CN206564919U - One kind is permeated to water flowerpot - Google Patents

Abstract

The utility model discloses a permeable water supply flower pot, which comprises a pot for cultivating soil and a water storage basin set outside the pot for cultivating soil; the inclination angle of the top 1/5 of the side wall of the water storage basin becomes larger to form a water collection slope, and the water collection slope and The gap between the outer walls of the soil-building basins is the water inlet, and the bottom 1/4 of the soil-building basins shrinks inwardly to form an inverted frustum-shaped water suction neck. Water seepage holes are provided on the outer walls of the water-suction necks, and at least two holes are arranged on the outer walls of the soil-building basins. The water guide groove is sunken into the earthen basin, and the water guide groove is provided with air holes; the side wall of the water storage basin is provided with an overflow pipe, and the bottom end of the overflow pipe penetrates into the water storage basin. The utility model adopts the way of infiltration water supply, which can maintain the long-term constant of soil moisture and aggregate structure, avoid disturbance of plants and soil by watering from above, reduce the difficulty of watering control, improve watering and fertilization efficiency, and avoid or reduce soil Nutrient loss and water and fertilizer outflow affect the environment and ensure a breathable environment for plant roots.

Description

A kind of osmotic water supply flowerpot

technical field

The utility model relates to a flowerpot, in particular to a permeable water supply flowerpot.

Background technique

The most widely used ordinary flower pot is usually made up of a flower pot and a pot mat. Water is poured from the top of the flower pot. There are one or more air holes at the bottom of the flower pot. The disadvantages of this type of flower pot are: 1. The water utilization rate is low; 2. Watering from the upper part of the flower pot will cause the substrate to be washed away for a long time, resulting in the loss of soil particles and nutrients, hardening of the substrate structure, and even blocking the vent holes at the bottom of the pot, which is not conducive to Plant roots grow; 3. For plants with low plant type and dense leaves, it is difficult to water from the top; 4. Commonly used pot mats are usually shallow, with small water holding capacity and limited overflow capacity; 5. Higher water is required Watering frequency and more accurate watering amount to maintain pot soil humidity.

Utility model content

The technical problem to be solved by the utility model is to provide a kind of infiltration water supply flowerpot, which can maintain the long-term constant of soil moisture and aggregate structure by adopting the method of infiltration water supply, avoid the disturbance of plants and soil by watering from above, and reduce the watering cost. Control difficulty, improve watering and fertilization efficiency, avoid or reduce soil nutrient loss and water and fertilizer outflow affecting the environment, and ensure a breathable environment for plant roots, especially suitable for large-scale management of flowers that require high water and soil conditions.

In order to achieve the above-mentioned purpose, the technical solution adopted by the utility model is: a kind of infiltration water supply flower pot, including the soil pot and the water storage basin set outside the soil pot; the top 1/5 inclination angle of the side wall of the water storage basin becomes A water collection slope is formed, and the gap between the water collection slope and the outer wall of the pot is used as the water outlet. The bottom 1/4 of the pot is shrunk inward to form an inverted frustum-shaped water suction neck, and water seepage holes are opened on the outer wall of the water suction neck. , the outer wall of the soil-building basin is provided with at least two water guide grooves sunken into the soil-building basin, and air holes are arranged in the water guiding grooves; an overflow pipe is arranged on the side wall of the water storage basin, and the bottom end of the overflow pipe passes through into the storage basin.

Further, the water guide groove is arranged longitudinally along the outer wall of the soil cultivation basin.

Further, the water guide groove is arranged in a spiral shape along the outer wall of the soil cultivation basin.

Further, the water guide groove is arranged in a curved line along the outer wall of the soil cultivation basin.

Further, a basin edge is provided on the outer edge of the water collection slope, and a hanging hole is opened on the basin edge.

The beneficial effects of adopting the above technical solution are: the utility model adopts the way of osmotic water supply, which can maintain the long-term constant of soil moisture and aggregate structure, avoid disturbance of plants and soil by watering from above, and reduce the difficulty of watering control. Improve the efficiency of watering and fertilization, avoid or reduce the loss of soil nutrients and the impact of water and fertilizer outflow on the environment, ensure that the plant roots are in a breathable environment, which is conducive to the growth of plants. Waterlogging, for non-fine management such as open air and hanging pots, can effectively reduce the frequency of watering and the accuracy of water control, and promote the healthy growth of plants. It is especially suitable for large-scale management of flowers that have high requirements on water and soil conditions, and is conducive to promoting the industrialization of "difficult to grow" flowers.

Description of drawings

Below in conjunction with accompanying drawing and specific embodiment, the utility model is described in further detail.

Fig. 1 is a half sectional view of the first specific embodiment of the utility model.

Fig. 2 is a half sectional view of the second specific embodiment of the present invention.

Fig. 3 is a half-sectional view of a third embodiment of the utility model.

