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市場調查報告書
商品編碼
1725193
2030 年病原體或植物病害檢測與監測市場預測:按產品、測試、樣本、最終用戶和地區進行的全球分析Pathogen or Plant Disease Detection And Monitoring Market Forecasts to 2030 - Global Analysis By Product, Test, Sample, End User and By Geography |
根據 Stratistics MRC 的數據,全球病原體或植物疾病檢測和監測市場預計在 2025 年達到 24.4 億美元,到 2032 年將達到 52 億美元,預測期內的複合年成長率為 11.6%。
病原體或植物疾病的檢測和監測涉及使用先進技術來識別和追蹤影響作物的有害微生物。傳統方法依賴身體症狀,而現代方法則使用人工智慧、感測器和遠端成像進行更早、更準確的診斷。無人機、頻譜分析和機器學習等技術可以提高檢測準確性並最大限度地減少作物損失。持續監測將使農民能夠及時採取行動並防止疾病的傳播。這些系統透過最佳化農藥使用和維持作物健康來提高農業的永續性,確保糧食安全和生產力。
技術進步
生物感測器、影像處理系統和人工智慧演算法的持續創新正在改變植物疾病的檢測和監測方式。先進的診斷工具現在可以即時、高精度地識別現場疾病。物聯網和無線感測器的整合可以實現持續的作物監測並進行早期療育。這些技術增強了農民和農業相關人員的決策能力。改進的數據分析可以實現更好的模式識別和疾病預測。遙感探測和衛星監測進一步擴大了精密農業的範圍。
開發中地區基礎建設有限
許多低收入地區缺乏高科技農業和診斷工具。網路連結性差和缺乏訓練有素的人力阻礙了數位農業解決方案的推廣。小農戶通常依賴人工檢查,這既耗時又容易出錯。政府資金不足和認知度低進一步阻礙了市場滲透。缺乏支持性法律規範減緩了現代科技的融合。缺乏這樣的基礎設施大大降低了先進監控系統的採用率。
移動診斷的發展
農民智慧型手機使用量的激增為基於應用程式的疾病診斷工具鋪平了道路。這些行動平台使用影像識別來識別症狀並提案管理措施。與雲端基礎的系統整合允許用戶存取專家諮詢和本地化建議。行動診斷簡單且價格實惠,非常適合廣泛採用。一些新興企業正專注於開發適合農村環境的使用者友善介面和離線功能。這一趨勢有可能使獲取植物健康見解的途徑更加民主化。這也將為基層的即時疾病監測和預警鋪平道路。
抵制技術採用
儘管有這些好處,但許多農民由於不熟悉新技術,因此仍然對採用新技術持懷疑態度。傳統的耕作方法根深蒂固,如果沒有實務訓練就很難被取代。由於擔心設備故障或誤診,他們常常不願意使用現代工具。一些農民認為這些技術成本高或與他們的小規模經營無關。文化阻力和語言障礙進一步限制了科技的有效傳播。有些地區推廣服務不夠到位,推廣工作不能順利進行。
疫情擾亂了農業診斷設備的供應鏈,減緩了基於現場的解決方案的採用。但它引發了人們對食品安全和植物健康認知的提升。隨著人們的活動減少,遠距離診斷和非接觸式技術變得越來越普遍。 COVID-19 促使人們投資自動化疾病監測系統,以維持作物生產力。研究和開發加速了人工智慧驅動平台的開發,該平台可以從遠端位置檢測植物病原體。數位平台也已成為農民和農學家之間重要的溝通工具。
預計橫向流動裝置部分在預測期內將成為最大的部分。
預計在預測期內,橫向流動裝置部分將佔據最大的市場佔有率。這些測試因其速度快、便攜性以及在現場條件下的易用性而廣受歡迎。它允許進行現場診斷,而無需先進的實驗室基礎設施。這些測試具有成本效益且非常適合資源有限的環境。商業農戶和小農戶都在採用它。試劑靈敏度的提高提高了側流試劑套件的準確性。與行動閱讀器的兼容性擴大了其在全面疾病監測中的作用。
預計預測期內分子檢測領域將以最高複合年成長率成長
由於分子檢測具有很高的特異性,預計在預測期內該領域將出現最高的成長率。這些技術可以在可見症狀出現之前檢測到低水平的病原體。改進的樣本收集和處理工作流程減少了周轉時間。可攜式PCR 設備的日益普及也使其應用範圍擴大到了研究實驗室之外。精密農業日益成長的需求刺激了對分子平台的投資,政府和學術界的合作正在支持這些測試的現場測試和檢驗。
在預測期內,亞太地區預計將憑藉其龐大且多樣化的農業基礎佔據最大的市場佔有率。中國、印度和日本等國家正大力投資農業生物技術和精密農業。政府補貼和技術主導措施正在支持該技術的傳播。由於氣候條件的變化,該地區還面臨沉重的疾病負擔,增加了診斷的需求。該地區的農業技術新興企業在創新和擴張方面發揮關鍵作用。隨著農民意識的不斷增強,他們開始接受數位化解決方案。需求、創新和政策支援的結合將確保市場領先地位。
在預測期內,由於對農業基因組學和數位農業的大量投資,預計北美將呈現最高的複合年成長率。該地區集中了大量研究機構和農業生物公司。對永續農業實踐的監管支持也鼓勵基於監測的作物管理。精密農業日益普及,精準疾病檢測的需求也隨之增加。對產量最佳化和生物安全措施的日益成長的需求正在推動持續成長。
