33 results about "Intercropping" patented technology

This invention relates to a method for dense planting of grain and medicinal herbs in intercropping, specifically within the field of intercropping of crops and medicinal herbs. The development of modern agriculture through corn / Astragalus intercropping requires reducing water and fertilizer inputs while maintaining high yields. However, it faces challenges such as unscientific management and a lack of technical support for increasing yield and reducing emissions. The method described herein is implemented according to the following steps: Step 1: Pre-planting tillage; Step 2: Drip irrigation tape installation and sowing; Step 3: Irrigation and fertilization in the first year; Step 4: First corn harvest: Harvest the corn at its optimal harvest time in the planting year, and then shred the corn stalks to cover the Astragalus in the furrows; Step 5: Planting corn in the second year; Step 6: Irrigation and fertilization in the second year; Step 7: Harvesting the corn on the ridges and the Astragalus in the furrows in the second year, and shredding and returning the corn stalks to the field after the second harvest; Step 8: Tilling the furrows.

The application belongs to the technical field of green plant protection cultivation, and discloses a standardized planting and management method for pollution-free green agricultural products, which realizes multi-index screening of soil heavy metals, pesticide residues, microorganisms and water, soil and air, establishes a soil plant protection database, and applies passivation materials, compound beneficial microorganism groups and decomposed organic fertilizers to the soil according to pollution, continuous cropping and short soil fertility, and improves the stress resistance of seedlings by matching seed pretreatment; the disease and pest risk grades of plots are divided by weighting and quantifying five types of planting data, and a risk map is drawn, high, medium and low risk plots are differentially configured with pest-resistant varieties, intercropping, crop rotation and pest-repellent crops, and a hierarchical prepared prevention and control mechanism is matched, the planting environment is optimized from the aspects of farmland basement and field ecological layout; through the fusion of the Internet of Things, unmanned aerial vehicle remote sensing, pest trapping and meteorological data, the early latent characteristics of diseases and pests are captured through a deep learning model, and the development trend of diseases and pests is deduced in advance and divided into three levels of early warning.

This invention discloses a method for creating a peony flower sea landscape with soil stabilization and slope protection functions. The steps include: slope preparation; improving the slope soil with compound nutrient soil and digging planting holes; mixing peonies with different root types on the slope; after planting the peonies, evenly sowing different grass seeds on the peony slope; and cultivating and maintaining the vegetation. Advantages include: mixed planting according to peony root type and slope, combined with retaining walls and soil improvement, increases the survival rate by 8.5%; three-dimensional intercropping of shrubs and grasses for soil stabilization and slope protection achieves 99% green coverage and a topsoil loss rate of 0.2% within two years, combining ecological restoration and flower sea landscape, with low cost and easy promotion.

This invention relates to the field of agricultural technology, specifically to a water-saving and salt-reducing synergistic regulation method for intercropping salt-tolerant maize with halophytes, comprising the following steps: Step 1: Saline-alkali land classification and pretreatment; Step 2: Construction of a gradient intercropping system; Step 3: Dynamic irrigation and drainage and water and fertilizer regulation; Step 4: Rhizosphere improvement; The saline-alkali land classification of this invention is based on the total salt content and pH value of the topsoil layer (0-20cm) (moderate 0.3wt%-0.6wt%, severe >0.6wt%), rather than the original 0-60cm depth, which is closer to the actual salt damage range of the topsoil layer and provides a precise basis for the implementation of subsequent measures; The intercropping system enhances the ecological diversity of farmland and avoids the ecological monoculture caused by monoculture; The technical solution expands the arable land resources of moderate and severe saline-alkali land, while conforming to the direction of green governance, and providing a replicable guarantee solution for saline-alkali areas.

This invention discloses a method for inverting equivalent water thickness in plant leaves across species. This method selects equivalent water thickness with more explicit physical meaning as a representative indicator of plant leaf water content. Based on traditional vegetation indices, it combines continuous removal of preprocessing parameters to construct absorption feature parameters, thereby reducing noise in hyperspectral data while deeply mining its inherent spectral characteristics. It innovatively introduces one-heat coding technology to explicitly process species information and employs a Bayesian optimized machine learning model, effectively improving the accuracy, stability, and computational efficiency of cross-species water inversion. This invention can accurately invert the water status of crops across species, providing a new method for rapidly acquiring crop water status based on hyperspectral reflectance characteristics. It can be widely applied in intercropping and relay cropping patterns and large-scale survey and analysis scenarios, greatly improving the accuracy and speed of water stress diagnosis.

