A smart management device for cultivating Cordyceps militaris using turtles and tortoises as parasites.
By using intelligent management devices to precisely control the environment inside the incubator, the problem of environmental regulation when cultivating Cordyceps militaris using animal bodies as parasites has been solved, achieving efficient and automated Cordyceps militaris cultivation.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- GUANGXI ZHUANG REN TANG BIOTECHNOLOGY CO LTD
- Filing Date
- 2025-08-18
- Publication Date
- 2026-07-31
AI Technical Summary
Existing technologies make it difficult to precisely control environmental parameters when cultivating Cordyceps militaris using animal bodies as parasites, resulting in low cultivation efficiency and a high risk of errors, which cannot meet the needs of large-scale production.
The system employs an intelligent management device, utilizing an intelligent controller combined with LED strips, an ozone generator, an ultrasonic atomizing humidifier, and an exhaust fan to achieve precise control of the environment inside the incubator, including automatic adjustment of parameters such as temperature, humidity, and light.
It enables intelligent, scientific, and precise control of the Cordyceps militaris growth environment, improves cultivation efficiency, ensures the yield and quality of Cordyceps militaris, and reduces manual management costs.
Smart Images

Figure CN224571926U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the technical field of Cordyceps militaris cultivation devices, specifically to an intelligent management device for cultivating Cordyceps militaris using turtles and tortoises as parasites. Background Technology
[0002] Cordyceps militaris, a rare fungus with both medicinal and edible value, is experiencing increasing market demand, making the optimization and upgrading of its cultivation technology crucial for industry development. Traditionally, Cordyceps militaris cultivation uses insect pupae, rice, wheat, and other materials as culture media. In recent years, cultivating Cordyceps militaris using plant-based carriers utilizes the carbon and nitrogen sources found in plants to provide nutrients for its growth and development. By leveraging biotechnology, Cordyceps militaris and agricultural products are organically integrated, leveraging the efficacy, value, and influence of Cordyceps militaris to significantly enhance the added value of agricultural products. Currently, silkworms, including tussah silkworms and mulberry silkworms, are the primary animal carriers for Cordyceps militaris cultivation. However, there are few reports on technologies using other animal carriers. Cultivating Cordyceps militaris using animal carriers is significant for exploring valuable traditional Chinese medicine resources, developing new uses for animal resources, and increasing their added value. Therefore, research and development of technologies for cultivating Cordyceps militaris using other animal carriers is of paramount importance.
[0003] In the wild, Cordyceps militaris naturally parasitizes insect pupae, absorbing nutrients from them to grow. This method results in extremely low yields and unstable composition, making it difficult to meet market demand and virtually impossible to achieve large-scale production and practical application. Subsequent developments in artificial cultivation techniques, while using culture media to replace pupae and achieving some degree of effective and controllable cultivation, still have many shortcomings. Firstly, existing artificial cultivation methods face unique challenges when using animal bodies as carriers. The physiological characteristics of animals differ significantly from traditional culture media, and their internal environments are complex, making it difficult to accurately simulate suitable conditions for Cordyceps militaris growth. For example, animal fat and strongly scented blood have a significant inhibitory effect on Cordyceps militaris mycelia, and current cultivation methods struggle to monitor and address this in real time. Secondly, Cordyceps militaris cultivation has extremely demanding environmental requirements. During the mycelial growth stage, the temperature needs to be precisely controlled between 17-25℃, the moisture content of the culture medium should be maintained at 60%-70%, and the relative humidity should be maintained at 55%-60%. Light is not required during this stage. During the fruiting body differentiation and development stage, the relative humidity needs to be adjusted to 80%-90%, and diffused light of 500-1000 lx (orange light is beneficial for growth) should be provided. In the cultivation process using animal bodies as parasites, existing environmental control equipment is insufficient to simultaneously meet the specific environmental requirements for cultivating Cordyceps militaris using animal bodies, and it cannot dynamically adjust environmental parameters based on the real-time growth status of the Cordyceps militaris cultivated using animal bodies. Furthermore, manual management methods are inefficient and prone to errors when cultivating Cordyceps militaris using animal bodies as parasites. Frequent manual monitoring of instruments such as hanging thermometers and hygrometers is required, making it difficult to achieve real-time and comprehensive understanding of the growth status of Cordyceps militaris cultivated using animal bodies. For large-scale cultivation operations, manual management is costly, and due to the uncontrollability of human factors, such as untimely monitoring and operational errors, the cultivation quality is easily inconsistent, affecting the yield and quality of Cordyceps militaris.
