TWM454715U - Vibrating culture equipment for plant cell growth environment and vibrating device - Google Patents

Description

Oscillation culture device and oscillating device for providing plant cell growth environment

The present invention relates to a culture apparatus, and more particularly to an oscillating culture apparatus and an oscillating apparatus for providing a plant cell growth environment.

In the process of culturing, plant cells usually need to be combined with shaking equipment to activate plants or cells by shaking to improve the success rate of culture.

However, today's shock culture equipment does not provide the light source for plant cells in the process of plant cell culture. The plant cells that need to be cultured for the light source rely on the external light of the culture device to enter the interior through the glass bottle to provide plant cell absorption. Because the mouth of the culture device must be covered or sealed, the supply of the light source is greatly reduced. So far, no equipment has been able to provide the growth light source required for plant cell culture to promote its growth.

Therefore, the creator feels that the above-mentioned deficiency can be improved. He is devoted to research and cooperates with the application of theory, and finally proposes a creation that is reasonable in design and effective in improving the above-mentioned deficiency.

The present embodiment provides an oscillating culture device and an oscillating device for providing a plant cell growth environment, which contributes to an increase in the success rate of plant cell culture and promotes growth thereof.

The present invention provides an oscillating culture device for providing a plant cell growth environment, comprising: an oscillating device comprising: a driving module; an oscillating module mounted on the driving module, and the oscillating mode The group has: a working platform connected to the driving module, and the working table can be reciprocally oscillated and moved substantially on a plane via the driving of the driving module; The light-emitting units are respectively mounted on the worktable, and each of the light-emitting units comprises a first LED light group emitting red light and a second LED light group emitting blue light, and the first LED light group is emitted The red light wavelength range is approximately 620 nm to 760 nm, and the second LED lamp group emits a blue light having a wavelength range of approximately 360 nm to 480 nm; and a plurality of positioning units respectively mounted on the workbench And the positioning units are respectively disposed adjacent to the light emitting units; and a culture device disposed above at least a portion of the light emitting units to enable at least a portion of the light emitting units under the culture device to emit light The device can be worn in the culture device, and the culture device can substantially maintain a relative position relative to the table via at least a portion of the positions of the positioning units.

The oscillating device further includes: a driving module; and an oscillating module, wherein the oscillating module has: a working platform connected to the driving module, And the working table can be reciprocally oscillated and moved substantially on a plane by driving the driving module; a plurality of light emitting units respectively mounted on the working table, and each of the light emitting units includes a first light emitting red light The LED light group and a second LED light group emitting blue light, and the red light wavelength range emitted by the first LED light group is approximately 620 nm to 760 nm, and the blue light wavelength range emitted by the second LED light group A plurality of positioning units are respectively disposed on the workbench, and the positioning units are respectively disposed adjacent to the light emitting units; and a control module electrically connected to the The light-emitting units, and the light-emitting units can respectively adjust the proportion of the light types emitted by the respective light-emitting units.

In summary, the oscillating culture device and the oscillating device provided by the present embodiment for providing a plant cell growth environment are provided on the workbench. There are several light-emitting units, and the table is oscillated and moved by the driving of the driving module, so that the plant cells arranged on the oscillating device are placed in a suitable growth environment to promote the growth.

In order to further understand the features and technical contents of the present invention, please refer to the following detailed description and drawings of the present invention. However, the drawings are only for reference and explanation, and are not intended to limit the scope of the present invention. .

Please refer to FIG. 1 to FIG. 3 , which is an embodiment of the present invention. The embodiment provides an oscillating culture device 100 for providing a plant cell growth environment, which is disposed on a working surface (eg, ground), and The oscillating culture apparatus 100 includes an oscillating device 1 and a culturing device 2 disposed on the oscillating device 1.

It should be noted that the oscillating culture device 100 can be in a static state or an oscillating state through the oscillating device. Hereinafter, a description will be given of a structural feature when the oscillating device 1 and the culture device 2 are at rest, and then the operation of the oscillating device 1 and the culturing device 2 will be exemplified.

The general order in the following description is as follows: an individual introduction of the components will be made first, and then the interconnection relationship of the components with respect to other components will be described.

The oscillating device 1 includes a driving module 11 and an oscillating module 12 mounted on the driving module 11 . The driving module 11 can be a motor or other driving component, which is not limited herein.

