KR20200142445A - Plates and layers forming a soil-free cultivation container - Google Patents

Abstract

The present invention relates to a soil-free culture vessel formed by a plate/layer.

Description

Plates and layers forming a soil-free cultivation container

Very narrow and versatile vegetable container for growing soil-free plants.

Various soil-free cultivation containers are known, including containers that allow plants to grow in slits, and the roots of the containers are supplied with a nutrient solution. However, state-of-the-art technologies and markets so far have shown a bias as to whether a series of individual plates can form the necessary root spaces (cavities) between each other, which means automatic configuration during machine or assembly. Moreover, no automated processes or devices are known, and this allows for faster loading through belts that can unload containers of planting material in combination with plates for loading. Moreover, no processes or machines are known in which containers can be printed in an automated or computer controlled manner with growing plant signs, patterns, etc. The present invention provides advantages through simpler and more uniform usability. It is also the first soilless "printable" light wall with markings/patterns.

Vessels may consist of individual plates or plates or discs (removable). These plates basically form a shape that can be stacked directly on top of each other, so they are as unshakable as possible and, if possible, a general general shape (but the latter are very diverse geometrically). The plate can have any color imaginable, and can be made of a material that is relatively waterproof and relatively stable and chemically relatively non-reactive with respect to the environment (the latter is oxygen, water, nutrients, nutrients, etc.).

Basically, the plates have a fairly flat shape, allowing planting between several plates to be planted densely and close to each other. In total, the plates can take on a variety of shapes (full plate stack). The individual plates themselves can also be shaped from the horizontal (curling, jagged, etc.) side as long as they can be stacked relatively densely. Changes in the shape of the entire plate can occur because the plate width and length may differ slightly from the next plate. The plate height should be relatively thin and uniform. In addition, all plates have a concave inside (can be seen from above). It is arranged in a series of plates (in a way interrupted by a thin gap between the shells) as well as an entire body with an outer shell when placing the plates on top of each other in the intended manner from a series of plates. Plate = slit), but flue cavities occur, resulting in flues that can be filled with the root mass of other plants, nutrient solution, air and, above all, nutrient solution dispensing device. Similarly, the substrate may be located between the roots, which may allow useful settlement of bacterial cultures and possible root support. The formed cavity is completed from above by the final plate of environmental influence (without this recess), and the nutrient solution supply line can be integrated into this termination plate, so that the nutrient solution can be supplied from outside or from inside. The drip or spray pipe can be guided through the cavity. The power/cause of the nutrient solution (pump, stiffener, fogger, etc.) can be internal or external. The cavity is closed from below by the collection plate, and it is possible to collect unnecessary internal drip nutrient solution by the collection plate (the size of the recess is not large in the size of the recess as in other cavities). There you can attach an external drain (e.g. floor, rear, ...) or a means/system (the latter is a fog, pump + line) to cause recirculation in the cavity. Of course, an energy supply corresponding to the connected device (pump, ...) (external/internal) is also provided. The plate is stable and relatively deterministic against liquid splashing in any way as described. The stability of the connection can be maintained or ensured together, for example by means of a (thread) rod that has passed through all the plates (or all the plates are attached along a relatively precise additional recess). In this case, you can temporarily secure the plate stack by tightening the threaded nuts exactly above and below the plate stack. Similarly, instead of using a rod guided by an additional recess, a bracket that is sufficiently fixed to the plate stack can be created (e.g. depending on the type of screw force).

