DE102018117422B4 - Vertical crop growing system - Google Patents

Abstract

Vertical crop cultivation system comprising a building (10), a nutrient solution supply unit (20), a lighting unit (30), an air control unit (40), an audio adjustment unit (50) and a control unit (60), the building (10) surrounding a cultivation room, wherein at least one shelf (11) is arranged in the cultivation room, a plurality of cultivation beds (12) arranged one above the other being attached to the shelf (11); the nutrient solution supply unit (20) contains at least one storage container (21) in the ground, the storage container (21) is connected to the breeding beds (12) by a nutrient solution pump (22) and a nutrient solution supply pipe (23); the lighting unit (30) on the breeding beds (12) each has a photoelectric module (31) for generating a predetermined light after the current is supplied the air control unit (40) includes at least one water curtain (41) connected to the grow room of the building (10), a water supply device (42), d ie is connected to the water curtain (41), and contains a bubble module (43) which is arranged in the water supply device (42); the audio setting unit (50) at least one loudspeaker (51) which is connected to the grow room of the building (10) can communicate and includes an audio player (52) electrically connected to the at least one speaker (51); andthe control unit (60) is at least electrically connected to the nutrient solution pump (22), the photoelectric modules (31), the bladder module (43) and the audio player (52) in order to control at least the nutrient solution pump (22), the photoelectric modules (31), control the bubble module (43) and audio player (52).

Description

Technical area

The invention relates to a useful plant breeding system, in particular a vertical useful plant breeding system, which can provide the environmental conditions for the growth of useful plants at lower costs and can adjust the environmental conditions in accordance with the growth state of the useful plants.

State of the art

A traditional large cultivation field for crops is usually an open agricultural field (open-air cultivation), has a large area and can easily be influenced by the climate. Research institutions in many countries are therefore trying to develop a breeding system in order to create better environmental conditions so that the yield (especially of food crops) can be increased and energy is saved.

So that the cultivation of useful plants is not limited by the natural environmental conditions and the principle of time and place-bound cultivation can be neglected, plants are grown in a building under control of the energy sources and environmental conditions for the growth of the plants, such as light, water, air and Nutrients to completely exclude external negative environmental impacts, which enables continuous harvesting throughout the year, increasing the yield and saving energy.

However, the conventional plant breeding systems only improve the natural environmental conditions, such as light, water, temperature and humidity, in particular the lighting and the water supply. The water temperature and air quality are not strictly controlled. If the water temperature and air quality are not suitable for the growth of the plants, the growth of the plants is weak or fluctuating, so that the yield is not stable.

In addition, the environmental conditions for the growth of different crops are not the same. The same crops also require different environmental conditions at different growth stages. How to effectively and timely control plant breeding by setting the facilities in the building and how to overcome the limitation of plant production by the natural environmental conditions has long been a task that industry and science have tried to solve.

The pamphlet US 2014/0115958 A1 discloses a known vertical crop cultivation system comprising a container, a nutrient solution supply unit, a lighting unit, an air conditioning unit and a control unit, the container surrounding a cultivation room in which at least one shelf is arranged with a plurality of cultivation beds arranged one above the other. The nutrient solution supply unit contains at least one storage container which is connected to the respective breeding beds by a pump and supply pipes. The lighting unit provides a photoelectric module for generating a predetermined light on each of the breeding beds.

Pamphlet US 2018/0042186 A1 shows a similar conventional vertical crop cultivation system, which further comprises an audio adjustment unit with at least one loudspeaker communicating with the cultivation room and an audio player.

document DE 690 09 494 T2 further discloses a movable device for improving the indoor air quality, which is particularly suitable for achieving suitable air humidification.

Object of the invention

The invention is based on the object of creating a vertical crop cultivation system which can provide the ambient conditions for the growth of crop plants at lower costs and can adjust the ambient conditions in accordance with the growth state of the crop plants.