The application discloses a method for green prevention and control of Tetranychus urticae by Neoseiulus barkeri mediated greenhouse 'natural enemy + crop + habitat regulation' integrated method, and belongs to the technical field of green prevention and control of greenhouse pests. The method takes N. barkeri as a core control factor, and organically integrates precise release of natural enemies, healthy cultivation of crops and dynamic regulation of greenhouse habitats. Specifically, the method comprises the following steps: installing a disinfection and pest prevention net before planting; cultivating crops in a healthy manner, and planting driving-avoiding and covering plants in intercropping; releasing 100-300 N. barkeri per square meter, and then releasing the N. barkeri once every 1-2 weeks; planting nectar plants, regulating temperature and humidity to 22-28 DEG C and 60%-75%, and hanging yellow and blue plates; regularly monitoring, and releasing natural enemies or selecting safe biological pesticides for auxiliary prevention and control when the control threshold is exceeded; and cleaning and disinfecting after pulling seedlings and rotating crops. The method realizes persistent colonization and population self-maintenance of natural enemies, significantly reduces the use of chemical pesticides, and improves crop yield and quality.

The utility model discloses a kind of melon intercropping row sand hole punching film laying integrated machine, belong to agricultural equipment technical field, it includes: whole machine frame, the first end of whole machine frame is driven connection with traction device;The lower end of whole machine frame is provided with moving part;Whole machine frame is sequentially provided with punching part, ground scraping part, ditching part, pipe laying and film laying part and tamping backfill part from first end to second end.The utility model can realize sand-pressing ground punching pipe laying film laying integrated operation, adapt to different planting mode of row distance, solve the sand-pressing melon planting artificial punching film laying low efficiency, high cost and other problems, save sand-pressing melon planting cost.

This invention relates to the field of microbial technology, and particularly to a peanut-specific growth regulator and its application in sugarcane-peanut intercropping. The peanut-specific growth regulator of this invention consists of 1 g / L-3 g / L of GX-2-sugarcane leaf microbial growth regulator, 2 g / L-6 g / L of GX-7-peanut vine microbial growth regulator, 0.2 g / L-0.4 g / L of brassinolide, and 0.2 g / L-0.4 g / L of jasmonic acid. At this concentration, the peanut-specific growth regulator can significantly increase peanut yield. Under sugarcane-peanut intercropping conditions, the yield increase is even more significant. This peanut-specific growth regulator can provide a new approach for the development of specialized agricultural biological agents.

The application relates to the technical field of saline-alkali soil improvement, in particular to a water and salt layering control irrigation device for rice-wheat intercropping in saline-alkali soil, which solves the problems of serious water resource waste caused by traditional flood irrigation, incomplete salt washing in the rice season, easy salt return in the wheat season, lack of vertical profile water and salt data support leading to lagging control, and the like; the device comprises a shallow soil layer, a deep soil layer, a ridge and a surface layer, a PLC controller is arranged on one side of the ridge, and a water collecting tank is arranged in the inside of the ridge; the device further comprises a layered double-control irrigation and drainage pipe network assembly, a multi-soil-layer in-situ water and salt sensing unit and a buried pipe salt drainage module. The device realizes directional surface layer leaching and salt removal in the rice season, deep layer precise water supply and salt return inhibition in the wheat season, and efficient salt drainage through the synergistic work of the double-control pipe network of surface layer leaching and deep layer water supply, the multi-soil-layer in-situ water and salt sensing unit and the buried pipe salt drainage module, the system intelligently controls according to the soil water and salt data, the water and salt contradiction is solved, the water resource utilization rate is improved, and high yield and stable yield of rice-wheat rotation are ensured.

The application discloses a kind of photovoltaic shade interplanting methods of Amorphophallus konjac, comprising: establishing interplanting area between photovoltaic array row;According to photovoltaic panel projection range, interplanting area is divided into fixed shade area and variable light transmission area, fixed shade area is located in the area directly below photovoltaic panel, and variable light transmission area is located in the light transmission zone between adjacent photovoltaic panel;Planting ditch is opened according to row distance 40-50 centimeters in fixed shade area;Selecting Amorphophallus konjac tuber, planting in planting bed;Variable light transmission area is provided with sunshade net slide rail system driven by stepping motor, light intensity sensor is installed on slide rail, sensor is connected with controller, and controller calculates model according to solar elevation angle and real-time illumination data, and automatically adjusts sunshade net horizontal displacement daily;Establish intelligent drip irrigation system.The application can provide stable shade environment and suitable soil humidity for Amorphophallus konjac, reduce manual operation, improve the automation level of interplanting process, and meet the specific requirements of crops on growth environment.

