Bài Tập Trắc Nghiệm Chuyên Đề: Đọc hiểu: xác định vị trí thông tin (Tiếng Anh Lớp 10, 11, 12)

The concept of project farming, where farmers come together to collaborate on large-scale agricultural projects, has gained significant traction, and modern technology keeps this collaboration on track. Advanced technologies such as GPS, sensors, drones, and data analytics are used to optimise agricultural practices. Additionally, the collected real-time data on soil conditions, weather patterns, and plant growth enables farmers to accelerate the decision-making process that maximises productivity while minimising resource wastage. GPS technology allows farmers to precisely map out their fields and create customised planting plans. This ensures that seeds are sown at optimal locations based on soil characteristics and previous yield data. By avoiding areas with poor fertility, farmers can increase their overall crop yield. Camera traps provide advance warnings of insects, so farmers do not have to treat the whole field. This, therefore, helps curb chemical runoff and save money for every party involved in the project. Technology also plays a vital role in optimising irrigation practices for sustainable agriculture. Specialised equipment reports dryness hour by hour, and weather apps forecast rain for the week ahead. Automated valves give each zone exactly the water it needs and pause when clouds are approaching. This cuts pumping costs and protects groundwater while keeping the crop healthy. On dry continents, such savings keep projects economically viable. The digital trail does not stop at the farm gate. Cloud platforms let project farmers, processors, and truck drivers input harvest weights, storage temperatures, and delivery times the moment they change, while blockchain records freeze each entry so customers can trust it. Analytic tools combine seasons of records to forecast demand, spot price opportunities, and mark weak points in the workflow. This allows project farmers to anticipate market demand, exploit resource allocation, and plan for potential challenges.

The concept of project farming, where farmers come together to collaborate on large-scale agricultural projects, has gained significant traction, and modern technology keeps this collaboration on track. Advanced technologies such as GPS, sensors, drones, and data analytics are used to optimise agricultural practices. Additionally, the collected real-time data on soil conditions, weather patterns, and plant growth enables farmers to accelerate the decision-making process that maximises productivity while minimising resource wastage. GPS technology allows farmers to precisely map out their fields and create customised planting plans. This ensures that seeds are sown at optimal locations based on soil characteristics and previous yield data. By avoiding areas with poor fertility, farmers can increase their overall crop yield. Camera traps provide advance warnings of insects, so farmers do not have to treat the whole field. This, therefore, helps curb chemical runoff and save money for every party involved in the project. Technology also plays a vital role in optimising irrigation practices for sustainable agriculture. Specialised equipment reports dryness hour by hour, and weather apps forecast rain for the week ahead. Automated valves give each zone exactly the water it needs and pause when clouds are approaching. This cuts pumping costs and protects groundwater while keeping the crop healthy. On dry continents, such savings keep projects economically viable. The digital trail does not stop at the farm gate. Cloud platforms let project farmers, processors, and truck drivers input harvest weights, storage temperatures, and delivery times the moment they change, while blockchain records freeze each entry so customers can trust it. Analytic tools combine seasons of records to forecast demand, spot price opportunities, and mark weak points in the workflow. This allows project farmers to anticipate market demand, exploit resource allocation, and plan for potential challenges.

When several farmers merge plots into a single "project farm", they use digital tools to make that teamwork far more effective. GPS mapping, drones, and in-field sensors build a live, shared picture of soil types, weather shifts, and plant growth. Because everyone works on the same data, the team can settle seeding dates, determine when to spray, and track machinery in real time. What once depended on guesswork is now driven by verifiable information.

With GPS technology, farmers can accurately map out their fields and create customised planting plans. Seeding machines change their rate on the fly, drones spray pests on targeted zones, and smart spreaders apply fertiliser only where data shows a need. Because inputs go exactly where they help, fields yield more while chemical runoff falls. Trials report considerable savings on seed, fuel, and sprays – benefits the partners split at the season's end.

Water management is just as precise. Specialised equipment tracks moisture every hour, and forecast apps predict rain, wind, or heatwaves. Automated pumps deliver measured water amounts to thirsty zones and stop when a storm is coming, slashing waste and energy bills. The result is steadier yields in dry years, fewer nutrients washed away, and a smaller water footprint for the whole partnership. Smart irrigation also helps limit weed growth, reducing herbicide use.

The journey from field to market is equally digital. Cloud platforms record harvest weights, storage temperatures, and shipment times the moment they change, while blockchain records freeze each entry so customers can rely on it. Analytic tools browse the records to indicate weak points in the procedure, forecast prices, and suggest better planting plans for the next season to project partners. This makes project farming both profitable and sustainable.