[0004] In conclusion, there is an urgent practical need to develop an intelligent management device specifically for cultivating Cordyceps militaris using animal bodies as parasites. Summary of the Invention
[0005] The purpose of this invention is to address the problems existing in the prior art by providing an intelligent management device for cultivating Cordyceps militaris using turtles and tortoises as parasites. This intelligent management device utilizes an intelligent controller to control the operation of light strips, an ozone generator, an ultrasonic atomizing humidifier, and an exhaust fan. It provides intelligent, scientific, and precise control over environmental disinfection, temperature, humidity, and light during the cultivation of Cordyceps militaris fruiting bodies using turtles and tortoises as parasites, enabling the turtles or tortoises placed inside the cultivation chamber to safely and efficiently grow Cordyceps militaris fruiting bodies.
[0006] This utility model is achieved using the following technical solution: An intelligent management device for cultivating Cordyceps militaris using turtles and tortoises as parasites includes an incubator, an ozone generator, and an intelligent controller. The incubator consists of a body and a lid. Inside the body are a humidity probe, an air probe, a cultivation rack, a light strip, and an ultrasonic atomizing humidifier. The ultrasonic atomizing humidifier is placed at the bottom of the body. This device uses high-frequency oscillation, where the high-frequency vibration of the atomizing plate causes water in the humidifier to be thrown off the surface, producing a mist that humidifies the air. It is commercially available and can be installed and used. It utilizes an atomizing transducer that, when powered on, generates a high-frequency oscillation of 17,000 times per second, atomizing water into fine particles of 1-5 μm, thereby achieving air humidification. The enclosure lid is equipped with an exhaust fan and an air filter. The air filter removes dust, solid impurities, and various bacteria from the air, ensuring sufficient clean air circulation. The ozone generator is connected to the enclosure via an ozone ventilation duct. The intelligent controller is connected to the humidity probe, air probe, LED strip, ozone generator, and ultrasonic humidifier via wires. The intelligent controller controls the operation of the LED strip, ozone generator, and ultrasonic humidifier according to a pre-set program.
[0007] A further preferred embodiment: the intelligent controller is also connected to the exhaust fan via a wire.
[0008] A further preferred embodiment: a drain switch is provided at the bottom of the box. Opening the drain switch will drain the water from the box.
[0009] A further preferred embodiment: Several ozone ventilation holes are respectively provided in the middle of the two side walls of the box body, and ozone ventilation pipes extend into the box body from the ozone ventilation holes. One set of ozone ventilation pipes is for supplying oxygen to the box body space, and another set of ozone ventilation pipes is for supplying oxygen to the box body space and for supplying oxygen to the water layer at the bottom of the box body.
[0010] A further preferred embodiment: the middle part of the box wall is provided with a humidity probe hole and an air probe hole, and the humidity probe and air probe are installed in the humidity probe hole and air probe hole respectively.
[0011] A further preferred embodiment: the cover is provided with an exhaust fan hole and several air filter holes; the exhaust fan and air filter are installed in the exhaust fan hole and several air filter holes respectively.
[0012] A further preferred embodiment: the culture rack consists of four upright columns and several layers of mounting racks for placing turtles or tortoises.
[0013] A further preferred embodiment: the light strip is a PCB rigid light strip; the light strip is installed on the inner walls of the enclosure around the perimeter.
[0014] A further preferred embodiment: the intelligent controller comprises a humidity control instrument, a time relay, a time control switch, and an air humidity regulating instrument; the humidity control instrument is connected to and controls the humidity probe and the ultrasonic atomizing humidifier, and controls the operation of the ultrasonic atomizing humidifier; the air humidity regulating instrument is connected to and controls the air probe; the time relay is connected to and controls the light strip, and controls the opening and closing of the light strip; the time control switch is connected to and controls the ozone generator, and controls the operation of the ozone generator.
[0015] A further preferred embodiment: the air humidity regulating instrument is connected to and controlled by the exhaust fan, and the air humidity regulating instrument controls the operation of the exhaust fan.
