精密農業、魚菜共生等新興產業。
初期投資成本高
由於提高農業生產力的需要,已經進行了許多研究。購買和安裝這些系統的高昂初始成本是植物生長室市場面臨的主要障礙之一。雖然使用植物生長室進行作物開發和研究的長期效益是顯著的,但初始資本支出可能會阻止潛在買家並限制某些地區或部門的市場成長。此外,具有自動控制、物聯網整合和精確氣候控制等先進功能的高品質植物生長室的成本很高。
都市農業和室內農業的發展
都市化和對當地糧食生產的需求使得室內農業和垂直農業變得流行。這些技術使得資源和空間有限的都市區的糧食生產成為可能,降低了運輸成本並確保了新鮮農產品的穩定供應。隨著城市農業趨勢的不斷蔓延,對植物生長室的需求,特別是那些安裝了垂直農業系統的植物生長室的需求預計將會增加。此外,都市區可以從當地糧食生產中受益匪淺,因為它減少了對傳統農業的依賴並減少了糧食運輸的碳排放。
價格敏感度和激烈的競爭
隨著植物生長室市場的不斷擴大,製造商面臨更多的競爭,特別是當新公司進入市場和現有企業擴大產品線時。由於競爭加劇,價格面臨下行壓力,這可能導致製造商的利潤率下降。公司可能需要降價以保持競爭力,這可能會損害其收益。此外,對價格敏感的消費者,特別是小農和教育機構,可能經常為了更便宜的選擇而犧牲尖端功能和品質。
植物生長室市場受到了 COVID-19 大流行的顯著影響,既有正面的影響,也有負面的影響。一方面,疫情關注了糧食安全,擴大了城市農業,增加了對受控環境農業的需求,因此植物生長室作為實現小區域可靠作物生產的手段而受到關注。然而,疫情導致零件、原料和製成品的供應延誤,擾亂了全球供應鏈,影響了生產計劃和供應。此外,經濟不確定性導致公共和私營部門預算削減,導致基礎設施和農業研究投資下降。
環境最佳化產業預計在預測期內規模最大
植物生長室市場預計將由環境最佳化領域主導。這部分重點在於調節溫度、濕度、光照和二氧化碳水平等因素,為植物生長創造完美的環境。環境最佳化對於研究、商業性植物生產和永續農業等許多應用至關重要。現在可以在各種環境(包括大型農業場所和研究實驗室)中精確調整植物生長條件,提高作物品質和產量。此外,都市化、氣候變遷以及對高效耕作方法的需求是推動對受控環境的需求不斷成長的因素,從而推動了這一領域的擴張。
預計高層植物產業在預測期內複合年成長率最高
在植物生長室市場中,高大植物部分預計將出現最高的複合年成長率。隨著越來越多的人利用植物生長室種植樹木、大型灌木和高價值植物等更高的作物,這個市場正在顯著成長。這些室提供了一個受控的環境,透過改進的照明系統和室設計來最大限度地提高生長和產量,這些設計可以透過提供更多的垂直空間來容納更高的植物。此外,在生長一致性和效率很重要的領域,例如園藝、林業和生物技術研究,對高大植物的需求不斷增加。
植物生長室市場預計將由北美地區主導。該地區在農業和生物技術行業中佔據主導地位,其中植物生長室廣泛用於作物研究、基因研究和受控環境農業,這是由研發方面的重大投資所推動的。北美成熟的農業基礎設施,以及先進農業技術的日益採用,正在推動對植物生長室的高需求。此外,城市農業、永續性和糧食安全也變得越來越重要,特別是在美國和加拿大等國家,這進一步刺激了市場擴張。
植物生長室市場預計將以亞太地區最高的複合年成長率成長。都市化的加速、對永續農業方法的需求以及人口成長導致的對糧食安全的日益擔憂是該地區爆炸性成長的主要驅動力。為了提高作物產量並滿足不斷成長的城市人口的需求,中國、印度和日本等國家正在大力投資受控環境農業。此外,政府支持農業技術研究、智慧農業和垂直農業研發的計畫也在加速植物生長室的使用。
According to Stratistics MRC, the Global Plant Growth Chamber Market is accounted for $612.68 million in 2024 and is expected to reach $869.09 million by 2030 growing at a CAGR of 6.0% during the forecast period. A controlled environment used to mimic and track particular conditions required for plant growth is called a plant growth chamber. Researchers and horticulturists can precisely regulate temperature, humidity, light intensity, and carbon dioxide levels in these chambers to create the ideal growing conditions for a variety of plant species. Plant growth chambers are used extensively in climate change research, plant breeding, and agricultural research to help scientists understand how plants react to various environmental conditions. Moreover, these chambers allow for year-round cultivation by simulating harsh or natural conditions, guaranteeing consistent results and enabling experiments that would be impossible outside.
According to the International Energy Agency (IEA) highlights that plant growth chambers play a significant role in sustainable agriculture by enabling researchers to study the effects of climate change on plant growth and develop resilient crop varieties, with controlled humidity levels of 60-70%.
Growing research in agriculture
There has been a lot of research into increasing crop yields, quality, and disease resistance due to the need for increased agricultural productivity. Because they allow researchers to replicate and track a variety of environmental conditions, plant growth chambers are essential tools in this process. In a controlled environment, researchers can observe plant responses by creating different climates, light cycles, and moisture levels. Additionally, this has aided both established agricultural industries and new ones like precision agriculture and aquaponics by bringing about innovations in crop breeding, pest control, and nutrient optimization.