However, the manner in which the oscillating module 12 is mounted on the driving module 11 may be directly linked or indirectly connected through a transmission mechanism (such as a gear set, a link set, or a slide rail).

Furthermore, the driving module 11 is electrically connected to an external power source (such as a commercial power source or a generator) to supply the energy required by the driving module 11 during operation.

The oscillating module 12 has a working table 121, a plurality of light emitting units 122, a control module 123, and a plurality of positioning units 124. The light-emitting unit 122 and the positioning unit 124 are all disposed on the workbench, and the control module 123 is electrically connected to the light-emitting unit 122.

Specifically, the table 121 is substantially plate-shaped and has an outer surface 1211, and the table 121 is recessed from the outer surface 1211 thereof with a plurality of mounting grooves 1212. The number of the mounting slots 1212 corresponds to the number of the light emitting units 122, and the slot depth of each mounting slot 1212 is suitable for any of the light emitting units 122 to be inserted without protruding from the outer surface 1211 of the table 121. .

Furthermore, the table 121 is connected to the drive module 11, and the connection mode is directly connected or indirectly connected as described above. Moreover, the table 121 can be oscillated and moved substantially on a plane (not shown) via the driving of the drive module 11. In other words, the table 121 can be in an oscillating state via the driving of the drive module 11.

The oscillating movement mode of the table 121 may be continuously circulated along a predetermined trajectory (such as a circle, an ellipse, an irregular curve, etc.), or reciprocally moved along the predetermined trajectory and in opposite directions. However, the actual oscillating movement mode is not limited here.

In more detail, the plane is exemplified by a horizontal plane in the embodiment, that is, the outer surface 1211 of the table 121 is substantially parallel to the horizontal plane, but is not limited thereto in practical applications.

For example, the plane can also have an acute angle with the horizontal plane, that is, the outer surface 1211 of the table 121 is inclined to the horizontal plane and is substantially sandwiched. The acute angle.

The light-emitting units 122 each have a plurality of light-emitting diode (LED) lamps. In this embodiment, the light-emitting units 122 are classified according to the types of light that can be emitted by the LED lights of each of the light-emitting units 122. The first LED light group 1221, the second LED light group 1222 emitting blue light, and the third LED light group 1223 emitting green light.

The first LED light group 1221, the second LED light group 1222, and the third LED light group 1223 each include the above several LED lights. Moreover, the red light wavelength range emitted by the first LED lamp group 1221 is approximately 620 nm to 760 nm, and the blue light wavelength range emitted by the second LED lamp group 1222 is approximately 360 nm to 480 nm. The green light wavelength range emitted by the three LED light groups 1223 is approximately 480 nm to 530 nm.

Moreover, each of the light emitting units 122 further includes a first UV lamp group 1224 that emits long-wave ultraviolet light (UVA), a second UV lamp group 1225 that emits medium-wave ultraviolet light (UVB), and a short-wave ultraviolet light ( UVC) third UV lamp set 1226. Wherein, the wavelength of the long-wave ultraviolet light emitted by the first UV lamp group 1224 is approximately 320 nm to 400 nm, and the wavelength of the medium-wave ultraviolet light emitted by the second UV lamp group 1225 is approximately 290 nm to 320 Nano, the short-wave ultraviolet light emitted by the third UV lamp group 1226 has a wavelength range of approximately 200 nm to 290 nm.

Incidentally, the ratios of the six types of light groups respectively included in the light-emitting units 122 need not be the same. In other words, the proportions of the six light groups included in each of the light-emitting units 122 can be adjusted according to requirements.

In addition, the light-emitting units 122 are respectively disposed on the worktable 121. Further, the light-emitting units 122 are respectively received in the mounting slots 1212 of the worktable 121 and are not protruded from the outer surface 1211 of the worktable 121. .

The control module 123 is electrically connected to each of the light-emitting units 122, and the light-emitting units 122 can respectively adjust the proportions of the respective types of light emitted by the control module 123.

In other words, the control module 123 can provide a user to control the proportion of light emitted by each of the light groups in each of the light-emitting units 122, for example, the first LED light group 1221 and the second LED light. The proportion of light emitted by the group 1222 and the third LED light group 1223 may be 7:2:1, or other different ratios.

