The present disclosure discloses a method for tomato soilless cultivation with suspended trough, including four aspects: setting of soilless cultivation substrate trough, preparation of soilless cultivation substrate, efficient and economical grafting and plant management. The efficient and economical grafting includes seedling raising, preparation of new scion, grafting and healing culture. The plant management includes planting, pruning and vine raising, flower and fruit management, and plant type maintenance. the present disclosure utilizes a soilless cultivation substrate trough, which can overcome the shortcomings of poor water retention, difficult control of temperature and water and fertilizer application in substrate bag cultivation and give full play to the characteristics of the cultivation substrate. The use of efficient and economical grafting and supporting plant management methods can optimize plants configuration, simplifying the work content of plant management, and improving the utilization rate of cultivation space.

The present disclosure discloses a method for tomato soilless cultivation with suspended trough, including four aspects: setting of soilless cultivation substrate trough, preparation of soilless cultivation substrate, efficient and economical grafting and plant management. The efficient and economical grafting includes seedling raising, preparation of new scion, grafting and healing culture. The plant management includes planting, pruning and vine raising, flower and fruit management, and plant type maintenance. the present disclosure utilizes a soilless cultivation substrate trough, which can overcome the shortcomings of poor water retention, difficult control of temperature and water and fertilizer application in substrate bag cultivation and give full play to the characteristics of the cultivation substrate. The use of efficient and economical grafting and supporting plant management methods can optimize plants configuration, simplifying the work content of plant management, and improving the utilization rate of cultivation space.

The purpose of the present invention is to provide a method for producing fruit having improved quality which has fewer restrictions on place and the like and can be more casually used. This method for producing fruit having improved quality uses nanobubble water for a plant body belonging to fruit trees.

The purpose of the present invention is to provide a method for producing fruit having improved quality which has fewer restrictions on place and the like and can be more casually used. This method for producing fruit having improved quality uses nanobubble water for a plant body belonging to fruit trees.

Provided are methods for both pollinating and simulating pollination of a crop plant having one or more stigmas that are receptive to pollen and that produces at least one seed, grain, or fruit of interest. Methods of the present invention include ingesting input data, such as reproductive maturity data, for a population of the crop plant, sufficient to determine one or more days on which the crop plant will be receptive to pollen. The input data is modeled to generate the amount of receptive stigmas in the population, the effect of intentionally applying pollen during each time step to transform the number of receptive stigmas to a modeled output of seed, grain, or fruit of interest, and generating one or more time steps during which intentional pollination is modeled to provide a greater harvest of the seed, grain, or fruit of interest than other of said time steps. The crop may be intentionally pollinated during at least one of said time steps during which intentional pollination is modeled to provide a greater harvest of the seed, grain, or fruit of interest.

Provided are methods for both pollinating and simulating pollination of a crop plant having one or more stigmas that are receptive to pollen and that produces at least one seed, grain, or fruit of interest. Methods of the present invention include ingesting input data, such as reproductive maturity data, for a population of the crop plant, sufficient to determine one or more days on which the crop plant will be receptive to pollen. The input data is modeled to generate the amount of receptive stigmas in the population, the effect of intentionally applying pollen during each time step to transform the number of receptive stigmas to a modeled output of seed, grain, or fruit of interest, and generating one or more time steps during which intentional pollination is modeled to provide a greater harvest of the seed, grain, or fruit of interest than other of said time steps. The crop may be intentionally pollinated during at least one of said time steps during which intentional pollination is modeled to provide a greater harvest of the seed, grain, or fruit of interest.

A method for the production of fruit trees including the steps of: grafting of an offshoot or propagation material of the variety to be propagated on a grafting point of a rootstock, to form a tree, planting of the rootstock in a nursery, pot or greenhouse ground and subsequent transplanting of the developed tree in a production ground; wherein the planting takes place arranging the rootstock tilted to one side to form with the ground an angle of pre-set amplitude, smaller than 90° and preferably of 45° and with the offshoot in a substantially vertical position; in the transplanting step the rootstock is arranged in the production ground in a substantially vertical position, so that the trunk of the tree, which is angled in respect to the rootstock, forms a main side branch from which vine-like branches or side branches orientated upwards sprout.

A method for the production of fruit trees including the steps of: grafting of an offshoot or propagation material of the variety to be propagated on a grafting point of a rootstock, to form a tree, planting of the rootstock in a nursery, pot or greenhouse ground and subsequent transplanting of the developed tree in a production ground; wherein the planting takes place arranging the rootstock tilted to one side to form with the ground an angle of pre-set amplitude, smaller than 90° and preferably of 45° and with the offshoot in a substantially vertical position; in the transplanting step the rootstock is arranged in the production ground in a substantially vertical position, so that the trunk of the tree, which is angled in respect to the rootstock, forms a main side branch from which vine-like branches or side branches orientated upwards sprout.

The present invention provides a growing support structure for use in planting crop and ornamental plants which supports the growth of the plant and may improve fruit production. The tool is a cage structure through which the plant grows, propping up the shoots of the plant and supporting the fruit, flowers, and/or other anatomical structures, keeping them from contacting the ground, thereby preventing rot. The cage structure also allows the plant to still receive the benefit of sunlight, as the cage allows the passage of sunlight.

The present invention provides a growing support structure for use in planting crop and ornamental plants which supports the growth of the plant and may improve fruit production. The tool is a cage structure through which the plant grows, propping up the shoots of the plant and supporting the fruit, flowers, and/or other anatomical structures, keeping them from contacting the ground, thereby preventing rot. The cage structure also allows the plant to still receive the benefit of sunlight, as the cage allows the passage of sunlight.