The present application relates to the technical field of orchard ecological cultivation, in particular to a method for orchard annual intercropping vegetable coupling ecological weed control. It comprises the following steps: (1) winter weed prevention community construction; (2) spring intercropping community connection; (3) summer weed and insect prevention community construction; (4) autumn intercropping community connection; (5) winter weed prevention community maintenance. The present application provides an orchard annual chemical-free weeding integrated ecological management method which is suitable for multiple ecological regions across the country, takes into account long-term prevention and control of annual weeds and perennial noxious weeds, ecological prevention and control of common orchard pests, completely avoids water and fertilizer competition between intercropped vegetables and fruit trees, simultaneously improves soil, improves fruit quality, and can realize economic benefit improvement through intercropped vegetables.

This invention belongs to the field of agricultural information technology and relates to a method, system, and readable medium for intercropping crop planting management based on microclimate perception and dynamic control. The method includes: collecting environmental and crop moisture data from intercropping fields; generating a multivariate microclimate state vector based on the environmental and crop moisture data; inputting the multivariate microclimate state vector into a crop-climate competition model to calculate the resource competition intensity of different intercropped crops and obtain a comprehensive competition index value; and optimizing planting parameters based on the comprehensive competition index value, combined with microclimate prediction data and farmer management objectives, using a multi-objective optimization algorithm to obtain an intercropping crop planting strategy. Through rational planning, this method effectively improves crop yield stability and resource utilization efficiency, achieves a closed-loop decision-making process for intercropping crops, and enhances the level of management automation.

The application relates to the field of agricultural environment remediation and crop safety production technology, and discloses a strip interplanting method for reducing accumulation of lead in wheat by using enrichment plant companionship, which constructs a gradient strip space layout of grain amaranth outside, wheat in the middle and winged burweed inside, combines deep-rooted and shallow-rooted three-dimensional matching of the winged burweed and the grain amaranth, captures and efficiently extracts the whole profile of lead in the 0-40cm plough layer of the wheat planting land, forms a lead trap in the rhizosphere by the oxalic acid and the histidine secreted by the winged burweed root system, and efficiently chelates and fixes the soil lead; the grain amaranth competes for the shallow layer lead through the fibrous root network, and takes away the absorbed lead through multiple cutting cycles, the spatial niche differentiation of the deep root and the shallow root can effectively avoid the root competition between the two enrichment plants, so that the synergistic extraction effect is realized, and the problems of intense interspecific competition, obvious allelopathic inhibition, poor lead blocking and controlling effect and prominent crop yield reduction in the existing interplanting remediation mode are effectively solved.

This invention discloses a method for efficient utilization of straw resources and enhancement of soil carbon pool in grain-mushroom intercropping, comprising the following steps: preparing a layered substrate, the layered substrate comprising 40-45 parts by weight of wheat straw, 35-40 parts by weight of corn straw, 5-8 parts by weight of rice bran, 1-2 parts by weight of gypsum, and 0.5-1 parts by weight of calcium carbonate; subjecting the layered substrate to hydrothermal treatment at 65-70℃ for 90±5 minutes, and then cooling it to 25±2℃; inoculating the cooled substrate with Trichoderma harzianum strain T-22 at an inoculation amount of 10% of the substrate weight. 6 The concentration of CFU / g was measured and cultured at 25±2℃ and 75-85% relative humidity for 24-36 hours. A sequential inoculation system was used, first inoculating oyster mushrooms at 3% of the substrate weight, then inoculating shiitake mushrooms at 2.5% of the substrate weight after 7 days, and finally inoculating king oyster mushrooms at 2% of the substrate weight after another 7 days.