According to Stratistics MRC, the Global Pathogen or Plant Disease Detection and Monitoring Market is accounted for $2.44 billion in 2025 and is expected to reach $5.2 billion by 2032 growing at a CAGR of 11.6% during the forecast period. Pathogen or plant disease detection and monitoring involve identifying and tracking harmful microorganisms that affect crops using advanced technologies. Traditional methods rely on physical symptoms, while modern approaches use AI, sensors, and remote imaging for early and precise diagnosis. Techniques like drones, spectral analysis, and machine learning enhance detection accuracy, minimizing crop losses. Continuous monitoring helps farmers take timely action, preventing disease spread. These systems improve agricultural sustainability by optimizing pesticide use and preserving crop health, ensuring food security and productivity.
Technological advancements
Ongoing innovations in biosensors, imaging systems, and AI algorithms are transforming how plant diseases are detected and monitored. Advanced diagnostic tools now offer real-time, on-site disease identification with high accuracy. Integration of IoT and wireless sensors allows continuous crop monitoring for early intervention. These technologies enhance decision-making for farmers and agricultural stakeholders. Improvements in data analytics enable better pattern recognition and disease forecasting. Remote sensing and satellite-based monitoring further broaden the scope of precision agriculture.
Limited infrastructure in developing regions
In many low-income regions, there is insufficient access to high-tech farming and diagnostic tools. Poor internet connectivity and lack of trained personnel hinder the deployment of digital agriculture solutions. Smallholder farmers often rely on manual inspection, which is time-consuming and error-prone. Inadequate government funding and minimal awareness further limit market penetration. The absence of supportive regulatory frameworks delays the integration of modern technologies. This lack of infrastructure significantly reduces the adoption rate of advanced monitoring systems.
Development of mobile-based diagnostics
The surge in smartphone usage among farmers is paving the way for app-based disease diagnosis tools. These mobile platforms utilize image recognition to identify symptoms and suggest control measures. Integration with cloud-based systems allows users to access expert consultations and localized recommendations. The simplicity and affordability of mobile diagnostics make them suitable for widespread use. Several startups are focusing on user-friendly interfaces and offline functionalities to suit rural conditions. This trend has the potential to democratize access to plant health insights. It also opens avenues for real-time disease surveillance and early alerts at the grassroots level.