The control module 123 can further be provided with a timer 1232. The timer 1232 of the control module 123 is electrically connected to the first UV lamp group 1224, the second UV lamp group 1225, and the third UV lamp group 1226 of each of the light emitting units 122, thereby respectively adjusting the UV lamps. The time at which each group emits light.

Furthermore, the control module 123 can be installed on the worktable 121 or disposed outside the worktable 121, which is not limited herein. For example, as shown in FIG. 1 , the control module 123 includes a plurality of control members 1231 , and the number of the control members 1231 corresponds to the number of the light emitting units 122 , and the control member 1231 is mounted on the work table 121 . Correspondingly electrically connected to the light-emitting unit 122. Thereby, the proportion of light emitted by each of the light groups of each of the light-emitting units 122 can be independently controlled by the control members 1231.

Alternatively, the control module 123 may be a one-piece construction (that is, not several control members 1231 as described above), that is, the control module 123 is designed through its own circuit to The user can separately control the proportion of light emitted by each of the light groups of each of the light-emitting units 122 via the interface switching of the control module 123.

The positioning units 124 each have a plurality of positioning posts 1241, and the positioning posts 1241 of each positioning unit 124 are respectively disposed on the outer surface 1211 of the working table 121, and the positioning units 124 are respectively disposed adjacent to the light emitting units. 122.

In more detail, the positioning post 1241 of each positioning unit 124 is adjacent to each of the light emitting units 122 at a portion of the outer surface 1211 of the table 121, whereby each of the light emitting units 122 and the adjacent ones are disposed adjacent thereto. The positioning post 1241 can define a storage space 125.

In addition, the positioning unit 124 in this embodiment is exemplified by the positioning post 1241, but is not limited thereto in practical applications.

The culture device 2 has at least one tapered culture bottle 21 and at least one bottle cap 22. The number of the bottle caps 22 corresponds to the number of the culture bottles 21, but the number of the culture bottles 21 can be changed according to the needs of the user, and The number of light-emitting units 122 must be limited.

Each of the culture bottles 21 has a bottom surface 211 and a bottle opening 212, and the area of the bottom surface is larger than the planar area enclosed by the bottle opening 212. The cap 22 is used to shield the mouth 212 of the culture bottle 21, and the cap 22 and the culture bottle 21 are surrounded to define a closed accommodating space 23.

Furthermore, the bottom surface 211 of the culture bottle 21 is disposed above the light-emitting unit 122 so that the light emitted from the light-emitting unit 122 located under the culture bottle 21 can pass through the accommodation space 23 of the culture bottle 21.

And the side of the culture bottle 21 abuts against the positioning post 1241 of the positioning unit 124 and is located in the space surrounded by the positioning post 1241 (corresponding to the position in the storage space 125), so that the culture bottle 21 is restricted by the positioning post 1241. The relative position relative to the table 121 is maintained substantially.

The above-mentioned oscillating device 1 and the culture device 2 have been described as being at a standstill. The structural features of the time, the following will exemplify the operation of the oscillating device 1 and the culture device 2.

Referring to FIG. 3 and at the same time as shown in FIG. 2, each of the culture bottles 21 is adapted to place a plant cell 200 and a tissue fluid 300, and the bottle cap 212 of the culture bottle 21 is sealed with a cap 22.

The light-emitting unit 122 is adjusted by the control module 123 so that the type of light emitted by the light-emitting unit 122 is suitable for the plant cells 200 in the culture bottle 21. The user can control at least one of the first UV lamp group 1224, the second UV lamp group 1225, and the third UV lamp group 1226 of the light emitting unit 122 to emit ultraviolet light, and control the emitted ultraviolet light through the timer 1232. The light irradiation time is to avoid damage or even death of the plant cells 200 due to excessive irradiation.

The culture bottle 21 and the plant cells 200 and the tissue fluid 300 disposed therein are disposed on the adjusted light-emitting unit 122, so that the light emitted by the adjusted light-emitting unit 122 penetrates the bottom surface 211 of the culture bottle 21. The plant cells 200 and the tissue fluid 300 are irradiated.

Thereafter, the oscillating device 1 is activated to drive the table 121 by the driving module 11, so that the table 121 and the culture bottle 21 thereon are oscillated along the predetermined trajectory on the plane, and are in an oscillating state.