Technical solution

This object is achieved by the vertical crop cultivation system according to the invention with the features of claim 1, which comprises a building, a nutrient solution supply unit, a lighting unit, an air control unit, an audio setting unit and a control unit, the building surrounding a cultivation room, with at least one shelf being arranged in the cultivation room is, wherein a plurality of superposed breeding beds are attached to the shelf, the nutrient solution supply unit contains at least one storage container in the ground, the storage container being connected to the breeding beds by a nutrient solution pump and a nutrient solution supply pipe, the lighting unit on each of the breeding beds being a photoelectric Module for generating a predetermined light source after energization contains, wherein the air control unit contains at least one water curtain, which is connected to the grow room of the building, a water supply device which with the Water curtain is connected, and a bubble module which is arranged in the water supply device, the audio adjustment unit includes at least one loudspeaker that can communicate with the cultivation room of the building and an audio player that is electrically connected to the at least one loudspeaker, and wherein the control unit is at least electrically connected to the nutrient pump, the photoelectric modules, the bladder module, and the audio player to control at least the nutrient pump, the photoelectric modules, the bladder module, and the audio player.

The vertical crop growing system of the present invention can grow the crop in a vertical multilayer arrangement. This enables an effective use of space. In addition, the nutrient solution in the storage container can be isolated from the earth, which reduces the influence of the external temperature, so that the nutrient solution is prevented from freezing or overheating. Therefore, a suitable water temperature for plant growth can be provided at a relatively low cost. Through the cooperation of the nutrient solution supply unit, the lighting unit, the air control unit, the audio setting unit and the control unit, the environmental conditions, such as nutrients, lighting, temperature, humidity, oxygen content of the air and even sound vibration frequency, are set according to the plants being grown and the current state of growth of the plants Maintain crop quality and yield.

The bladder module can include at least one oxygen bladder generator.

The bubble module can further include at least one carbon dioxide bubble generator.

The bubble module can also generate at least one ozone bubble generator.

The bubble module can further include at least one oxygen bubble generator and one carbon dioxide bubble generator.

The bubble module can further include at least one carbon dioxide bubble generator and at least one ozone bubble generator.

The bubble module can further include at least one oxygen bubble generator and at least one ozone bubble generator.

The bubble module can further include at least one oxygen bubble generator, at least one carbon dioxide bubble generator, and at least one ozone bubble generator.

The air control unit can further include at least one oxygen bubble generator connected to the water supply device.

The air control unit may further include at least one carbon dioxide bubble generator connected to the water supply device.

The air control unit can further include at least one ozone bubble generator that is connected to the water supply device.

Each photoelectric module of the lighting unit can have a plurality of first photoelectric elements that generate illumination light when energized, a plurality of second photoelectric elements that generate long-wave ultraviolet light (UVA) after energization, and a plurality of third photoelectric elements that generate generate a medium-wave ultraviolet light (UVB) after being energized.

The air control unit can further include at least one oxygen bubble generator connected to the water supply device. Each photoelectric module of the lighting unit can have a plurality of first photoelectric elements that generate illumination light when energized, a plurality of second photoelectric elements that generate long-wave ultraviolet light (UVA) after energization, and a plurality of third photoelectric elements that generate generate a medium-wave ultraviolet light (UVB) after being energized.

The air control unit can include at least one carbon dioxide bubble generator connected to the water supply device. Each photoelectric module of the lighting unit can have a plurality of first photoelectric elements that generate illumination light after being energized, a plurality of second photoelectric elements that generate long-wave ultraviolet light (UVA) after energization, and a plurality of third photoelectric elements which, when energized, generate medium-wave ultraviolet light (UVB).

The air control unit can include at least one ozone bubble generator which is connected to the water supply device. Each photoelectric module of the lighting unit can have a plurality of first photoelectric elements that generate illumination light when energized, a plurality of second photoelectric elements that generate long-wave ultraviolet light (UVA) after energization, and a plurality of third photoelectric elements that generate generate a medium-wave ultraviolet light (UVB) after being energized.

The air control unit can contain a bubble module which is connected to the water supply device and contains at least one oxygen bubble generator, at least one carbon dioxide bubble generator and at least one ozone bubble generator. Each photoelectric module of the lighting unit can have a plurality of first photoelectric elements that generate illumination light when energized, a plurality of second photoelectric elements that generate long-wave ultraviolet light (UVA) after energization, and a plurality of third photoelectric elements that generate generate a medium-wave ultraviolet light (UVB) after being energized.

The air control unit can include at least one oxygen bubble generator, at least one carbon dioxide bubble generator and at least one ozone bubble generator. Each photoelectric module of the lighting unit can have a plurality of first photoelectric elements that generate illumination light when energized, a plurality of second photoelectric elements that generate long-wave ultraviolet light (UVA) after energization, and a plurality of third photoelectric elements that generate generate a medium-wave ultraviolet light (UVB) after being energized.