Or via a collapsible gripper that snaps into the recess of the stack)-the covering of the respective growth surface (= cracks between the plates), particularly preferably not the main growth side. Fixing of the stack itself can be done by including the top plate on the top and/or the collection plate on the bottom. Or, on the other hand, without this itself, first the two fixed covers and the plate exactly between the collection and finally fixed with these. It may be possible to fix it in the cavity itself. However, the cavity can be opened evenly backwards if necessary, so that it is closed again, for example by attaching the container to the waterproof façade. For example, in addition to the brackets for a pre-fixed stack, a subsequent nutrient supply can be attached to this front, which will later be in the cavity. Likewise, the deck and collection plate may already be attached at a suitable distance. Suspension devices as well as recesses to which such fixtures can reach can be attached to the stack or to individual plates outside. You can hang the entire stack on a nail in the wall. The opening to the rear can also be designed in the shape of an "8" in half by two curves, so that two cavities on the front that do not communicate with each other or little communicate with each other can be formed in a stack. Likewise, with or without an open bag, any shape [] can be imagined from the outside as long as one or more closed cavities are formed from the plate stack. Basically, before different plates are placed on another plate or stack, it is placed on the top edge of the planting material of the previous plate to ensure maximum clamping without damage between these plates and all subsequent plates placed. On top of that, plant material can be understood as germinated, stem, non-germinated seeds, seedlings, cuts or plants with developed leaf area. Beans, seedlings, and developed plants should be positioned as they grow so that the roots eventually lie inward and other roots grow outward. It can be an appropriate recess or notch on the top and bottom of the plate to stabilize the plant material and provide protective support or orientation to the inside and/or outside of the stack, or to direct the spray fluid downwards and downwards inside and outside the spray and utilize adhesion. have. Likewise, the plate or stack is fixed or fixed and transported to the machine. When the stack is created in an elongated form, an execution form is inserted between the plates, each having an elastic strip (below the planting material or both above and below as well as the planting material, offset). On the one hand, these strips are designed to weaken the tight clamping and better seal the gap between each planting material (in the slot between the two plates). In particular, these strips can be placed/attached in succession from the first slot between the first plates placed on each other to all subsequent spaces (slots) between the plates placed above them, where the strip is-clamped between Whenever the top of the plate and the bottom of the attached plate-the other end of the strip is on the standing side edge, the opposite "top of the plate lying on the plate", by placing the other plate on the previous plate and the back-clocked stripe part. The strip can be curled or folded prior to insertion so that it can continue up to the last plate and must be long enough (by reverse buckling) as the number of plates to overcome the plate height. It must be held relatively accurately between the two plates before being clamped to prevent slipping. It fits into the "skewer" and fits into the possible recesses of the adjacent plate. These bumps and recesses allocated to each other can also support general fixation of the stack itself. Similarly, aids for stabilization and orientation can be used when the planting material is placed on the plate. The inserted and secured strips should, above all, cover the entire surface of the top of each plate under it evenly in each layer/position. However, the surface of the strip coming over the inner recess of the plate may be different. On the one hand, the strip can span both the edge and the inside of the plate. It must be a water-permeable, porous tape material, especially for good penetration by root growth. In addition, the recesses of each plate in the strip can be omitted so as not to prevent root growth and flow of the nutrient solution. This can be done prefabricated or, for example, by drilling holes when fitting. In addition, simple or various incisions can be installed or prefabricated on the overstretched recessed surface instead of a full machine such as a magazine, but when selecting tapes and plates, you should be able to choose from a variety of controllable placement alternatives depending on the file. Thus, for example, the final machine can combine data sets and control processes in the assembly machine so that the end customer can assemble the text or image samples individually. G. Customers and order records are commissioned online if necessary via a web shop interface so that they can receive them, such as delivery, by combining assembled tapes that can be used for finally planted plate stacks/containers or their own containers in production. You can also reserve and organize your ad space this way. Customers or professional operators can design facades containing plant advertisements (covers, patterns). But overall, all simpler variations are possible. G. A simple disordered scattering of planting material on a plate or fixing on a band. Usually the plates are stacked flat on each other, so the grooves are mostly on the largest surface of the plate. A series of mounting plates arranged on the sides such that the slots move from top to bottom can also be considered. However, the horizontal cover and collection plate still make sense.

-Can be loose, flat plates are stacked, not shaken and relatively close

-Combined to form one whole

-Relatively stable, chemically relatively stable

-Different (outer) shapes as a stack

-Jagged and wrinkled plate

-Inner groove of the plate

--> Cavity capable substrate

-Cover plate (deck + catch / ...)

contour

transform

-

-

-

-A stable (loose possible) connection would

-Threaded rod

-By additional groove (custom)

-The ends are fixed (the plate does not slip)

-Nut, pin, wiring

-

-Clutch, screw clamp, snap perch-sewing?

-Knot / Card

-Rubber band-adhesive (protrusion / groove + spring)-(self) weight

-Insert and fix between wall plates

-Fix with cover plate / collection plate

-""/" without + later inserted between them + fixed

-Fixed in the cavity of the stack itself

-Cavity open to the rear, closed to the front

-Example: also 2 semicircles or more, half and half up from the bottom to form a ""8"

-Several cavities

-Already supplying elements in the front

-Hyeonsu

-Various recesses/ Back of grooves/ Nails/ Hooks/ Wall handles

-Top / outer rear container / loop

Multiple cavities are common if necessary

Planting material between all slats/slots

-Correct orientation/position - (Inside the root, the rest outside)

-First development / germination

-Plant notch

-"" (Spray) water (internal/external)

-For transportation and handling of machinery

Rubber?

Ring C

Technology

title:

Soil-free plant culture vessel formation plate

Field of invention:

Very narrow and very versatile edible container for growing soil-free plants.

Cutting edge:

Various soil-free growing containers are known, including containers that allow plants to grow in slits, and the roots of the containers are supplied with a nutrient solution. However, state-of-the-art technologies and markets so far have shown a bias as to whether a series of individual plates can form the necessary root spaces (cavities) between each other, which means automatic configuration during machine or assembly. Moreover, no automated processes or devices are known, and this allows for faster loading through a belt that can unload containers with planting material in combination with the plate for loading. Moreover, no processes or machines are known in which containers can be printed in an automated or computer controlled manner with growing plant signs, patterns, etc. The present invention provides advantages through simpler and more uniform usability. It is also the first "printable" light wall to have markings/patterns free of soil.

Main part:

Vessels may consist of individual plates or plates or discs (removable). These plates basically form shapes that can be stacked directly on top of each other, so they do not sway, do not slip, and if possible make a general general shape as a whole (but the latter can be geometrically very diverse). The plate can have any color imaginable, and can be made of a material that is relatively waterproof and relatively stable and chemically relatively non-reactive with respect to the environment (the latter is oxygen, water, nutrients, nutrients, etc.).

