How to use No green thumb

THREE EASY STEPS

1

Dilute

  • Mix your One 16 oz. bottle of NGT mixed with 6.25 gallons of water, this amount covers 5,000 sqft. 1 Liter of NGT shelf-life is 18 months.

2

Dosage

  • One gallon of NGT mixed with 50 gallons of water covers 1 acre.

    For Plants: 2Tbsp of NGT mixed with 64 oz. of water for every 7-9 days.

    For Flowers: 4-6 Liters of NGT mixed with 50 gallons of water per Acre every 7-9 days

3

Frequency

  • Apply solution 10-15 days after the first application per crop cycle.

DOsages

  • WHEATS, OATS, BARLEY, AND RICE

    DOSAGE: 6-8 LITERS PER ACRE

    Apply during the vegetative period, 1-2 applications from 4-5 leaves.

  • GARLIC & ONION

    DOSAGE: 6-8 LITERS PER ACRE

    Apply starting 30 days after transplant and repeat every 15 days.

  • BERRIES

    DOSAGE: 6-7 LITERS PER ACRE

    Apply from 15-20 days after transplanting and repeat every 15 days during the vegetative period for blueberries, strawberries, raspberries, and blackberries.

  • CORN, SORGHUM, BEANS, AND PEAS

    DOSAGE: 6-8 LITERS PER ACRE

    Apply in the vegetative period of 2-3 applications starting when the plant is 30cm tall at intervals of 15 days.

  • NOPAL AND PRICKLY PEAR

    DOSAGE: 6-8 LITERS PER ACRE

    Apply in the vegetative period every 15 days, in the tuna tree suspend one month before the start of flowering.

  • ORNAMENTALS, CUT FLOWERS, AND FOLIAGE

    DOSAGE: 6-8 LITERS PER ACRE

    Apply from 15-20 days after transplanting and repeat every 21 days during the vegetative period.

  • DAD

    DOSAGE: 6-8 LITERS PER ACRE

    Apply from 15-20 days after germination and repeat every 21 days during the vegetative period.

  • PINEAPPLE

    DOSAGE: 6-10 LITERS PER ACRE

    Apply from 15-20 days, after sowing, suspend one month before the start of flowering.

  • BANANA

    DOSAGE: 6-8 LITERS PER ACRE

    Apply from the third month after the plants are established until one month before flowering begins, at intervals of 15 days, making at least three applications.

  • CELERY, PUMPKIN, CHILI, ASPARAGUS, CHICKPEA, MELON, CUCUMBER, WATERMELON, TOMATO, AND CARROT

    DOSAGE: 6-8 LITERS PER ACRE

    Apply 15-20 days after transplanting and repeat every 15 days in the vegetative period and suspend at the beginning of filling.

  • SUGAR CANE

    DOSAGE: 6-10 LITERS PER ACRE

    Make 2-3 applications in the vegetative period after the plant is 30cm high and repeat every 15 days.

  • BLUE AGAVE

    DOSAGE: 6-10 LITERS PER ACRE

    Apply at the beginning of a storm and repeat in period of 30 days with a minimum of 2 applications; applying low doses in crops from 0-1 year, intermediate from 2-3 years, and high doses from 4-5 years.

  • PEACH, AVOCADO, CITRUS, GUAVA, MANGO, APPLE, WALNUT, VINE, COFFEE, AND PLUM

    DOSAGE: 6-10 LITERS PER ACRE

    Depending on the vegetative development, apply from the beginning of flowering until the beginning of fruiting.

  • ALFALFA AND PRUNED OR GRAZED PARTS

    DOSAGE: 6-10 LITERS PER ACRE

    Apply 10 cm from birth and repeat every 15 days after each cut.

  • BROCCOLI, CILANTRO, CAULIFLOWER, CABBAGE, SPINACH, AND LETTUCE

    DOSAGE: 6-7 LITERS PER ACRE

    Apply 15-20 days after transplanting and repeat 15 days during the vegetative period.