Thereby, the above-described oscillating culture apparatus 100 can be provided with an environment suitable for plant growth, that is, the environment (shock and light) provided by the oscillating culture apparatus 100 is suitable for the plants accommodated in each of the culture bottles 21. Cell 200.

In addition, it should be noted that the present embodiment is a preferred example in which the oscillating culture apparatus 100 houses the plant cells 200, but the scope of application of the oscillating culture apparatus 100 of the present invention is not limited to the above plant cells 200. That is to say, the shock cultivating device 100 of the present creation is actually used. Can be applied to all plant cell cultures.

In summary, the oscillating culture device for providing a plant cell growth environment in the present embodiment is provided with a plurality of light-emitting units through a workbench for simultaneously setting a plurality of culture bottles and driving through the drive module. The worktable can be oscillated, thereby increasing the success rate of plant cell rearrangement in the culture bottle and promoting its growth.

In addition, for the different plant cells to be cultured, the illuminating unit of the oscillating device can add different illuminating lamp groups, for example, an LED lamp group that can emit light of different colors, or a UV lamp group that can emit ultraviolet light of different wavelengths.

The above description is only an embodiment of the present invention, and is not intended to limit the scope of the patent of the present invention.

100‧‧‧Concussion culture equipment for providing plant cell growth environment

1‧‧‧ oscillating device

11‧‧‧Drive Module

12‧‧‧ Shock Module

121‧‧‧Workbench

1211‧‧‧ outer surface

1212‧‧‧Installation slot

122‧‧‧Lighting unit

1221‧‧‧First LED light group

1222‧‧‧Second LED light group

1223‧‧‧The third LED light group

1224‧‧‧First UV lamp set

1225‧‧‧second UV lamp set

1226‧‧‧3rd UV lamp set

123‧‧‧Control Module

1231‧‧‧Controls

1232‧‧‧Timer

124‧‧‧ Positioning unit

1241‧‧‧Positioning column

125‧‧‧Storage space

2‧‧‧ culture device

21‧‧‧Cultivating flask

211‧‧‧ bottom

212‧‧‧ bottle mouth

22‧‧‧ caps

23‧‧‧ accommodating space

200‧‧‧plant cells

300‧‧‧ tissue fluid

FIG. 1 is a schematic perspective view of an oscillating culture device for creating a plant cell growth environment.

Figure 2 is a shock culture equipment for creating a plant cell growth environment. Schematic diagram of the oscillating device.

Figure 3 is a shock culture equipment for creating a plant cell growth environment. A schematic diagram of the state of use.

1‧‧‧ oscillating device

11‧‧‧Drive Module

12‧‧‧ Shock Module

121‧‧‧Workbench

1211‧‧‧ outer surface

1212‧‧‧Installation slot

122‧‧‧Lighting unit

123‧‧‧Control Module

1231‧‧‧Controls

124‧‧‧ Positioning unit

1241‧‧‧Positioning column

125‧‧‧Storage space

2‧‧‧ culture device

21‧‧‧Cultivating flask

211‧‧‧ bottom

212‧‧‧ bottle mouth

22‧‧‧ caps

23‧‧‧ accommodating space

200‧‧‧plant cells

300‧‧‧ tissue fluid

Claims (15)