Basically, the plates have a rather flat shape in order to be fairly dense and close to each other between a few plates for planting between the plates. In total, the plates can take on a variety of shapes (full plate stack). Individual plate

Printing wet dry paper

Separately

+ Rigid press

+functional foam

They themselves can be stacked relatively densely and can also be shaped from the horizontal (curling, jagged, etc.) side as long as they swing or are fixed as much as possible. The change in shape of the entire plate can occur because the plate width and length may differ slightly from the next plate (-dense). The plate height should be relatively thin and uniform. In addition, all plates have a concave inside (can be seen from above). This not only creates a whole body with an outer shell (interrupted by a thin gap between the plates) when the plates are placed on top of each other in the intended way because they are placed too much for a series of plates? = slit). Rather, it arises from the sum of the grooves inside the plate, and a constant cavity allows the placement of the substrate between the roots, similar to the communication holes that can be filled with the root mass of various plants, nutrient solution, air and nutrient solution distribution devices if necessary. Which can improve useful bacterial culture and possibly support roots. The formed cavity is completed in the stomach by the final plate (without this common recess) of environmental influence (/ evaporation), and the nutrient solution supply line can be integrated into this end plate so that the nutrient solution can be supplied from the outside or inside (from above coming). The drip or spray pipe can be guided through the cavity. The cause of the power/movement of the dispersed nutrient solution (pump, stiffener, fogger, etc.) can be internal or external, e.g. base plate + no base container. The cavity is closed from below by the collection plate, and can collect unnecessary internal drip nutrient solution by the collection plate (not a (large) down continuous recess in the size of the recess as in other cavities). Drainage to the outside (e.g. floor, rear, system or means of recirculation upwards into the cavity / means of entry into the system / system (the latter is fog, pump + line)) corresponding waterproof power supply (attached device (pump,. External or internal for ..) is also provided.

The stability of the connection can be maintained or ensured together, for example by means of threaded rods that have passed through all the plates (or all the plates are attached along a relatively precise additional recess). In this case, the threaded nut that temporarily holds the plate stack can be screwed accurately to the top and bottom of the plate stack of the threaded rod thread nut. Likewise, instead of using a rod guided by an additional recess, a clamp sufficiently fixed from the outside can be created for the plate stack (rubber band-adhesive (protrusion / groove + spring)-(self) weight) (e.g. : According to the type of screw force

Rubber band - +

How to add -glue .- Acne / Nut + Feather + (Self) Weight

Or via a collapsible gripper that snaps into the recess of the stack)-the covering of the respective growth surface (= cracks between the plates), particularly preferably not the main growth side. The fixation of the stack itself includes the top plate on the top and/or the collection plate on the bottom, or on the other hand in the first unfixed state of itself, otherwise these two fixed covers and the collection plate and finally these Is fixed. Similarly, the fixation of the plate stack may also be possible in the cavity itself. On the other hand, the cavity can be opened (evenly) rearward if necessary, so that it can be closed again by attaching the opening of the plate, for example by fixing the container on the waterproof facade. Stack it on this front. For example, a subsequent supply of nutrient solution can be attached to this facade in addition to possible brackets for a pre-fixed stack of plates, which will later be in the cavity. Likewise, optionally, the deck and collection plate can already be attached at a suitable distance directly without the remaining plate. (The grooves that the suspension and fixture can reach can be attached to the stack or to individual plates on the outside. For example, the entire stack of nail “handles” can be hung on the wall.) The opening to the rear is two rounds. It can take the form of an "8" cut in half, and can be done in half from top to bottom, resulting in two cavities in the facade with a stack that does not communicate with each other or communicates little. Can be formed. Likewise, with or without an open bag, any shape [] can be imagined from the outside as long as one or more closed cavities are formed from the inner plate stack. Basically, before different plates are placed on another plate or stack, it is placed on the top edge of the planting material of the previous plate to ensure maximum clamping without damage between these plates and all subsequent plates placed. thereon. Plant material can be understood as a non-germinated seed, seedling, cut or plant with developed germination, stem, and leaf area. Beans, seedlings, and developed plants must be positioned as they grow so that the roots can finally enter inward and grow outward elsewhere. It can be attached to a suitable recess or notch at the top or bottom to stabilize the plant material and provide protective support or orientation to the inside and/or outside of the stack, or in each case to direct the spray fluid from inside and/or outside. . Attached to the inner side of the plate to utilize the adhesive force. Similarly, notches/recesses can be attached to grip or secure plates or stacks and transport them to a machine (eg + for handling). In an extended form,

Seed ribbon Fabric + seedling Paper + thread Cut strip per layer

Stack joint Rotten + root + Tense

Plates are knotted together

Mountain horse

When the stack is created, a running foam is inserted between the plates, each with elastic strips (below or under the planting material and above or both or both or under the planting material may have cultivation material). On the one hand, this strip is intended to weaken the tight clamping of the planting material, and to better seal the gap between each planting material (in the slot between the two plates). In particular, this strip can be placed/attached continuously from the first slot between the first plates placed on each other to all subsequent spaces (slots) between the plates placed on it, where the strip is clamped when clamped. Each time the top of the plate and the bottom of the attached plate-from the side edge where the other end of the strip is prominent, the strip is placed on top of the top of the plate on which the strip is laid in the opposite direction. You can continue to the last plate by placing additional plates on the previous plate and on the bent strip part. The strip can be wound or folded before insertion, and also the number of plates and must be long enough (so that the plate height can be overcome by the rear buckle ring). Before being fixed relatively accurately between the two plates, the strip must first be temporarily fixed so that it does not slip. By auxiliary means such as protruding bumps on the lower plate, the strip can be "shocked"/+ holes and fitted into possible recesses in the plate.

These bumps and recesses allocated to each other can also support general fixation of the stack itself. Similarly, stabilizing and orientation aids can be used when planting material is placed on a plate (baking, gripper, sheet, etc.). The inserted and secured strips should evenly cover the entire surface of the top of each plate below it in each layer/position above it.

