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市場調查報告書
商品編碼
2132835
信息素類害蟲防治市場規模、佔有率和趨勢分析:按產品類型、配方和劑量系統、應用、害蟲類型、作物類型和地區分類-全球預測至2036年Pheromone-Based Pest Control Market Size, Share & Trends Analysis, by Product Type, Formulation & Delivery System, Application, Pest Type, Crop Type, and Geography - Global Forecast to 2036 |
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2025年全球資訊素害蟲防治市場規模為11.7億美元。預計2026年將達到12.6億美元,預測期內複合年成長率為7.9%,2036年可望達到27億美元。本報告對該市場進行了詳細分析,涵蓋關鍵趨勢、生產技術、競爭格局和未來成長機會。
信息素害蟲防治利用天然或合成信息素及其他訊息化合物來改變昆蟲的行為。生產者利用這些費洛蒙干擾昆蟲交配、吸引害蟲進入誘捕器、監測害蟲飛行情況,並在不使用有毒化學物質的情況下降低害蟲族群數量。產品包括性費洛蒙和聚集費洛蒙,可透過被動式釋放器、氣霧劑釋放器、噴霧劑和微膠囊製劑以及誘捕器和引誘劑等方式提供。這些產品用於干擾交配、大規模捕獲、監測和檢測以及引誘和殺滅方案。
根據聯合國糧食及農業組織(糧農組織)的數據,植物病蟲害每年造成全球高達40%的作物減產,入侵性昆蟲每年造成全球經濟至少700億美元的損失。日益嚴重的殺蟲劑抗藥性、出口蔬果嚴格的農藥殘留標準以及綜合蟲害管理(IPM)法規,使得信息素從輔助手段轉變為果園、葡萄園和堅果種植中的標準做法。到了2015年,華盛頓州約90%的蘋果種植面積採用蘋果甲蟲交配抑制技術;到2019年,加州約50萬英畝的堅果種植面積採用了臍橙螟交配抑制技術。此外,新型發酵和複分解生產技術的引入降低了信息素活性成分的成本,使得信息素能夠應用於玉米、大豆、棉花和水稻等大規模農作物種植。
本報告檢驗了以信息素為基礎的害蟲防治技術的發展歷程,包括化學合成、複分解和發酵等生產途徑,以及信息素的類型和作用機制、劑型、法規和競爭策略。該報告還提供了市場預測、細分市場分析以及涵蓋五大區域和24個國家/次區域的區域分析,旨在為企業、投資和產品決策提供支援。
市場動態
許多蛾類和甲蟲害蟲已對傳統殺蟲劑產生抗藥性,因此,基於信息素的交配抑制技術成為綜合蟲害管理(IPM)方案的關鍵組成部分。由於費洛蒙的作用機制是透過改變昆蟲的行為而非化學方式殺死它們,因此害蟲不會像對傳統殺蟲劑那樣產生抗藥性。生物方法降低了信息素的生產成本,使得交配抑制技術的應用範圍從高價值的特種作物擴展到了大田作物。出口市場更嚴格的殘留標準也促使蔬果生產商減少殺蟲劑的使用。同時,與信息素噴灑網路整合的數位監測系統正在幫助生產商即時追蹤害蟲,並更有效地利用其產品。
由於每種費洛蒙產品都只對特定種類的害蟲有效,因此,與能同時防治多種害蟲的廣譜殺蟲劑不同,遭受多種害蟲侵襲的種植者可能需要多種產品。此外,雖然交配干擾法在大面積連續區域最為有效,但其效果容易受到天氣條件和田間噴灑器使用時間的影響,這使得小規模種植者難以獨立實施。另外,種植者必須準確識別害蟲並掌握合適的噴灑時間。而且,在許多新興市場,新費洛蒙活性成分的註冊可能需要很長時間。
低成本的發酵法生產信息素正在為大規模種植的農作物開闢市場,此前信息素引入成本過高。在歐洲,《永續利用條例》的廢除正促使政策轉向加快生物農藥的核准,這可能使新的費洛蒙產品更快進入市場。在熱帶作物領域,大規模誘捕和引誘/控制項目也在不斷擴展,尤其是在控制椰棗和椰子樹上的紅棕象甲方面。
細分市場分析
本報告按產品類型、配方和給藥系統、應用、害蟲類型、作物類型和地區分析市場,幫助相關人員確定最有前景的成長機會。
The global Pheromone-Based Pest Control Market was valued at USD 1.17 billion in 2025. It is estimated to reach USD 1.26 billion in 2026 and is projected to grow to USD 2.70 billion by 2036, at a CAGR of 7.9% during the forecast period. This report offers a detailed look at the market, covering key trends, production technologies, competitive activity, and future growth opportunities.