The building can have at least one person entrance and exit that is connected to the breeding room, a lock being provided at the person entrance and exit which can close the person entrance and exit.

The audio player of the audio setting unit can be implemented in terms of software in the hardware of the control unit.

The building can have at least one person entrance and exit that is connected to the breeding room, a lock being provided at the person entrance and exit which can close the person entrance and exit. The audio player of the audio setting unit can be implemented in terms of software in the hardware of the control unit.

The vertical crop growing system of the present invention can achieve effective use of space. The environmental conditions, such as nutrient content and type, lighting, temperature, humidity, oxygen content of the air and even sound vibration frequency are adjusted according to the plants being grown and the current state of growth of the plants in order to obtain the desired harvest quality and the desired yield. In addition, freezing of the nutrient solution can be avoided. The audio adjustment unit generates a specific sound wave frequency for the crops so that the mitochondria in the cells of the crops produce more carriers of solar energy and the efficiency of photosynthesis of the crops is increased, which synchronizes the cell cycle and accelerates the cell division, so that the growth of the crops is promoted. Therefore, the yield is increased, the quality is improved, and disease control is achieved.

Figure list

• 1 shows a schematic representation of the basic structure of the invention,
• 2 shows a sectional view of the storage container of the invention,
• 3 shows a plan view of the photoelectric module of the invention;
• 4th shows a schematic representation of the lighting unit of the invention and
• 5 Figure 3 shows a schematic representation of the audio adjustment unit of the invention.

Detailed description of an embodiment

The invention relates to a vertical crop cultivation system which can provide the ambient conditions for the growth of crop plants at a lower cost and can adjust the ambient conditions in accordance with the growth state of the crop plants. As from the 1 until 3 As can be seen, the invention essentially comprises a building 10 , a nutrient solution supply unit 20th , a lighting unit 30th , an air control unit 40 , an audio adjustment unit 50 and a control unit 60 . The building 10 surrounds a grow room. There is at least one shelf in the grow room 11th arranged. On the shelf 11th is a multitude of breeding beds arranged one above the other 12th attached. In practice, the breeding beds 12th be formed by water troughs. The building 10 has at least one person entrance and exit 13, which is connected to the breeding room. At the people entrance and exit 13 is a lock 14th provided, which can close the people entrance and exit 13.

The nutrient solution supply unit 20th contains at least one storage container in the subsurface 21 . The storage container 21 is through a nutrient pump 22nd and a Nutrient solution supply tube 23 with the breeding beds 12th tied together. The soil reduces the influence of the external temperature on the nutrient solution, thereby preventing the nutrient solution from freezing or overheating, so that the nutrient solution can be kept at a certain temperature. When the temperature of the earth's surface is too low, the reservoir becomes 21 isolated from the earth, creating an additional heating element to increase the temperature of the nutrient solution in the storage container 21 is not required. Or when the temperature of the earth's surface is too high, the storage container becomes 21 isolated from earth, eliminating the need for an additional cooling element to reduce the temperature. Therefore, energy is saved, so that the cost of growing plants is lower. Generally, the plants do photosynthesis to first convert the NPK (nitrogen-phosphorus-potassium fertilizer) fertilizer to amino acid and then amino acid to proteins, lipids and carbohydrates. In the present exemplary embodiment of the invention, an organic fertilizer (also called microbial fertilizer) is placed in the storage container 21 given. Since the organic fertilizer has undergone a second fermentation, the organic fertilizer has reached the state of the peptide. In other words, the organic fertilizer was converted to an amino acid after it was subjected to a second fermentation. The plants can directly store the amino acid in the storage container 21 absorb with the organic fertilizer, reducing the demand for the light mask, and convert the amino acid into proteins, lipids and carbohydrates. When the organic fertilizer in the storage container 21 given, the plants can be stimulated to produce useful secondary metabolites. In addition, the biological sterilization function can also be achieved.

The lighting unit 30th contains at the breeding beds 12th one photoelectric module each 31 for generating a predetermined light after energization. Any photoelectric module 31 the lighting unit 30th includes a plurality of first photoelectric elements 311 which generate illumination light after being energized, a plurality of second photoelectric elements 312 which, when energized, generate long-wave ultraviolet light (UVA), and a plurality of third photoelectric elements 313 which, when energized, generate medium-wave ultraviolet light. The user or the system can turn on and turn off the first photoelectric elements 311 , the second photoelectric element 312 and the third photoelectric element 313 of the photoelectric module 31 preset. Before the harvest period, the second photoelectric elements 312 and the third photoelectric element 313 switched on to stimulate the plants to accelerate ripening and increase yield. Furthermore, the secondary metabolites of the plants can be modulated by UVA, UVB, far red light or infrared light, the infrared light being used when the biomass is reached.