When several farmers merge plots into a single "project farm", they use digital tools to make that teamwork far more effective. GPS mapping, drones, and in-field sensors build a live, shared picture of soil types, weather shifts, and plant growth. Because everyone works on the same data, the team can settle seeding dates, determine when to spray, and track machinery in real time. What once depended on guesswork is now driven by verifiable information.

With GPS technology, farmers can accurately map out their fields and create customised planting plans. Seeding machines change their rate on the fly, drones spray pests on targeted zones, and smart spreaders apply fertiliser only where data shows a need. Because inputs go exactly where they help, fields yield more while chemical runoff falls. Trials report considerable savings on seed, fuel, and sprays – benefits the partners split at the season's end.

Water management is just as precise. Specialised equipment tracks moisture every hour, and forecast apps predict rain, wind, or heatwaves. Automated pumps deliver measured water amounts to thirsty zones and stop when a storm is coming, slashing waste and energy bills. The result is steadier yields in dry years, fewer nutrients washed away, and a smaller water footprint for the whole partnership. Smart irrigation also helps limit weed growth, reducing herbicide use.

The journey from field to market is equally digital. Cloud platforms record harvest weights, storage temperatures, and shipment times the moment they change, while blockchain records freeze each entry so customers can rely on it. Analytic tools browse the records to indicate weak points in the procedure, forecast prices, and suggest better planting plans for the next season to project partners. This makes project farming both profitable and sustainable.

The concept of project farming, where farmers come together to collaborate on large-scale agricultural projects, has gained significant traction, and modern technology keeps this collaboration on track. Advanced technologies such as GPS, sensors, drones, and data analytics are used to optimise agricultural practices. Additionally, the collected real-time data on soil conditions, weather patterns, and plant growth enables farmers to accelerate the decision-making process that maximises productivity while minimising resource wastage. GPS technology allows farmers to precisely map out their fields and create customised planting plans. This ensures that seeds are sown at optimal locations based on soil characteristics and previous yield data. By avoiding areas with poor fertility, farmers can increase their overall crop yield. Camera traps provide advance warnings of insects, so farmers do not have to treat the whole field. This, therefore, helps curb chemical runoff and save money for every party involved in the project. Technology also plays a vital role in optimising irrigation practices for sustainable agriculture. Specialised equipment reports dryness hour by hour, and weather apps forecast rain for the week ahead. Automated valves give each zone exactly the water it needs and pause when clouds are approaching. This cuts pumping costs and protects groundwater while keeping the crop healthy. On dry continents, such savings keep projects economically viable. The digital trail does not stop at the farm gate. Cloud platforms let project farmers, processors, and truck drivers input harvest weights, storage temperatures, and delivery times the moment they change; while blockchain records freeze each entry so customers can trust it. Analytic tools combine seasons of records to forecast demand, spot price opportunities, and mark weak points in the workflow. This allows project farmers to anticipate market demand, exploit resource allocation, and plan for potential challenges.

The concept of project farming, where farmers come together to collaborate on large-scale agricultural projects, has gained significant traction, and modern technology keeps this collaboration on track. Advanced technologies such as GPS, sensors, drones, and data analytics are used to optimise agricultural practices. Additionally, the collected real-time data on soil conditions, weather patterns, and plant growth enables farmers to accelerate the decision-making process that maximises productivity while minimising resource wastage. GPS technology allows farmers to precisely map out their fields and create customised planting plans. This ensures that seeds are sown at optimal locations based on soil characteristics and previous yield data. By avoiding areas with poor fertility, farmers can increase their overall crop yield. Camera traps provide advance warnings of insects, so farmers do not have to treat the whole field. This, therefore, helps curb chemical runoff and save money for every party involved in the project. Technology also plays a vital role in optimising irrigation practices for sustainable agriculture. Specialised equipment reports dryness hour by hour, and weather apps forecast rain for the week ahead. Automated valves give each zone exactly the water it needs and pause when clouds are approaching. This cuts pumping costs and protects groundwater while keeping the crop healthy. On dry continents, such savings keep projects economically viable. The digital trail does not stop at the farm gate. Cloud platforms let project farmers, processors, and truck drivers input harvest weights, storage temperatures, and delivery times the moment they change; while blockchain records freeze each entry so customers can trust it. Analytic tools combine seasons of records to forecast demand, spot price opportunities, and mark weak points in the workflow. This allows project farmers to anticipate market demand, exploit resource allocation, and plan for potential challenges.