However, the surface of the strip coming over the inner recess of the plate may be different. On the one hand, the strip can span both the edge of the plate and inside the recess. This must be a water-permeable, porous tape material, especially if necessary, to allow good penetration by root growth at the edges. By burning or coating. In addition, the concave portion of each plate can be omitted from the strip so as not to prevent the root growth and flow of the nutrient solution in the cavity. This can be done prefabricated or by punching for example by clamping/holding when mounted. Moreover, instead of completely removing the inner part of the strip,

Unstable: Plate +strip Own weight, hook +

In a small hole The band is stuck

Loop / On the pan

frame

+box

In growth

Simple or various incisions can be installed or prefabricated on the overstretched recess surface. This can lead to increased colonies with the desired bacteria and improved temperature stability and specific moisture retention. Also, mixed forms of these variations of the strip, that is, combinations?!.

This can be provided. Additional extended versions (+ other) already provide permanent / pre-tape, with certain planting material already permanently mounted at regular intervals as described above.

This can be done by sewing the seeds (e.g., between two layers of tape; the seams around the seeds), attaching a common seed band to a pressure absorbing band, or in parallel with a good seedling/plant. Plant material or other fastening devices (fixed foam, ...). If necessary, the tape can already be stocked with seed belts well known to the customer. In addition to biological factors (final adult plant, size of horticultural material + later, growth), in order to be accurate + sufficient, it is necessary to take into account the shape of the plate (stack) and the height of the plate in relation to the tape. Stages, germination, color, plant needs, ...-individual topics).

Placing a tape or bare plate on the site/stock can be aimed at subsequent patterns or symbols or revenge so that it is already recognized by the plant's growth and color. When choosing the + arrangement of the assembly, you must already take into account all relevant biological parameters. The other extended version relates on the one hand to a machine that provides a suitable set of plates and is able to mount them, which plates are supplied individually for assembly with the described stockpile or -> sections of mounting tape or simultaneously with planting material. In the case of assembly, this is repeated with all plates of the set and associated assemblies (plant material, tape with or without tape, tape with or without tape) until the desired set is completed.

Specifically, this may be that the plate set is filled in the fitting shaft (detail) of the corresponding machine so that the feed screw rotates further down into the plate set. For example: the plates can be distributed evenly by turning the conveying or conveying screws so that the plates are evenly spaced apart from each other (the screw is completely protruded by the process between two screws or gears or flaps or grippers). Down, if fixed with a short notice or if already fixed in a stable way (eg by printing the plate (semi-automatically or semi-automatically) with the corresponding threaded rod (alternatively "glue")) planting / seeds before printing another plate Plant a belt/band (among others), if necessary, bend the tape to the back.

When using tape, a coil carrier (holder) (or movable pin) that can be moved by rollers or coils can move back and forth and is a (movable) tape magazine in which the collapsible tape is located, similar to rolling on the output plate with the planting material. (Or a movable pin) could be used.

When both move back and forth on the newly issued plate (linear back and forth)

---- Return →

Well-known pre-equipped: yes newly sewn/etc.

Technical overhang + retension that sticks to the side while moving away

+ Sewing + Seeding fixture

+ Stack fastener cart. The bag strip is closed.

Part.. threaded rod drive/ ... Or at the end. Automatic Manual

Stabilization sheet/etc.

It can be done (in detail) alternating with the plate output and will probably be parallel to the plant layout. If the belt is quickly assembled and sewn (not upstream) or plant material is attached, it is necessary to place the tape in front of the back and forth above each plate (bent forward), but the coil or tape magazine tape is placed before the tape assembly process (e.g. sewing machine) On the other hand, putting the tape on the plate puts it on the plate. However, the tapes (magazines/rolls) (??) must be made to prevent new plates from being printed on the stack. G. If necessary, by a rod that pushes the tape farther than the output path. Similarly, the rod triggers a buckling process. If the tape has not yet been assembled, the planting can be applied to the plate (or if available for the tape on the plate), or planting or combination can be used instead at specified intervals. For this, ordinary seeding and/or assembly machines or automatic machines can be used. In addition, grippers or support jaws or supports can be used to keep the planting and/or bands stable in place for a short while until they are secured.

In the case of pre-fabricated tapes, the planting material assembly material combined with the belt is performed separately and permanently fixed ((on) sewing (2 layers full | 1 layer, over sewing), (on/on)) planting material applied. After adhesion to the belt (not waterproof, but without harmful leaks, etc.) and rolling or folding and folding and loading, if necessary, are carried out. Punching of cuts or recesses on the plate/recess surface of the belt can be carried out during the pre-fabrication phase of the belt or on a directly mounted plate mounted on the machine.

In each case, the steps of the machine are precisely matched and calibrated to correctly position the belt, planting material + plate. The operation can be designed to be completely mechanical and fully automated. Full plate assembly process Belt assembly can be mixed manually, fully automatic or without machine. Machine processes can be fully controlled manually based on processes such as punch processes, BUS control processes or computer-assisted processes. The latter can be determined by presetting, pre-programming or by a short notice by the input device. The composition of the plate stack includes: Each batch is e. G. On machines with elements that have a stable fixation (but can be loosened), fasten (with a thread) or with a short notice (e.g. no deck and collection plate), then bring it to a stable fixation final state. (E.g. a means to stably hold the stack between the stacks by inserting the stack between the fixing deck and the snap plate (screw or wire), including additional fixing devices).