Resistance to technology adoption
Despite the benefits, many farmers remain skeptical of adopting new technologies due to lack of familiarity. Traditional agricultural practices are deeply rooted and hard to replace without hands-on training. Fear of device malfunction or misdiagnosis often discourages usage of modern tools. Some farmers view these technologies as cost-prohibitive or irrelevant to small-scale operations. Cultural resistance and language barriers further limit effective technology dissemination. Extension services in several areas are insufficient to facilitate smooth adoption.
The pandemic disrupted supply chains for agricultural diagnostic equipment, delaying implementation of field-based solutions. However, it also triggered increased awareness of food security and plant health. Remote diagnostics and contactless technologies gained traction due to reduced human mobility. COVID-19 prompted investments in automated disease surveillance systems to maintain crop productivity. Researchers accelerated the development of AI-driven platforms to detect plant pathogens from a distance. Digital platforms also emerged as vital communication tools between farmers and agronomists.
The lateral flow devices segment is expected to be the largest during the forecast period
The lateral flow devices segment is expected to account for the largest market share during the forecast period. Because these tests are widely favored for their speed, portability, and ease of use in field conditions. They provide on-the-spot diagnostics without the need for sophisticated lab infrastructure. These tests are cost-effective, making them ideal for resource-limited settings. Adoption is increasing in both commercial farms and smallholder systems. Advancements in reagent sensitivity are improving the accuracy of lateral flow kits. Their compatibility with mobile readers is expanding their role in integrated disease monitoring.
The molecular tests segment is expected to have the highest CAGR during the forecast period
Over the forecast period, the molecular tests segment is predicted to witness the highest growth rate due to their high specificity. These techniques can detect low levels of pathogens before visible symptoms appear. Improvements in sample collection and processing workflows are reducing turnaround times. The growing use of portable PCR devices is expanding accessibility beyond research labs. Increasing demand for precision farming is fueling investment in molecular platforms and government and academic collaborations are boosting field trials and validation of these tests.
During the forecast period, the Asia Pacific region is expected to hold the largest market share due to its large and diverse agricultural base. Countries like China, India, and Japan are investing heavily in agricultural biotech and precision farming. Government subsidies and tech-led initiatives are supporting widespread technology adoption. The region also faces high disease burden due to varied climatic conditions, increasing the need for diagnostics. Agritech startups in this region are playing a pivotal role in innovation and deployment. Farmers are becoming more receptive to digital solutions due to growing awareness. The combination of demand, innovation, and policy support ensures market leadership.
Over the forecast period, the North America region is anticipated to exhibit the highest CAGR due to strong investments in agri-genomics and digital agriculture. The region has a high concentration of research institutions and agri-biotech firms. Regulatory support for sustainable farming practices is also encouraging monitoring-based crop management. Precision farming practices are widespread, driving demand for accurate disease detection. The rising need for yield optimization and biosecurity measures fuels continuous growth.
Key players in the market
Some of the key players in Pathogen or Plant Disease Detection and Monitoring Market include Abingdon Health, Planet Labs PBC, Adia, Inc., BIOREBA AG, Creative Diagnostics, Drone Ag, Libelium Comunicaciones Distribuidas S.L., Dornegy, Ceres Imaging, FIXAR-AERO, LLC, Jeopardy Agriculture, GeoPard Agriculture, TwistDx Limited, NIPPON GENE CO., LTD, and Eurofins Scientific.
In March 2025, Eurofins Scientific launched the Eurofins PathoDetect System, a portable diagnostic platform for rapid, on-site detection of plant pathogens and microbial contaminants in crops, delivering results in under 15 minutes.
In February 2025, Creative Diagnostics introduced the AgriPath ELISA Kit 2.0, an upgraded enzyme-linked immunosorbent assay system for precise detection of viral and bacterial pathogens in plants, tailored for large-scale farming operations.
In February 2025, Planet Labs PBC announced the Planet Disease Monitoring Suite, a satellite-based solution leveraging high-resolution imagery and AI to detect early signs of plant disease outbreaks across agricultural regions.
Note: Tables for North America, Europe, APAC, South America, and Middle East & Africa Regions are also represented in the same manner as above.