Expensive initial investment costs
Due to the need for greater agricultural productivity, a great deal of research has been The high upfront cost of buying and installing these systems is one of the main obstacles facing the plant growth chamber market. While the long-term advantages of using plant growth chambers for crop development and research are significant, the initial capital expenditure can discourage potential buyers, limiting market growth in certain regions or sectors. Furthermore, high-quality plant growth chambers with advanced features like automated controls, IoT integration, and precise climate control can be costly.
Growth of urban and indoor farming
Indoor and vertical farming have become popular due to urbanization and the need for local food production. These techniques lower transportation costs and guarantee a consistent supply of fresh produce by enabling food production in urban areas with limited resources and space. The need for plant growth chambers, particularly those with vertical farming systems installed, is anticipated to increase as the urban farming trend continues to spread. Moreover, urban areas can benefit greatly from this since local food production can lessen dependency on conventional agriculture and cut down on the carbon footprint of food transportation.
Price sensitivity and fierce competition
As the market for plant growth chambers keeps expanding, manufacturers are facing more competition, particularly as new firms join the market and established businesses broaden their product lines. Because of the increased competition, prices are under pressure to decline, which could result in manufacturers' profit margins becoming thinner. Price reductions may be necessary for businesses to stay competitive, which could hurt their bottom line. Additionally, price-conscious consumers may also choose less expensive options, frequently at the expense of cutting-edge features and quality, especially small-scale farmers and educational institutions.
The plant growth chamber market was significantly impacted by the COVID-19 pandemic, both favourably and unfavourably. On the one hand, plant growth chambers gained attention as a means of achieving reliable crop production in small areas due to the pandemic's increased emphasis on food security, the growth of urban farming, and the need for controlled-environment agriculture. However, the pandemic caused delays in the acquisition of components, raw materials, and completed goods, upsetting global supply chains and impacting production schedules and availability. Furthermore, budget cuts in the public and private sectors as a result of economic uncertainty decreased investments in infrastructure and agricultural research.
The Environmental Optimization segment is expected to be the largest during the forecast period
The market for plant growth chambers is expected to be dominated by the environmental optimization segment. This section focuses on regulating elements like temperature, humidity, light, and CO2 levels to create the perfect environment for plant growth. For many uses, such as research, commercial plant production, and sustainable agriculture, environmental optimization is crucial. It makes it possible to precisely regulate the conditions, under which plants grow, enhancing crop quality and yields in a range of settings, including large-scale agricultural settings and laboratories. Moreover, urbanization, climate change, and the need for high-efficiency farming methods are some of the factors driving the growing demand for controlled environments, which is fueling this segment's expansion.
The Tall Plants segment is expected to have the highest CAGR during the forecast period
In the Plant Growth Chamber Market, the Tall Plants segment is anticipated to have the highest CAGR. Because more and more people are using plant growth chambers to grow taller crops like trees, big shrubs, and high-value plants, this market has grown significantly. These chambers offer controlled environments to maximize growth and yield owing to improvements in lighting systems and chamber designs that can accommodate taller plants by providing more vertical space. Additionally, tall plants are becoming more and more in demand in fields where growth consistency and efficiency are crucial, like horticulture, forestry, and biotechnological research.
It is expected that the plant growth chamber market is anticipated to be dominated by the North American region. In the agricultural and biotechnology industries, where plant growth chambers are widely used for crop research, genetic studies, and controlled-environment agriculture, the region's dominance is fueled by large investments in research and development. North America's well-established agricultural infrastructure, along with the increasing adoption of advanced farming technologies, has fostered high demand for plant growth chambers. Furthermore, urban farming, sustainability, and food security are also becoming more and more important, especially in nations like the US and Canada, which has further stimulated market expansion.
The plant growth chamber market is anticipated to grow at the highest CAGR in the Asia Pacific region. Growing urbanization, the demand for sustainable agricultural methods, and an increased focus on food security as a result of population growth are the main drivers of this region's explosive growth. To increase crop yields and satisfy the demands of their growing urban populations, nations like China, India, and Japan are making significant investments in controlled-environment agriculture. Moreover, the use of plant growth chambers is also being accelerated by government programs to support agricultural technology research, as well as developments in smart farming and vertical farming.
Key players in the market
Some of the key players in Plant Growth Chamber market include Conviron Inc, Emerson Electric Co., Percival Scientific, Inc., General Electric Company, Danaher, Agilent Technologies Inc., Saveer Biotech Limited, Hettich Benelux B.V., Caron Products & Services, Inc., PHC Corporation, Darwin Chambers Inc, Binder GmbH, Weiss Technik , Thermo Fisher Scientific Inc and Siemens AG.
In July 2024, Agilent Technologies Inc. announced it has signed a definitive agreement to acquire BIOVECTRA, a leading specialized contract development and manufacturing organization, for $925 million. Both BIOVECTRA and Agilent are fully integrated CDMOs with state-of-the-art facilities that follow current Good Manufacturing Practices (cGMP), a high standard for methods, facilities, and controls used in manufacturing, processing, and packaging of active pharmaceutical ingredients.
In July 2024, Siemens AG and Boson Energy have signed a Memorandum of Understanding (MoU) to facilitate collaboration on technology that converts non-recyclable waste into clean energy. The collaboration aims to advance sustainable, local energy security, enabling hydrogen-powered electric vehicle charging infrastructure without compromising grid stability or impacting consumer prices.
In August 2023, Emerson announced a definitive agreement to acquire FLEXIM Flexible IndustriemeBtechnik GmbH, a global leader in clamp-on ultrasonic flow measurement for liquids, gases and steam. Flexim brings highly differentiated, complementary technology and strong customer relationships to Emerson, with an installed base of more than 100,000 flowmeters, as well as approximately 450 employees.