For example, one or more fixing rods can also be guided by mounting additional recesses at the end of the machine,

+ Print + More Continue + Other dragon

-Transformation (ex. EP2015) +. Back panel foil

These tops and bottoms can be secured against the ends of the stack (which may include decks and collection plates) (e.g. threads and nuts or other means (e.g. pins through holes in the ends of the bars)). For this purpose, a recess can be provided at the end of the plate stack in each plate (for example, in the upper part of the upper plate and / and in the lower part of the collection plate) so that the fixing agent (nuts, pins (deformed)). Wiring, etc.) may be damaged. During stack assembly, all possible (nutrient solution) feedable elements (drip hose, etc.) and all recirculating inner elements and all inner (nutritional solution) must be functionally installed in the vessel due to the plate (functionally installed / connected external connection ). These parts are already part of the cover plate or collection plate, or are functionally attached to these or other parts of the container (usually inside) during assembly.

Finally, the possible energy and data supply must be functionally and operationally linked (energy, liquid, aerosol, etc.).

Containers are also transported to the work site and, if necessary, connected to fixtures (e.g. recirculation or other nutrient solution systems and possibly distributed collection systems (if they do not operate autonomously or are connected to electricity).

For example, it can be reliably installed on the facade or freely suspended and connected as a planting tower in a greenhouse (series / single).

There may be several operating steps depending on the composition of the stack for the container. Storage (drying (separation / mounting and distribution), inactive), assembly before and after germination

It can be transported for harvesting and/or reassembly or maintenance, as well as at the final stage of growth and operation under appropriate biologically necessary conditions.

Expanded embodiments and modes of operation of the present invention are arranged after being defined continuously in successive sections (in successive stages) on planted spaces (slots) between plate plant materials with specific color properties, and then fully developed ( Stage) The desired growth and operation planned patterns and markings can be distinguished by different colors of later growing plants. This could be the presence or absence of a different leaf color (or hue) or the color of the overall plant/color effect, as well as perhaps a different but clearly recognizable flower color or its dominant color ratio. Any section for which a color attribute is provided to a plant or flower (or a certain number) can be defined as "pixels".

This "plant pixel" is defined as a specific width in the separation slot between the two plates of the container, if defined at the same time

More precisely

"Background" + "Pattern" / "Type" + location there

-> Total Pixel System result

It is defined as "pixel height". For example, "Pixel Height" can be set to consist of half the height of the plate above the slot and the height of the slot itself and half the height of the lower plate. However, you can also define the pixels a bit lower or higher, for example, because vegetation can hang or crave light. The predicted growth characteristics of the determined flora give you a choice of possible pixel sizes (e.g. minimum) (height and width). This results in the derived plate height (thickness) (maximum expansion (since there is more coercion than expansion) + small plate height + desired slot height) + a few identical pixels is better). Slot height (plants can be forced to expand, but not significantly) (depending on the plant material diameter of the slot and additional inserts such as bands or spacers) desired pattern or character (or group/sequence of characters/patterns) ( The number of pixels required for the total or per pattern/character line) results in at least the number of plates and spaces that must overlap on top of each other (slots)) + spaces + spaces (or area to fill + desired character size). Characters and patterns with a fixed group of pixels can be defined and summarized according to their pixel size (and possibly pixel color). These groups of pixels can be assigned to specific defined plant varieties with corresponding color and biological characteristics depending on the color specification and pixel size. This comes from different allocations. "Ink" is the same as a pixel in a printer, printer driver, or printing program. This mapping can be done at the pixel level or at the pixel group level (characters, patterns (characters/patterns summarized on the surface side, these + combos on the background, most of them all)). ...) (smooth surfaces only) side pixels only). Groups should be grouped together in terms of pixel size and color at similar pixel fill growth properties, development time and hue (flowers, leaves) if necessary.

This can be saved to a datasheet + sample template for manual assembly, to do things like press a button, voluntarily select a computer, etc., or save to a file accessible to machine operations during the assembly process. In a computer-aided procedure, a word processing surface or image processing or drawing software interface can be combined with software that affects the batch process and controls the machine (detail chain).

For example, end-customers can use keyboard input (select text color/shape via menu, ... all in plain text processing/image editing interface, converting all pixels + dimensions + job types to printer driver commands). Configure the assembly to easily load (print pixel output). With or without an easy-to-use interface (word processing, drawing program, etc.), we can provide software to generate data sets if necessary or directly issue control commands based on plant pixel files. Use in the assembly process. Machine dimensions (more details (pixels, full frame, shaft (+ orthosis + support)) must be set/provided in advance and stored as selectable in the software, similarly available machine compatible factory assemblies must be stored in the software batch Selection including process This is done, for example, in the form of an alternatively selectable plant pixel file The machine should be able to choose from a variety of controllable batch alternatives depending on the file, as well as suitable equipment such as a magazine (plate Directly from the pre-production assembly of the stack).So, for example, the data set and control process on the assembly machine, so that the end customer (or the machine operator himself (inserted later)) can assemble, for example, character or image patterns individually Customers and order records must be commissioned online via the web shop interface to combine the assembled tapes that can be used in the plate stack/container or their own container in production via shipping (also standardized pre-loaded). Production -> mentioned later).