The air control unit 40 contains at least one water curtain 41 that with the grow room of the building 10 is connected to a water supply facility 42 that came with the water curtain 41 connected, and a bladder module 43 that in the water supply facility 42 is arranged. The bladder module 43 can through a pipe with at least one oxygen bubble generator 431 or at least one carbon dioxide bubble generator 432 or at least one ozone bubble generator 433 or their combination. The bladder module 43 is preferably through a tube with at least one oxygen bubble generator 431 , at least one carbon dioxide bubble generator 432 and at least one ozone bubble generator 433 tied together. The bladder module 43 partially submerges in the water of the water supply facility 42 , making the bladder module 43 Oxygen, carbon dioxide and ozone can enter the water. The bubble generators generate microbubbles or nanobubbles, the diameter of the microbubbles or nanobubbles being in the range between 1 × 10 ^-6 m and 250 × 10 ^-9 m. Since the diameter of the microbubbles or nanobubbles is small, the buoyancy force is more than three steps (factor 1000) smaller than the normal bubbles, so that the oxygen in the water has a higher stability. The amount of dissolved oxygen in water has a certain value under a certain temperature, a certain pressure and a certain electrolyte condition. The microbubbles or nanobubbles are miscible bubbles in the water, whereby the oxygen content in the water is increased and sterilization and a cooling effect can be achieved.

The audio adjustment unit 50 contains at least one loudspeaker 51 that with the grow room of the building 10 can communicate, and an audio player 52 that is electrically connected to the at least one loudspeaker 51 connected is. In practice, the audio player is 52 the audio adjustment unit 50 in terms of software in the hardware of the control unit 60 implemented. The audio adjustment unit 50 can be used individually, in groups or in an array in the grow room of the building 10 be arranged. The audio adjustment unit 50 emits a sound wave frequency associated with the nutrient solution supply pipes 23 of the plants creates a resonance, whereby the sound wave energy can be transmitted to the plants, so that the efficiency of the nutrient absorption of the plants is increased and the growth of the plants is accelerated.

The control unit 60 is at least electrical with the nutrient solution pump 22nd , the photoelectric modules 31 , the bladder module 43 and the audio player 52 connected to at least the nutrient pump 22nd who have favourited Photoelectric Modules 31 , the bladder module 43 and the audio player 52 to control.

The vertical crop growing system of the invention can grow the crop in a vertical multilayer arrangement. This enables an effective use of space. In addition, the nutrient solution can be in the storage container 21 be isolated from the earth, which reduces the influence of external temperature, so that freezing or overheating of the nutrient solution is avoided. Therefore, a suitable water temperature for plant growth can be provided at a relatively low cost.

Through the cooperation of the nutrient solution supply unit 20th , the lighting unit 30th , the air control unit 40 , the audio adjustment unit 50 and the control unit 60 the environmental conditions such as the amount and type of nutrients, lighting, temperature, humidity, oxygen content of the air and even sound vibration frequency are adjusted according to the plants being grown and the current state of growth of the plants in order to increase the quality of the harvest and the yield.

Like it in 4th is shown, the invention can in addition to the setting of the lighting time, the lighting duration and the lighting intensity according to the properties of the crops 70 also the working time and the working sequence of the first photoelectric element 311 , the second photoelectric element 312 and the third photoelectric element 313 of the corresponding photoelectric module 31 according to the current state of growth of the crops 70 in the breeding beds 12th adjust, so that a better lighting effect for the crops 70 in the breeding beds 12th is achieved.

Like it in 5 illustrated, the invention can through the loudspeaker 51 and the audio player 52 the audio adjustment unit 50 a specific sound wave frequency for the crops 70 thus generate the mitochondria in the cells of the crops 70 produce more carriers of solar energy and the efficiency of photosynthesis of crops 70 is increased, whereby the cell cycle is synchronized and cell division is accelerated, so that the growth of the useful plants 70 is promoted. Therefore, the yield is increased, the quality is improved, and disease control is achieved.