FAQs

  • Organic farming is agriculture that makes healthy food, healthy soils, healthy plants, and healthy environments a priority, along with crop productivity. Organic farmers use biological fertilizer inputs and management practices such as cover cropping and crop rotation to improve soil quality and build organic soil matter. By increasing the amount of organic matter in the soil, organic farmers enhance the soil’s ability to absorb water, reducing the impacts of drought and flooding. Improving soil organic matter also helps it to absorb and store carbon and other nutrients need to grow healthy crops, which, in turn, are better able to resist insects and diseases.

    Organic production systems do not use genetically modified (GM) seed, synthetic pesticides or fertilizers. Some of the essential characteristics of organic systems include design and implementation of an organic system plan that describes the practices used in producing crops and livestock products; a detailed recordkeeping system that tracks all products from the field to point of sale; and maintenance of buffer zones to prevent inadvertent contamination by synthetic farm chemicals from adjacent conventional fields.

  • Healthy soils form the foundation of organic production. Healthy soils have good structure (tilth), which allows them to absorb and hold moisture, drain well, maintain adequate aeration, and foster deep, healthy crop root systems. Such soils sustain crops through dry spells, require less irrigation water, and undergo less ponding, runoff, and erosion during heavy rains.

    The Natural Resources Conservation Service (NRCS) has identified four guiding principles that support healthy soils: 1) minimize disturbance, 2) maximize biodiversity, 3) keep soil covered, and 4) maintain living roots. These principles provide the foundation for a resilient farm system.

    The USDA National Organic Standards require certified producers to implement crop rotation, cover cropping, tillage, nutrient management, and other practices that improve and maintain the physical, chemical, and biological condition of the soil.

  • The use of genetic engineering, or genetically modified organisms (GMOs) is prohibited in organic products. This means an organic farmer can’t plant GMO seeds, an organic cow can’t eat GMO alfalfa or corn, and an organic soup producer can’t use any GMO ingredients. To meet the USDA organic regulations, farmers and processors must show they aren’t using GMOs and that they are protecting their products from contact with prohibited substances from farm to table.


  • The National Organic Program (NOP) develops the rules and regulations for the production, handling, labeling, and enforcement of all USDA organic products. This process, referred to as rulemaking, involves input from the National Organic Standards Board (a Federal Advisory Committee made up of fifteen members of the public) and the public.

    The national standard states that organic food must be produced without the use of conventional pesticides, petroleum-based fertilizers, sewage-sludge-based fertilizers, herbicides, genetic enginerring (biotechnology), antibiotics, growth hormones, or irradiation. Animals raised on an organic operation must meet animal health welfare standards, not be fed antibiotics or growth hormones, be fed 100% organic feed, and must be provided access to the outdoors.* Land must have no prohibited substances applied to it for at least three years before the harvest of an organic crop. The NOP states that all farms, ranches, and handling operations that display the “USDA Organic” seal must be certified organic by the state or by a private agency, accredited by the USDA, to ensure the NOP standards are followed.

    To gain organic certification, a farmer (of cropland, pasture or livestock) submits an organic system plan to an accredited certifier each year. This documents how the farmer adheres to NOP standards. Certified organic farms and processing facilities undergo annual inspections to verify that they are meeting the standards. Organic inspectors examine all elements of a farm operation for adherence to the standards and verfiy that the farm is being managed according to the farmer’s organic system plan.


  • Organic farms use production practices with environmental benefits such as water management practices, no-till or minimum tillage, habitat maintenance for beneficial insects and vertebrates, and biological pest control. These ecologically protective practices contribute to enhanced ecosystem services and benefit water quality, soil health, and biodiversity.

    Conventional farming typically uses minimal crop rotations, growing the same single crop year after year on the same land. This practice, known as mono cropping causes the depletion of nutrients and minerals. In order to continue growing crops in this depleted soil, nutrients and minerals must be added back in the form of hydrocarbon based fertilizers and mined minerals such as phosphate. Conventional GM farming is dependent on earth-based non-renewable resources. Monocultures and the resulting poor health open the way for infestations of insects, diseases and weeds. Healthy bio-diverse soil keeps these infestations in check. The lack of biodiversity requires synthetic pesticides and herbicides to be used, further destroying the national soil biology.