You can also reserve and organize your ad space in this way. Customers or professional operators can design facades equipped with plant advertisements (covers, patterns) (e.g. via a software interface).

However, overall, a simpler variant can also be considered. Simple scattering of planting material in a plate or fastening in a band (before / during). Usually, the plates are stacked flush with each other so that the grooves are located on the largest surface of the plate (usually most of the surface).

You can also create a series of mounting plates placed on the sides with the slots from top to bottom (usually with tape) (or at an angle between 45 degrees). However, the horizontal cover and collection plate still make sense.

Wick strip if necessary

+ Inner cylinder

Between assembly

-Insert "later" End Customer -> Internet Shopping Mall
-surface
In the browser -> this
Customer record
+ Contract
+ Possible
Advertising space -> subsection
Text/image-
Processing software in the customer interface
Webshop + text/image -> combine *
data set"
(Customer data
Order + Contract + Invoice + Advertising Space

-> text /

Image Record -> Machine /

Assembly box + auxiliary material control (preparation)

(Maybe combined with several) -> equipment

Per pixel

+ Distance

-> ... S

-Maximum width in pixels

-Height per plant unit /

(Because it is thin

danger)

-Slit -> Pixel-

-Minimum Height / Average / Accurate

/ Per plant diameter

(Placed)

-Text/pattern dimensions (e.g. line min width/line)

It can be one or more plant pixels if necessary.

-But leafy green or other

If the color of the flower is dominant

Datasheets, tables, stencils, files

In the pattern "/"

The minimum number of pixels per character dash/dimension is

May be displayed as recommended or default to subtly tint,

(E.g. small individual flowers per plant) is a different flower, flower color or leaf color, or plants without flowers

It is more extensive than pixels.

The same applies to various leaf colors.

1 container (soil free culture)
2 plate (with recess/groove)
3 passages/holes in the plate (2)
4 top plate (2)
5 bottom plate (2)
6 top plate (cover) on the container (1)
7 Closed collection/dispensing plate of container (1)
Hollow space in container (1) formed of 8 plates (2)
9 Plant part material with mulch (root vegetables)
10 Plant material in all varieties, if required entirely
11 (10) rootless related plant parts
12 container (1) slot between plates (2)
13 All kinds of nutrition supply system / nutrition distribution system
14 plant shoots from 10
15 bands, relatively elastic, slight pressure absorption, water permeability
16 inner surface of tape (15) = not side margin
17 plant pixels
18 plate height
19 plate length
20 Plate slot height between plates (2) of container (1)
21 containers (1) assembly machine
22 Raise/Increase ("""" to collect tape 15)
23 deepening (corresponding to (22))
24 coil/belt carrier
25 snapper (locks in place)
26 Connecting rod snap grabber (25) = Fixing of (1)
27 fixing screws = (1) fixing
28 Thread" (27)
Handle 29" (27)
30 Sling Wire Rope (31)
31 wire rope (fixing device for plate stack 1)
32 (31) / (30) to snap/fasten wire pin
33 Fixing rod for plate stack
34 "Push-out rod" / clamping rod (cutting band (15) stretched)
35 Cut/Over Tape Scraper (15)
36 recess for fixing rod 33; Threaded rod; (31)
37 wrinkles
38 Cross incision / punching
39 Band without a groove (recess) in the middle
40 lid
41 Curing Mass
42 film (moisture proof) not completely enclosed
43 Nutrient Solution Sprayer
Foil ring for 44 (42)
Film tape for 45 (42)
46 Foil Weld Seam (Seam)
47 nail board
48 organization matrix
49" eyelet
50 rope start
51 Section 15 Fixation device that creates a tissue matrix
52 "nails"
53 nutrient solution
54 vessel wall
55 perforated wall (suitable for nail boards)
56 pump
57 power
58 Sand Sack
59 hose
60 "spoons"-tray
61 grid type
62 Zipper-Grow-Tower Type
63 front
64" slot
65 Root vegetables rigid foam
66 Egg Carton Surface
67 frames around 65
68 "nails"
69 sprinkler
70 female thread
71 sunk
72 threaded rod

Claims (30)