The utility model relates to the technical field of wheat and corn water and fertilizer drip irrigation, in particular to a wheat and corn intercropping water and fertilizer separate control drip irrigation device which comprises a drip irrigation pipe. The drip irrigation device further comprises sealing cover plates installed at the two ends of the drip irrigation pipe correspondingly, the sealing cover plates are used for sealing the two ends of the drip irrigation pipe, two installation blocks are connected to the outer side faces of the sealing cover plates, and inserting rods are installed at the lower ends of the installation blocks. The branch control assembly comprises a fixing rod, a separation module, a branch conveying module, a cavity separation module, a connection module, a transportation module and a drip irrigation module which are arranged in the drip irrigation pipe, the separation module is used for separating an inner cavity of the drip irrigation pipe, the branch conveying module is responsible for guiding water into the inner cavity of the corresponding drip irrigation pipe, and the cavity separation module serves as a buffer cavity area of the branch conveying module; the four rows of drip irrigation holes with different intervals and hole diameters are formed, the corresponding cavities and the drip irrigation holes can be selectively used according to the intercropping row spacing, planting density and root system distribution characteristics of wheat and corn, and the irrigation requirements of various intercropping modes are met.

This invention relates to the field of high-efficiency crop cultivation and farmland soil fertility improvement technology, and particularly to a green and efficient management method for the entire growth cycle of a maize-soybean intercropping system. This invention provides a closed-loop management technology solution for the entire growth cycle. Through precise coupling and parameter matching of soil quality grading, optimized density configuration, reduced fertilizer application, plant type control, photosynthetic efficiency enhancement, and straw return rotation, it achieves stable grain yields, rapid soil fertility improvement, and enhanced ecological benefits, while overcoming long-standing technical challenges in this field. It provides practical and reliable technical support for green and efficient farmland production in major grain and oilseed producing areas.

The application discloses a kind of multifunctional compound planting system evapotranspiration process dynamic monitoring device and method, lysimeter measuring cylinder is arranged in the upper portion of lysimeter filter layer, soil evaporation barrel and intercropping crop lysimeter barrel are buried in the soil of lysimeter measuring cylinder top portion, soil moisture sensor is connected to the outer wall of one side of lysimeter measuring cylinder, automatic water supply device is connected to the bottom of the outer wall of the other side, with automatic water supply device is located in the same side, groundwater supply device and water level gauge are equipped in the bottom of lysimeter filter layer, the other side is equipped with drain pipe, drain pipe is connected with leakage device, lysimeter filter layer bottom is connected with weighing sensor, drip irrigation belt is arranged in crop row;Based on lysimeter weight, soil moisture, irrigation data, automatic water supply data, groundwater recharge data, drainage data, leakage data and meteorological data, the change of soil storage water quantity is calculated.The application can accurately characterize the evapotranspiration process of compound system.

This invention discloses an ecological planting method for intercropping and relay cropping of Isatis indigotica with sesame or fennel, belonging to the field of ecological planting technology. The method includes the following steps: root system stratification optimization and water and fertilizer management: A wide-narrow row planting pattern is adopted, where the narrow rows (25-35cm wide) are used for planting Isatis indigotica, and the wide rows (45-60cm wide) are used for alternating planting of sesame or fennel. A root-prevention isolation strip (8-15cm wide, 20-30cm deep) is set at the boundary between the wide and narrow rows. Before sowing, a fast-acting nitrogen-phosphorus compound fertilizer for sesame or fennel is applied to the soil layer at a depth of 0-20cm at a rate of 15-25 kg / mu. This invention, by adopting a wide-narrow row planting pattern and applying fast-acting nitrogen-phosphorus compound fertilizer and slow-release organic fertilizer to different soil layers, combined with a dual-path drip irrigation system for controlled irrigation, achieves stratified management of Isatis indigotica and sesame or fennel in terms of nutrient and water niches, effectively reducing water and fertilizer competition between the two crops and improving resource utilization efficiency.

The application provides a carbon-nitrogen isotope double-chamber labeling and control device and method for intercropping systems, which comprises a soil tank with a bottom separated by a removable partition, and double labeling chambers arranged above the soil tank, and the bottom of the labeling chambers is in airtight connection with the soil tank through a water seal structure. A reaction supply assembly, a sensor group and a cooperative closed-loop control module are arranged in each labeling chamber. The module synchronously collects the gas concentration, pressure difference, temperature and humidity and the state of the execution component of the double chambers, cooperatively determines the working condition based on the concentration difference, pressure difference relationship and concentration attenuation characteristics of the two chambers, distinguishes the plant normal absorption, supply deviation, sealing leakage and inter-chamber gas leakage state, and performs linkage compensation control on the supply rate, valve opening degree and fan parameters. The application realizes the continuous connection of the partitioned and isolated labeling of the aboveground parts of different plants and the interactive research of the underground root systems under the intercropping system, effectively suppresses the gas crosstalk, and improves the accuracy and stability of the isotope labeling.