In the figure: 1. Cultivation basin 2. Water storage basin 3. Water collection slope 4. Water absorption neck 5. Water seepage hole 6. Water guide groove 7. Ventilation hole 8. Overflow pipe 9. Basin edge 10. Hanging hole.

detailed description

Referring to accompanying drawing 1-3 at the same time, in the structure of a specific embodiment of the present utility model, comprise earth-building basin 1 and the water storage basin 2 that is enclosed within earth-building basin 1 outside; A water collection slope 3 is formed, and the gap between the water collection slope 3 and the outer wall of the earth-building basin 1 is the water outlet, and the bottom 1/4 of the earth-building basin 1 shrinks inwardly to form an inverted frustum-shaped water absorption neck 4, and the water absorption neck 4 Water seepage holes 5 are provided on the outer wall of the earth-building basin 1, and at least two water guide grooves 6 sunk in the earth-building basin 1 are provided on the outer wall of the earth-building basin 1, and air holes 7 are provided in the water-guiding groove 6; the side of the water storage basin 2 The wall is provided with an overflow pipe 8, and the bottom of the overflow pipe 8 penetrates into the water storage basin 2. The outer edge of the water collection slope 3 is provided with a basin edge 9, and a hanging hole 10 is provided on the basin edge 9. The inclination angles of the contacting parts of the earth-building basin 1 and the water storage basin 2 after nesting are the same.

Referring to the first specific embodiment shown in FIG. 1 , the water guiding groove 6 is longitudinally arranged along the outer wall of the soil cultivation basin 1 . The water guide groove 6 is linear, which can quickly guide water from the water collection slope 3 to the bottom of the water storage basin 2. When the water flows down from the water guide groove 6, there is less water seepage from the air hole 7, and the water mainly comes from the water seepage hole 5 of the soil basin 1. Infiltrating into the matrix or soil in the soil pot 1, this embodiment is suitable for flowerpots with smaller sizes.

Referring to the second specific embodiment shown in the accompanying drawing 2, the water guide groove 6 is arranged in a spiral shape along the outer wall of the soil cultivation basin 1 . The water guide groove 6 is spiral, and the water conduction speed is relatively slow. Moisture can not only penetrate into the earth-building basin 1 from the water seepage hole 5, but also have more water to penetrate into the earth-building basin 1 from the air hole 7, which is suitable for larger sizes. flower pots.

Referring to the third specific embodiment shown in the accompanying drawing 3, the water guiding groove 6 is arranged in a curve along the outer wall of the soil cultivation basin 1 . The water guide groove 6 is in the shape of a curve, and the water guide speed is relatively slow. Moisture can not only penetrate into the earth-building basin 1 from the water seepage hole 5, but also have more water to penetrate into the earth-building basin 1 from the air hole 7, which is suitable for larger sizes. flower pots.

The working principle of the present utility model is: fill soil and plant plants in the earth-building basin 1, the water storage basin 2 is covered with the outside of the earth-building basin 1, water is poured on the water collection slope 3 of the water storage basin 2, the water collection slope 3 Water flows into the water guide groove 6 from the watering port, and the water guide groove 6 imports water into the bottom of the water storage basin 2 for storage, and the water stored at the bottom of the water storage basin 2 can penetrate into the soil cultivation basin 1 from the water seepage hole 5 to provide moisture for plants.

The overflow pipe 8 can not only overflow excess water, but also can play the role of a liquid level gauge, which is convenient for observing the water quantity in the water storage basin 2 . In addition, when the water storage basin 2 stores water for too long, the water is prone to lack of oxygen, and the overflow pipe 8 can be connected with an external oxygen pump to supply oxygen to the water storage basin 2 .

Cultivation basin 1 adopts the bottle-neck type basin bottom 4 that shrinks inwards, vacates more water storage space for water storage basin 2.

The hanging hole 10 on the edge 9 of the water storage basin 2 is convenient to suspend the water storage basin 2 together with the earthen basin 1 to expand the planting area.

The water-absorbing neck 4 is in the shape of an inverted truncated cone, which is convenient for nesting the pots 1 for storage and transportation.

The above description is only proposed as an implementable technical solution of the utility model, not as a single restriction on the technical solution itself.

Claims (5)

1. A kind of infiltration water supply flowerpot, it is characterized in that: comprise soil-building basin and the water storage basin that is enclosed within the soil-building basin outside; The top 1/5 inclination angle of described water storage basin side wall becomes big and forms water-collecting slope, water-collecting slope The gap between the earth-building basin and the outer wall of the earth-building basin is the water inlet, and the bottom 1/4 of the earth-building basin shrinks inwardly to form an inverted frustum-shaped water suction neck. Water seepage holes are opened on the outer wall of the water-absorbing neck, and at least Two water guide grooves sunken into the earthen basin, and air holes are arranged in the water guide grooves; An overflow pipe is arranged on the side wall of the water storage basin, and the bottom end of the overflow pipe penetrates into the water storage basin. 2. The permeable water-feeding flower pot according to claim 1, characterized in that: the water guide groove is longitudinally arranged along the outer wall of the earth-building pot. 3. The osmotic water supply flowerpot according to claim 1, characterized in that: the water guide groove is arranged in a spiral shape along the outer wall of the earthen pot. 4. The osmotic water supply flower pot according to claim 1, characterized in that: the water guide groove is arranged in a curve along the outer wall of the soil pot. 5. The osmotic water-feeding flower pot according to any one of claims 1-4, characterized in that: the outer edge of the water collection slope is provided with a pot edge, and a hanging hole is opened on the pot edge.