As a container (1) of various shapes suitable for soil-free plant culture operation, it itself consists of a number of single plates (2), with passages (3) from the top (4) to the bottom (5), placed on top of each other. When fixed to each other (including closed top cover plate 6 and bottom closed collection or discharge plate 7) a relatively closed container (1) is formed around a shared hollow space (8) and a plant part (root/rhizome / Tuber / root sprout, etc.) (9), and the corresponding plant material (seeds / sprouts / clippings / tubers / rhizomes / adult plants, etc.) (10) will be given between the plates (2) in a reasonable manner. When the plant material 10 sprouts, it sprouts forward, or eventually grows and metabolizes, or finally photosynthesizes externally so that the root sprout (9) can arise in the hollow space (8), and the other The plant part 11 can grow outward and grows through the slot 12 between the plates 2 where it is placed and fixed, while the entire container 1 is held together by the fixing device 12, ( (10) When constructed and mounted with plant material (in a stable and re-separable manner), the internal nutrient solution can be distributed by a suitable nutrient supply system (13) (recycling or external supply/disposal), and the nutrients are transferred to the plant. Soil-free plant culture container, characterized in that it is configured to be absorbed by a material part (root, etc.) 9 or to initiate germination and sprout 14 The operating procedure of the container (1) is that a number of single plates (2) (including passages (3)) are thus constructed and placed on top of each other to form a common space, with a cover plate (6) collecting or discharging plate (7). It can be prevented and mounted with plant material (2) in a reasonable manner while joining the plate (2) so that the corresponding nutrient distribution system (13) is inserted and installed in a manner suitable for function and steering, and the complete container (1) is mounted together. A soil-free plant culture vessel, characterized in that it is held together stably (and again in a detachable manner) by a suitable holding device (13) The container according to claim 1, wherein the container has a relatively elastic band (15) capable of depressurization (e.g. hardened foam, pond filter pad, etc.) is at least water permeable on the inner surface (16) and can be penetrated by the roots, , A soil-free plant culture container, characterized in that it is inserted as a separating layer between all the plates (2) of the plate stack, and thus a sealing effect may occur. 4.The method according to claim 3, wherein the band insertion procedure is (15) by means of an additional plate (2) relatively suitably positioned on top of the first plate (2) (there may be free plants) and relatively suitably positioned thereon. They are held between the two plates (2), after which the rest of the band (15) is folded back (possibly with free plant material) and again placed on the top plate (2) and further placed on top by the plate. This procedure, which is fixed again and placed alternately on the plate (2), and the band (15) folded back and placed on top of it (possible with plants) is repeated several times until the band is also mounted with the plant material in the plate stack. "Material" is a soil-free plant culture container, characterized in that it is deliberately placed loosely on the plant material The method according to claim 3 and 4, wherein the band contains the plant material (10) already fixed before the container (1) is mounted, and after being inserted into the container (1) (between the plates (2) ) A soil-free plant culture container, characterized in that sprouts can be sprout or grown and germinate early in a single case, and alternatively, if necessary, the insertion of loose plant material is omitted. 6. The method according to claim 1, wherein the vessel mounting procedure is a pattern, symbol, symbol, colored surface, multiple or specific growth as previously planned by the plant material (10) on the plate (2) in (1). It is inserted in a manner that allows the combination of results in a deliberate manner in a step, so that plant material 10 with specific color-related properties fills a defined space in the container (= plant pixel (17)) and every time plant pixel (17) and the plate height (18) and the plate length (19) can be pre-positioned relative to each other taking into account the slot height (20), which is characterized by being able to determine the available patterns, colors, frames used and other parameters. Soil-free plant culture container 7. The container mounting machine according to claims 1 to 6, wherein the plant material (10) or band (15) (pre-mounted or empty) can be provided with a plate (2), where the plate (2) They are combined with plant material (10) or band (15) (mounted/unmounted) in a machine-related manner to the vessel (1) as described in paragraphs 1 to 6 to achieve mounting for growth and operation. Machines for mounting on containers (1) characterized in that they can Software, templates, punch cards or other data carriers or data processing processes or mechanisms may be marked with plant-derived symbols, markings, colored surfaces, patterns and sequences, as well as group combinations or placeholders thereof, and the procedure in accordance with paragraph 6 may also be described. The steering of a semi-automated or fully automated machine according to clause 7 can be systematically used and simultaneously stored and processed combinations or combinations of the named values are electronic information as in other systems (techniques, omnibus (BUS), etc.) Treatment (EDP) can be used as selected in a short period of time and the data categories processed are the size of the early stage plant material, the plant material category (seeds, shoots, rhizomes, clipping, etc.), the final size, the duration of the growth process ( Step), color calculation of equipment width and equipment quantity, (15) correlation calculation of length and type of band, (fitted. (not fitted.)) all (available) or required summaries for evaluation, processing and calculation A soil-free plant culture container, characterized in that it can be prepared in a mobile app or The method according to claim 1 to 8, wherein the business model includes container mounting, supplement sales, band (15) sales, exterior design, container sales, and the advertising surface can be provided by accurately combining them with them. A soil-free plant culture container, characterized in that it provides the products and services described to customers with reservations and licenses (and) used in such a manner as described in paragraphs 1 to 9 According to claim 3, wherein the container (1) is composed of only the band and the plant material (10) (random type, pre-mounted/unmounted) without using the steel plate (2), and in the same way (1) Hollow space (8) and integrated nutrient supply (13), as well as fixtures for fastening of the stack are provided, and all bands (15) layers are placed on top of each other to ensure random fixtures (e.g. seeding, plastic welding, Soil-free plant culture container, characterized in that fixed by the The method of claim 10, wherein the container has environmental impact and evaporation reduced by the surrounding plastic/foil skin (non-rigid) so that it can be punctured or penetrated by plant growth, and a harmless seal is also attached and a harmless seal is attached. A soil-free plant culture vessel characterized in that perforated or melting furnaces or other conditions and materials/objects providing a protective surface can be used here. The container according to claim 11 and 10, wherein the container (1) may be installed along an inclined surface, and a rear opening toward the inclined surface is provided so that roots can be taken from the container, and a contact with the inclined surface is formed and soil or A soil-free plant culture container, characterized in that a fixed part in which granules can be collected can be provided, and a necessary fixing device can be installed on a slope or on the slope and connected to the container. 