Pheromone-based pest control uses natural or synthetic pheromones and other semiochemicals to change insect behavior. Growers use them to disrupt mating, lure pests into traps, monitor pest flights, and reduce pest populations without using toxic chemicals. The products include sex pheromones and aggregation pheromones, delivered through passive dispensers, aerosol emitters, sprayable and microencapsulated formulations, and traps and lures. They are used in mating disruption, mass trapping, monitoring and detection, and attract-and-kill programs.
According to the Food and Agriculture Organization, plant pests destroy up to 40% of global crop production each year, and invasive insects cost the global economy at least USD 70 billion annually. Growing insecticide resistance, strict pesticide residue limits for exported fruit and vegetables, and integrated pest management rules have turned pheromones from a supplementary tool into standard practice in orchards, vineyards, and nut crops. Codling moth mating disruption covered an estimated 90% of Washington apple acreage by 2015, and navel orangeworm mating disruption reached about 500,000 acres of California tree nuts by 2019. New fermentation and metathesis production methods have also cut the cost of pheromone active ingredients, making it possible to use pheromones in large row crops such as corn, soybean, cotton, and rice.
The report examines the evolution of pheromone-based pest control, production routes including chemical synthesis, metathesis, and fermentation, pheromone types and modes of action, delivery formats, regulations, and competitive strategies. It also provides market forecasts, segment-level insights, and regional analysis across 5 regions and 24 countries and sub-regions to support business, investment, and product decisions.
Market Dynamics
Many moth and beetle pests have developed resistance to conventional insecticides, and pheromone-based mating disruption has become a key part of integrated pest management programs as a result. Because pheromones work by changing behavior rather than killing insects through a chemical mode of action, pests do not develop resistance to them in the same way. Biological production methods have lowered the cost of making pheromones, allowing mating disruption to expand from high-value specialty crops into row crops. Tighter residue limits in export markets are also encouraging fruit and vegetable growers to cut insecticide use, while digital monitoring systems linked to pheromone dispenser networks are helping growers track pests in real time and use products more efficiently.
Each pheromone product works only against a specific pest species, so growers facing several pests may need multiple products, unlike broad-spectrum insecticides that control many pests at once. Mating disruption also works best over large, continuous areas and can be affected by weather and how long dispensers last in the field, which makes it harder for small growers to use on their own. In addition, growers need to identify pests accurately and time applications correctly, and registering new pheromone active ingredients can take a long time in many emerging markets.
Lower-cost fermentation-based pheromone production is opening up large row crop markets that were previously too price-sensitive for pheromones. In Europe, the withdrawal of the Sustainable Use Regulation has been followed by a policy shift toward faster approval of biopesticides, which could bring new pheromone products to market more quickly. Mass trapping and attract-and-kill programs are also expanding in tropical crops, particularly against red palm weevil in date and coconut palms.
Segment Analysis
The report analyzes the market by product type, formulation and delivery system, application, pest type, crop type, and geography, helping stakeholders identify the most promising growth opportunities.
Based on product type, the market is segmented into sex pheromones, aggregation pheromones, and other semiochemicals (trail and alarm pheromones). In 2026, sex pheromones are expected to account for the largest share of 80.0% of the market. They are widely used in mating disruption and monitoring programs against moth pests in tree fruit, tree nuts, citrus, and vineyards, and straight-chain moth pheromones are exempt from food tolerance requirements in the U.S. Aggregation pheromones are expected to grow the fastest, driven by mass trapping programs against red palm weevil, bark beetles in forests, and stored product beetles, where lures are replaced every few weeks.
Based on formulation and delivery system, the market is segmented into passive and hand-applied dispensers, aerosol and puffer dispensers, sprayable and microencapsulated formulations, and traps and lures. In 2026, passive and hand-applied dispensers are expected to hold the largest share of 43.0%, as season-long rope, clip, and membrane dispensers are placed at several hundred units per hectare in apples, pears, stone fruit, tree nuts, citrus, and vineyards. Sprayable and microencapsulated formulations are expected to grow the fastest, as they can be applied in corn, soybean, cotton, and rice using existing ground and aerial spray equipment, as with FMC Corporation's Sofero products and Provivi's sprayable fall armyworm formulations.