Like it in 1 is shown contains the control unit 60 in the grow room of the building 10 at least one temperature sensor and at least one humidity sensor (not shown) to monitor the temperature and humidity of the grow room and the water curtain 41 the air control unit 40 to control. Through the water curtain 41 a humidifying effect and a cooling effect can be achieved. In connection with the oxygen bubble generator 431 , the carbon dioxide bubble generator 432 and the ozone bubble generator 433 the oxygen, carbon dioxide and ozone levels in the air are improved.

It should be noted here that one or a combination of the oxygen bubble generator 431 , the carbon dioxide bubble generator 432 and the ozone bubble generator 433 of the bladder module 43 can work at the same time. The ones by the oxygen bubble generator 431 , the carbon dioxide bubble generator 432 and the ozone bubble generator 433 bubbles generated are microbubbles or even nanobubbles.

In summary, the vertical crop cultivation system according to the invention can use the space effectively and adjust the environmental conditions such as the amount and type of nutrients, lighting, temperature, humidity, oxygen content in the air and sound wave frequency in accordance with the crops and the current growth status of the crops in order to adjust the crop quality and the Increase Yield. Due to the specific sound wave frequency of the audio adjustment unit, the mitochondria in the cells of the crops can produce more carriers of solar energy and increase the efficiency of photosynthesis of the crops, thereby synchronizing the cell cycle and accelerating the cell division, so that the growth of the crops is promoted. Therefore, the yield is increased, the quality is improved, and disease control is achieved.

The preceding description is only of preferred embodiments of the invention and is not intended to serve as a definition of the limits and scope of the invention. All equivalent changes and modifications which fall within the scope of protection of the patent claims and which are obvious to a person skilled in the art from the above description and the drawings are also the subject matter of this invention.

List of reference symbols

10

building

11th

shelf

12th

Breeding bed

13th

People entrance and exit

14th

lock

20th

Nutrient solution supply unit

21

Storage container

22nd

Nutrient solution pump

23

Nutrient solution supply tube

30th

Lighting unit

31

photoelectric module

311

first photoelectric element

312

second photoelectric element

313

third photoelectric element

40

Air control unit

41

Water curtain

42

Water supply facility

43

Bladder module

431

Oxygen bubble generator

432

Carbon dioxide bubble generator

433

Ozone bubble generator

50

Audio adjustment unit

51

speaker

52

Audio player

60

Control unit

70

Useful plant

Claims (22)