13. The soil-free plant culture container according to claim 12, wherein the procedure is represented by execution of the described condition. The container according to claim 10 or 11, wherein the container is (1) a different container or (1) a completely different soil-free container (e.g. PCT / EP2015) to provide a matrix matrix for this fully assembled container. /000132) as a whole or as a finished structure (which may initially be free of plant material) or in another container/in a container (e.g. hook) on a hanging device provided with a loop and the plant material is a container of this claim. A soil-free plant culture vessel, characterized in that it may already be mounted within or placed later so that the matrix is later inserted into it and then rooted in the matrix (= claim container) 15. The container of claim 14, wherein the container is also braided (to each other) with a matrix matrix or from a single or several fibers, strings; Since it is a spatial matrix matrix structure technically bonded from a string in the form of a matrix matrix (e.g. coconut (coir)) (according to different claims) a container (1) or another container (inside) (PCT/EP2015/00132) And alternatively, the structure of the present claims is strongly pressed and compressed, which is later depressurized again, spatially expanded by water, and can be used as a spatially restored matrix (e.g., a knot matrix). Soil-free cultivation container Process according to claim 15, characterized in that the substrate matrix is processed in a material-technical manner and is strongly compressed by pressure for storage and transport and then depressurized again, for example by water or pressure loss. The method of claim 1, wherein the container is (1) a single plate (2) has one or several extensions into a notch () from the end of the plate, so that potatoes, ginger tubers/lumps, rhizomes, etc. that can be grown are for example For example, the sprout can be placed in the form of an extension formed like a formed spoon, or its net or grid form, but the existing sprout can be placed away from the "spoon" in the mounting situation through the plate slot and can already be placed outward, and the sprout does not find its way by itself. Optionally, the plate/extension of this claim may be placed in another container (e.g. PCT / EP2015 / 000132) or in a plant tower such as Nathaniel Storey (Bright Agrotech) with spacers and faceplates, alternatively, the container(1) , Plate stack, + other container of this claim is a soil-free plant culture container, characterized in that it can be equipped with an overlapping foil door (light shield) instead of without a back wall The container according to claim 17, wherein the tray (spoon/bowl/grid) is made from a band strip (15) or similar horizontally stretched material, alternatively such material is (transport) plant material (10) for locking. Soil-free plant cultivation container, characterized in that it can be located on the top of the 19. A plate (2) according to claim 17 or 18, which fits the inner diameter of a hollow vertical plant tower with a front slot (vertical) including a tray (according to claim 17 or 18) at its lower end and They are connected to each other by a spacer (2) at the top, and a light protective layer of the band (15) may have been placed above the sprout of the front (slot) + + up to the next (potato) plate on top of it, the light blocking face plate Is a soil-free plant culture container, characterized in that it is placed close to the front slot of a hollow vertical tower (eg Nathaniel Store, ...) The container according to claim 1, wherein the surface of the entire plate stack (eg part of the container) is the surface of the sound-absorbing plate “egg box” on the outside (or inside) and the cured foam (eg : External water repellent) Also soil-free plant cultivation container characterized by the external structure of other soil-free containers (PCT / EP2015 / 000132; Nathaniel Storey, etc.) 21. The container according to claim 1 to 20, wherein the plates (2) provide a very high height, so root vegetables can occur, and a dense, slightly hardened foam inserted in the front of the plate (2) affects the growth. However, it is still placed on or above the root vegetable in the initial state to seal the front surface of the plate (2) next to the root vegetable. The structure according to claim 15, wherein the structure is composed of a material such as thorns/nails/pins in which the matrix matrix is rigid and parallel, wherein the thorns/nails/pins are inserted from several sidewalls through an inner hole (8) and bonded to each other. While it can be pulled out again, several nails from different sidewalls can be interlocked or inserted into different stages, parts or groups, and the material sprouted in this way can be gradually filled with a suitable size and complete space, and While plant material (plant material or sprout material that is not dedicated to sprouts) can be placed externally as known (at the end of the plate), matrices can be used (e.g. enough root material for bacteria), while it can be inserted gradually. Before this occurs, bacteria, ...), also characterized in that the nail matrix can be inserted into another container (PCT/EP2015/000132; Storey N., ??) and upon removal the sealing plate can be placed over the hole. Soil plant culture container 23. The soil-free plant culture container according to claim 1 to 22, wherein the plate stack is stable and the relatively dense plate is stacked at an angle different from the horizontal (direction) while covering and collecting the plate. Container according to claim 1 to 23, characterized in that the container is initially composed of a non-rigid material and the stacked "plates" (2) are generally cured after a period of time and alternatively three-dimensionally printable. Of claim 1 to claim 24, wherein the non-soil plant culture vessel, characterized in that the container (1) is inserted into the fixed / sealed receiving tube, furniture, walls, or the vehicle (interior) surface or the like may be activated ( One) 25. An interior space (8) according to claim 24, wherein the container is not substantially cured in non-rigid material and is moistened by a foil by a closed hose-like (e.g. gel hose, sandbag, (partially open) foil, etc.) ) Or soil-free plant culture container, characterized in that it is separated from the environment alone The method according to claim 1 to 26, wherein the containers are not positioned on top of each other, but are individually stacked, but the parts that are joined together like a spiral are placed on top of each other as a piece and are combined with the plants as a whole. Soil-free plant culture container 28. The soil-free plant culture container (1) according to claim 27, wherein the container represents the claim and can be mounted by elongating the structure, and other self-compressed forms are mounted by elongating to form a container. A soil-free plant culture vessel according to claims 1 to 28, characterized in that the process is carried out with their condition and results and necessary and described/reasonable measures. 30. A soil-free plant culture container according to claims 1 to 29, wherein the business model is that their subject + behavior is sold as a product + service.

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