An oscillating culture device for providing a plant cell growth environment, comprising: an oscillating device, comprising: a driving module; an oscillating module mounted on the driving module, and the oscillating module has: a working a table connected to the driving module, and the table can be oscillated and moved substantially on a plane via driving of the driving module; a plurality of light emitting units respectively mounted on the working table, and each light emitting unit The first LED light group emitting red light and the second LED light group emitting blue light, and the red light wavelength range of the first LED light group is approximately 620 nm to 760 nm, the second LED The light source emits a blue light having a wavelength range of approximately 360 nm to 480 nm; and a plurality of positioning units respectively disposed on the worktable, and the positioning units are respectively disposed adjacent to the light emitting units; and a device disposed above at least a portion of the light emitting units to enable at least a portion of the light emitted by the light emitting units under the culture device to pass through the culture device, and the culture device can pass at least The plurality of sub-limiting and positioning means substantially maintaining the relative position of the stage. The oscillating device for providing a plant cell growth environment according to the first aspect of the invention, wherein the oscillating device further comprises a control module, the control module is electrically connected to the light emitting units, and the The light-emitting unit can separately adjust the proportion of the light type emitted by each of the light-emitting units. The oscillating culture device for providing a plant cell growth environment according to the second aspect of the invention, wherein each positioning unit has a plurality of positioning columns, and the positioning column of each positioning unit is connected to the working table. Surrounding each of the light-emitting units, the culture device comprises at least one transparent cone-shaped culture bottle, the bottom surface of the at least one culture bottle is disposed on at least one of the light-emitting units, and the at least one culture bottle is abutted The positioning post of the positioning unit is adjacent and accommodated in the space surrounded by it. The oscillating culture apparatus for providing a plant cell growth environment according to the second aspect of the invention, wherein the worktable has a plurality of installation grooves recessed from the surface thereof, and the light-emitting units are respectively accommodated in the worktable. Install in the slot. An oscillating culture apparatus for providing a plant cell growth environment as described in claim 2, wherein the plane is further defined as a horizontal plane. The oscillating culture apparatus for providing a plant cell growth environment according to any one of claims 1 to 5, wherein each of the light-emitting units further comprises a third LED light group emitting green light, and the The green light wavelength emitted by the three LED light groups ranges from approximately 480 nm to 530 nm. The oscillating culture device for providing a plant cell growth environment according to claim 6, wherein each of the light-emitting units further comprises a first UV lamp group emitting long-wave ultraviolet light (UVA), and the first UV The long-wavelength ultraviolet light emitted by the lamp group ranges from approximately 320 nm to approximately 400 nm. The oscillating culture device for providing a plant cell growth environment according to claim 7, wherein each of the light-emitting units further comprises a second UV lamp group emitting medium-wave ultraviolet light (UVB), and the second The medium-wave ultraviolet light emitted by the UV lamp group has a wavelength range of approximately 290 nm to 320 nm. The oscillating culture device for providing a plant cell growth environment according to claim 8, wherein each of the light-emitting units further comprises a third UV lamp group emitting short-wave ultraviolet light (UVC), and the third UV The short-wavelength ultraviolet light emitted by the lamp group ranges from approximately 200 nm to 290 nm. An oscillating device includes: a driving module; and an oscillating module mounted on the driving module, the oscillating module has: a working platform connected to the driving module, and the working platform passes the The driving module is driven to oscillate substantially in a plane; a plurality of light emitting units are respectively mounted on the working table, and each of the light emitting units includes a first LED light group emitting red light and a blue light emitting a second LED light group, wherein the red light wavelength range emitted by the first LED light group is approximately 620 nm to 760 nm, and the second LED light group emits a blue light wavelength range of approximately 360 nm to 480 nm. And a plurality of positioning units respectively disposed on the working table, wherein the positioning units are respectively disposed adjacent to the light emitting units; and a control module electrically connected to the light emitting units, and the light emitting The unit can separately adjust the respective issued by the control module The proportion of light types. The oscillating device of claim 10, wherein each positioning unit has a plurality of positioning posts, and a positioning post of each positioning unit is adjacent to each of the lighting units at a portion of the working table. The oscillating device of claim 10, wherein the working table is recessed with a plurality of mounting slots, and the light emitting units are respectively received in the mounting slots of the working table. The oscillating device of claim 10, wherein the plane is further defined as a horizontal plane. The oscillating device according to any one of claims 10 to 13, wherein each of the light-emitting units further comprises a third LED light group that emits green light, and the green light emitted by the third LED light group The wavelength range is approximately 480 nm to 530 nm. The oscillating device of claim 14, wherein each of the illuminating units further comprises a first UV lamp group emitting long-wave ultraviolet light (UVA) and a second UV lamp emitting medium-wave ultraviolet light (UVB). a third UV lamp group emitting short-wave ultraviolet (UVC) light, and the long-wave ultraviolet light emitted by the first UV lamp group has a wavelength range of approximately 320 nm to 400 nm, and the second UV lamp group The range of the medium-wave ultraviolet light emitted is approximately 290 nm to 320 nm, and the short-wave ultraviolet light emitted by the third UV lamp group ranges from approximately 200 nm to 290 nm.