Vertical crop cultivation system comprising a building (10), a nutrient solution supply unit (20), a lighting unit (30), an air control unit (40), an audio adjustment unit (50) and a control unit (60), wherein the building (10) surrounds a breeding room, at least one shelf (11) being arranged in the breeding room, a plurality of breeding beds (12) arranged one above the other being fastened to the shelf (11); the nutrient solution supply unit (20) contains at least one storage container (21) in the subsurface, the storage container (21) being connected to the breeding beds (12) by a nutrient solution pump (22) and a nutrient solution supply pipe (23); the lighting unit (30) on each of the breeding beds (12) contains a photoelectric module (31) for generating a predetermined light after the energization; the air control unit (40) at least one water curtain (41) which is connected to the cultivation room of the building (10), a water supply device (42) which is connected to the water curtain (41), and a bubble module (43) which is in the Water supply device (42) is arranged, contains; the audio adjustment unit (50) includes at least one loudspeaker (51) communicable with the grow room of the building (10) and an audio player (52) electrically connected to the at least one loudspeaker (51); and the control unit (60) is at least electrically connected to the nutrient solution pump (22), the photoelectric modules (31), the bladder module (43) and the audio player (52) in order to control at least the nutrient solution pump (22), the photoelectric modules (31), control the bubble module (43) and audio player (52). Vertical crop cultivation system according to Claim 1 , characterized in that the bubble module (43) contains at least one oxygen bubble generator (431). Vertical crop cultivation system according to Claim 1 , characterized in that the bubble module (43) includes at least one carbon dioxide bubble generator (432). Vertical crop cultivation system according to Claim 1 , characterized in that the bubble module (43) contains at least one ozone bubble generator (433). Vertical crop cultivation system according to Claim 1 , characterized in that the bubble module (43) contains at least one oxygen bubble generator (431) and one carbon dioxide bubble generator (432). Vertical crop cultivation system according to Claim 1 , characterized in that the bubble module (43) contains at least one carbon dioxide bubble generator (432) and at least one ozone bubble generator (433). Vertical crop cultivation system according to Claim 1 , characterized in that the bubble module (43) contains at least one oxygen bubble generator (431) and at least one ozone bubble generator (433). Vertical crop cultivation system according to Claim 1 , characterized in that the bubble module (43) contains at least one oxygen bubble generator (431), at least one carbon dioxide bubble generator (432) and at least one ozone bubble generator (433). Vertical crop cultivation system according to Claim 1 , characterized in that the air control unit (40) contains at least one oxygen bubble generator (431) which is connected to the water supply device (42). Vertical crop cultivation system according to Claim 1 , characterized in that the air control unit (40) at least one Includes carbon dioxide bubble generator (432) connected to the water supply device (42). Vertical crop cultivation system according to Claim 1 , characterized in that the air control unit (40) contains at least one ozone bubble generator (433) which is connected to the water supply device (42). Vertical crop cultivation system according to Claim 1 , characterized in that the air control unit (40) contains the bubble module (43) which is connected to the water supply device (42) and contains at least one oxygen bubble generator (431), at least one carbon dioxide bubble generator (432) and at least one ozone bubble generator (433). Vertical crop cultivation system according to Claim 1 , characterized in that the air control unit (40) includes at least one oxygen bubble generator (431) which is connected to the water supply device (42), and that each photoelectric module (31) of the lighting unit (30) has a plurality of first photoelectric elements (311) which generate an illuminating light after being energized, a plurality of second photoelectric elements (312) which generate a long-wave ultraviolet light (UVA) after being energized, and a plurality of third photoelectric elements (313) which generate a medium-wave ultraviolet light after being energized Generate light (UVB) includes. Vertical crop cultivation system according to Claim 1 , characterized in that the air control unit (40) includes at least one carbon dioxide bubble generator (432) connected to the water supply device (42), and that each photoelectric module (31) of the lighting unit (30) includes a plurality of first photoelectric elements (311) which generate an illuminating light after being energized, a plurality of second photoelectric elements (312) which generate a long-wave ultraviolet light (UVA) after being energized, and a plurality of third photoelectric elements (313) which generate a medium-wave ultraviolet light after being energized Generate light (UVB) includes. Vertical crop cultivation system according to Claim 1 , characterized in that the air control unit (40) includes at least one ozone bubble generator (433) which is connected to the water supply device (42), and that each photoelectric module (31) of the lighting unit (30) includes a plurality of first photoelectric elements (311) which generate an illuminating light after being energized, a plurality of second photoelectric elements (312) which generate a long-wave ultraviolet light (UVA) after being energized, and a plurality of third photoelectric elements (313) which generate a medium-wave ultraviolet light after being energized Generate light (UVB) includes. Vertical crop cultivation system according to Claim 1 , characterized in that the air control unit (40) contains a bubble module (43) which contains at least one oxygen bubble generator (431), at least one carbon dioxide bubble generator (432) and at least one ozone bubble generator (433), and that each photoelectric module (31) of the lighting unit (30) a plurality of first photoelectric elements (311) which generate an illuminating light after being energized, a plurality of second photoelectric elements (312) which generate long-wave ultraviolet light (UVA) after being energized, and a plurality of third photoelectric Elements (313) that generate medium-wave ultraviolet light (UVB) after being energized. Vertical crop cultivation system according to one of the Claims 1 until 7th , characterized in that the building (10) has at least one person entrance and exit (13) which is connected to the breeding room, with a lock (14) being provided at the person entrance and exit (13), which connects the person entrance and exit (13) - output (13) can close. Vertical crop cultivation system according to one of the Claims 1 until 7th , characterized in that the audio player (52) of the audio setting unit (50) is implemented in software in the hardware of the control unit (60). Vertical crop cultivation system according to one of the Claims 1 until 7th , characterized in that the building (10) has at least one person entrance and exit (13) which is connected to the breeding room, with a lock (14) being provided at the person entrance and exit (13), which connects the person entrance and exit (13) - Output (13) can close, and that the audio player (52) of the audio setting unit (50) is implemented in software in the hardware of the control unit (60). Vertical crop cultivation system according to Claim 1 , characterized in that the bubble module (43) generates micro-bubbles or nano-bubbles. Vertical crop cultivation system according to Claim 20 , characterized in that the diameter of the microbubbles or nanobubbles is in the range between 1 × 10 ^-6 m and 250 × 10 ^-9 m. Vertical crop cultivation system according to Claim 1 , characterized in that an organic fertilizer is added to the storage container (21).

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