The present application provides a kind of fern composite planting method based on birch forest, and belongs to the technical field of agricultural planting.The present application provides a kind of fern composite planting method based on birch forest in the low-quality birch forest area in northeast forest, solves the problem of low utilization rate of existing low-quality birch forest interspace and unbalanced supply and demand of fern market, and solves the problem of fern resource cultivation and artificial large-area planting difficulty.The present application solves the problem of low-quality birch forest space utilization difficulty by different forest type selection method and different canopy density fern planting method, realizes the one-year two-season harvesting mode of spring vegetable picking and autumn fruit picking by low canopy density plot black bud currant and fern intercropping, increases the utilization efficiency and multiple cropping index of interspace in forest, and provides a new mode for forest economy development and lays a foundation for forest fern industry development.

The application discloses a kind of early fruiting and high-yield cultivation method suitable for fast garden building of camellia oleifera, comprising the following steps: step one, ground preparation and base fertilizer application: overall ground preparation, ladder ground preparation, strip ground preparation;Step two, seedling selection;Step three, variety configuration;Step four, planting seedlings: choose December to March of next year to plant, avoid ice and snow extreme weather, drought in winter and spring is serious in rainy season;Step five, row ridge protects seedlings and water;Step six, interplanting and fertilization and moisture conservation;Step seven, stand and tree management;Step eight, scientific fertilization;Step nine: disease and pest control, adopt the method that biological control, physical control and chemical control are combined, effectively control disease and pest occurrence.The early fruiting and high-yield cultivation method suitable for fast garden building of camellia oleifera, by comprehensive use mountain land preparation, fertilization, seedling selection and variety configuration, compound planting, disease prevention and other measures, significantly improve the yield and quality of camellia oleifera forest, early garden building high yield, improve the economic benefit of camellia oleifera industry.

This invention relates to the field of soil improvement, specifically to a sugarcane planting method that improves soil physicochemical properties. The planting method is as follows: Step S1: Soybean harvesting and returning to the field; Step S2: Soil testing and preparation of base fertilizer. This invention constructs a sugarcane-soybean intercropping symbiotic system, forming a synergistic improvement technology solution of "using waste to nourish the soil, using bacteria to promote growth, and slow-release fertilization." This method overcomes the shortcomings of traditional measures that are singular and lack synergy, achieving a systematic and sustainable improvement of soil physical structure, chemical fertility, and biological activity. It significantly improves the efficiency of nutrient resource recycling, sugarcane stress resistance, and final yield and quality. This planting method has a high degree of technical integration and strong operability, and has broad application prospects for solving the obstacles of long-term continuous sugarcane cropping and promoting the green and sustainable development of the sugar industry.

This utility model relates to the technical field of integrated sowing and fertilizing machines, and more particularly to an anti-tangling soybean intercropping sowing and fertilizing integrated machine. It includes a main body, an anti-tangling component, a fertilizing component, and a sowing component. In this utility model, through the arrangement of a rotary tiller mounting shaft, rotary tiller blades, a shredder mounting shaft, shredder blades, and an anti-tangling plate, the device can till the land using the rotary tiller blades, loosening the soil and facilitating subsequent fertilization and sowing. The rotary tiller blades can also lift up straw, and the shredder blades quickly shred the straw lifted by the rotary tiller blades, preventing the straw from tangling with the device. The shredded straw can also be used as fertilizer. The anti-tangling plate can limit the straw, ensuring that all the straw lifted by the rotary tiller blades is shredded by the shredder blades. This device has good anti-tangling performance, ensuring the equipment's moving speed and high operating efficiency.

This invention relates to the field of saline-alkali land improvement technology. This invention provides a method for improving saline-alkali land based on crop rotation, comprising the following steps: (1) preparing the land surface, deep plowing and laying drainage pipes; (2) planting Suaeda salsa and sweet sorghum in the first year, and after harvesting, crushing the plants and returning them to the field; (3) planting peas and celery in the second year, and after harvesting, crushing the straw and returning it to the field; (4) planting Jerusalem artichoke in the third year, applying well-rotted organic fertilizer and bio-fertilizer during this period, and after harvesting, crushing the straw and returning it to the field. This invention's technical solution, through scientific crop rotation, optimized planting process, and supporting management measures, not only significantly improves the effect of saline-alkali land improvement, but also solves the problems of easy secondary pollution, prominent continuous cropping obstacles, and low crop yield and quality existing in existing improvement methods. The entire improvement process is green and environmentally friendly, with no pollutant emissions, and is suitable for the long-term sustainable improvement and utilization of moderately saline-alkali land.