Based on application, the market is segmented into mating disruption, mass trapping, monitoring and detection, and attract-and-kill. In 2026, mating disruption is expected to hold the largest share of 63.2%, due to the large amount of pheromone needed to cover a crop for a full season and the maturity of mating disruption programs in North America, Europe, Chile, South Africa, and Australia. Mass trapping is expected to grow the fastest, supported by government and plantation programs against red palm weevil in the Gulf states, North Africa, and South Asia, and by bark beetle trapping in European and North American forests.
Based on pest type, the market is segmented into Lepidoptera (moths), Coleoptera (beetles), Diptera (flies), and other pests (stored product insects and others). In 2026, Lepidoptera are expected to hold the largest share of 73.4%, reflecting four decades of product development focused on moth pests and the large volume of pheromone used against codling moth, navel orangeworm, oriental fruit moth, and fall armyworm. Coleoptera are expected to grow the fastest, driven by aggregation pheromone trapping against red palm weevil, bark beetles, coffee berry borer, and stored product beetles.
Based on crop type, the market is segmented into fruits, nuts and vegetables, row crops (corn, soybean, cotton), forestry, stored grain and food storage, and turf, ornamental and public health. In 2026, fruits, nuts and vegetables are expected to hold the largest share of 68.2%, as these crops have high value per hectare and face strict residue limits in export markets. Row crops are expected to grow the fastest, driven by lower-cost fermentation and metathesis production and by new registrations since 2024 in Brazil, Mexico, Cote d'Ivoire, Australia, and other markets.
Regional Analysis
The report covers North America, Europe, Asia Pacific, Latin America, and the Middle East and Africa, spanning 24 countries and sub-regions. The regional analysis considers crop area, pest pressure, integrated pest management policies, residue rules for exports, registration frameworks, and the presence of pheromone producers.
In 2026, North America is expected to account for the largest share of 34.0% of the global market. Tree fruit, tree nut, and vineyard growers in California, Washington, and Oregon have used mating disruption as standard practice for three decades, and the U.S. exempts moth pheromones from food tolerance requirements. The region is also home to many leading producers, including Suterra, Trece, ISCA Technologies, Provivi, Scentry Biologicals, Hercon Environmental, and Bedoukian Research.
Europe accounts for 30.0% of the market in 2026, supported by integrated pest management requirements under EU rules, mature mating disruption programs in orchards and vineyards, and the presence of producers such as BASF, Russell IPM, M2i Group, Koppert, and Biobest. Asia Pacific, with a 24.0% share, is expected to grow the fastest during the forecast period, driven by large fruit, vegetable, and rice areas across China, India, Japan, and Southeast Asia, residue requirements for produce exported to Europe, Japan, and North America, and government pest management programs. Latin America is supported by export horticulture in Chile and new row crop registrations in Brazil and Mexico, while demand in the Middle East and Africa is driven by red palm weevil trapping programs in the Gulf states.
Competitive Landscape
The report provides a detailed review of the competitive landscape, covering growth strategies, benchmarking by species coverage and delivery format, market positioning, product portfolios, strategic developments, and financial performance of leading companies.
The global pheromone-based pest control market was moderately consolidated in 2025. Suterra LLC, Shin-Etsu Chemical Co., Ltd., Trece, Inc., BASF SE, and Russell IPM Ltd. together held a 30.0% share of the market. Between January 2025 and September 2026, product registrations and distribution agreements were the most frequent strategic developments. These included FMC Corporation's Sofero registrations in Brazil and Cote d'Ivoire, Trece's U.S. registrations of CIDETRAK products, and Provivi's agreements with UPL Corporation, Koppert do Brasil, the Andermatt Group, Syngenta, and others. Suterra, BASF, and Koppert also made acquisitions to broaden their biological portfolios.
The competitive benchmarking compares companies on the range of pest species they cover and the delivery formats they offer. It shows how established producers compete on proven mating disruption programs in specialty crops, while newer companies such as Provivi and SemiosBio compete on lower-cost biological production, sprayable row crop products, and digital pest monitoring.
Key companies profiled in the report include Suterra LLC (U.S.), Trece, Inc. (U.S.), Shin-Etsu Chemical Co., Ltd. (Japan), BASF SE (Germany), Russell IPM Ltd. (U.K.), ISCA Technologies, Inc. (U.S.), Provivi, Inc. (U.S.), SemiosBio Technologies Inc. (Canada), M2i Group (France), Pherobank B.V. (Netherlands), Koppert B.V. (Netherlands), Biobest Group NV (Belgium), Bedoukian Research, Inc. (U.S.), Hercon Environmental (U.S.), and Scentry Biologicals, Inc. (U.S.).
How This Report Helps
Key Questions Answered