This application relates to the field of high-resolution orthophoto recognition technology, specifically to a method for identifying tobacco-crop intercropping patterns based on multi-layer semantic segmentation and row structure analysis. The method includes the following steps: acquiring high-resolution orthophotos of the target area; inputting the images into an improved HTC model for pixel-level semantic segmentation to distinguish the background, flue-cured tobacco, and other crops; identifying intercropping interference zones formed by flue-cured tobacco and its associated crops based on the semantic segmentation results and distance transformation; and extracting the row structure and identifying the intercropping pattern of the interference zones. The core of this application is to leverage the differences in spectral response, texture, and spatial geometric arrangement of crops in high-resolution orthophotos. Through a multi-layered collaborative process of "semantic segmentation – neighborhood selection – row structure analysis – pattern discrimination," it achieves accurate identification of intercropping patterns between flue-cured tobacco and other crops, realizing specialized modeling and representation capabilities for the typical intercropping pattern of alternating rows and columns of flue-cured tobacco and other crops.

This invention discloses a wheat seeder specifically designed for cotton-wheat intercropping, comprising: a frame; a transmission box fixed to the frame; a ridging shaft rotatably mounted at the bottom of the frame, the ridging shaft being connected to the first output end of the transmission box via a first transmission mechanism; two full-row ridging discs fixed at intervals in the middle of the ridging shaft, used to rid entire rows of cotton; half-row ridging discs fixed near both ends of the ridging shaft, used to rid half rows of cotton, and cooperating with the half-row ridging discs used when the seeder returns to sow, to rid entire rows of cotton; the space between the full-row ridging discs and their adjacent half-row ridging discs defines the wheat sowing rows, with the cotton rows located between the two wheat sowing rows; and a wheat sowing mechanism mounted on the frame. This seeder achieves integrated wheat sowing and cotton retention through the ridging disc layout, improving the efficiency of cotton-wheat intercropping.

The application relates to the irrigation technical field and discloses a spray-drip composite irrigation system special for intercropping modes and a hydraulic design method. The system comprises a shared water supply main pipeline, a proportional shunt control module connected with the main pipeline, a drip irrigation belt, an intercropping special micro-sprinkling belt and a multi-parameter sensor and a control module for monitoring soil moisture, pipeline pressure and flow. The processing center is configured to execute a pressure dynamic feedback water distribution control algorithm based on the monitoring data of the multi-parameter sensor and the control module, calculate a dynamic water distribution ratio of the drip irrigation belt and the micro-sprinkling belt, control the opening degree of the electric ball valve to proportionally distribute the flow, realize real-time sensing through multi-depth soil moisture, flow and pressure and other multi-source data, realize real-time calculation of water demand weights and water distribution ratios of each belt and automatic mapping to valve opening degrees through built-in proportional water distribution and priority dynamic control algorithms and realize closed-loop adaptive regulation and control of the drip irrigation and micro-sprinkling systems.

This invention discloses a rice-wheat rotation farmland ecosystem based on an intercropping natural enemy conservation zone of Angelica sinensis and Osmanthus fragrans, and a cross-seasonal pest control method. The method involves planting Osmanthus fragrans trees at 3-5 meter intervals along field ridges, with Angelica sinensis interspersed among them, thus constructing a perennial natural enemy conservation zone. During the flowering periods of Angelica sinensis (May-June) and Osmanthus fragrans (September-October), volatile compounds are released, providing nectar and pollen to attract natural enemies such as ladybugs, lacewings, hoverflies, and parasitic wasps to colonize and proliferate. These natural enemy populations naturally migrate into the farmland during the wheat and rice seasons to control pests such as wheat aphids, rice planthoppers, and rice stem borers, with significant control effects and reducing pesticide application by 1-2 times. This perennial system is easy to manage and can generate economic benefits from the harvest of Angelica sinensis and Osmanthus fragrans, providing a technical approach for green agriculture in rice-wheat rotation areas.