[0016] The humidity control instrument is an electronic device whose main function is to measure the humidity in the environment and control it according to a preset value to adjust the humidity to the set range. Its working principle generally includes the following steps: (1) Humidity detection by sensor: Equipped with a humidity sensor, it detects the humidity by sensing the number of water molecules in the air and converts the result into an electrical signal output. (2) Signal conversion: An analog-to-digital converter (ADC) is used to convert the electrical signal output of the humidity sensor into a digital signal for easy processing by the controller. (3) Humidity setting: Users can set the humidity range according to their needs so that the instrument can automatically control it. When the ambient humidity is lower than the set value, the instrument will automatically adjust the ambient humidity to increase; otherwise, it will decrease. (4) Control output: The ambient humidity is adjusted by controlling the output signal (such as a relay, transistor, etc.). When the humidity is lower than the set value, the output signal is activated to control the humidification equipment to work; when the humidity is higher than the set value, the output signal is stopped to control the humidification equipment to stop working.
[0017] The time relay, also known as a time-limited relay or timing relay, is an electrical control element capable of operating according to a preset time delay. It can control the switching state of a circuit in an electrical control system according to set time parameters, thereby achieving timed control within a certain period. A time relay typically consists of an electromagnetic relay and timing elements (such as capacitors, resistors, timing chips, etc.). Through the control of the electromagnetic relay and the delay effect of the timing elements, the closing or opening of the control circuit can be achieved within a set time.
[0018] The aforementioned time control switch is an intelligent device that can automatically control the switching of electrical equipment according to a preset time. It achieves precise control of the switching time through a built-in microcomputer chip and is widely used in many fields such as home, commerce and industry, such as timed switching control of lighting, air conditioning, audio equipment, etc. The working principle of the time control switch is mainly based on the following key steps: (1) Setting the time: The user sets the required switching time by adjusting the knob or button on the time control switch. (2) Circuit connection: The time control switch has an internal circuit that connects the power supply and the controlled electrical equipment. When the preset time is reached, the circuit will perform the switching operation according to the setting.
[0019] The application principle of this intelligent management device for cultivating Cordyceps militaris using turtles and tortoises as parasites is as follows: 1. Application of a combination of humidity control instrument and ultrasonic atomizing humidifier: The humidity control instrument consists of a humidity controller and a humidity probe. The humidity probe is placed inside the incubator, and the humidity parameters inside the incubator are fed back to the humidity controller by the humidity probe. When using the humidity control instrument to control the humidity inside the incubator, first, the required humidity parameters are set on the humidity control instrument according to the humidity requirements of the incubator. When the humidity in the incubator is lower than the set parameters, the humidity controller will automatically activate the ultrasonic atomizing humidifier. The ultrasonic atomizing humidifier will then spray a mist-like water vapor that spreads throughout the space inside the incubator, causing the humidity in the incubator to rise continuously. When the humidity rises to the set humidity parameters... When the humidity level drops below the set value, the humidity control instrument automatically stops the ultrasonic atomizing humidifier. When the humidity inside the incubator falls below the set value, the instrument automatically restarts the ultrasonic atomizing humidifier to increase the ambient humidity. In short, the humidity inside the incubator is automatically controlled within the set range. This achieves a high degree of automation in humidity management during incubator production, significantly improving work efficiency. The ultrasonic atomizing humidifier uses a high-frequency oscillation of 17,000 times per second to atomize water into 1-5 micron ultrafine particles and negative oxygen ions, which are then diffused into the air, humidifying the air and generating abundant negative oxygen ions, thus quickly achieving uniform humidification of the environment.
[0020] 2. Application of Time Relay and LED Strip Combination: Time parameters are set on the time relay to control the switching state of the circuit. Through the control of the electromagnetic relay and the delay effect of the timing element, the circuit is closed or opened within the set time. The time relay effectively controls the LED strip according to the set on and off durations, using the light from the LED strip to induce and promote the growth and development of Cordyceps militaris, achieving optimal cultivation results. Since excessive or insufficient light is detrimental to the healthy growth of fruiting bodies, the time relay is set to automatically control the opening and closing of the LED strip based on a normal daily light cycle of approximately 8-12 hours to meet the growth needs of Cordyceps militaris, thus achieving automated and precise control of the cultivation environment's lighting.
[0021] 3. Application of Time Switch and Ozone Generator Combination: Based on requirements such as disinfection duration, relevant parameters are set for the time switch. Utilizing the built-in microcomputer chip and internal circuitry of the time switch, connected to the power supply and controlled electrical equipment, the circuit executes the switching operation according to the preset time, achieving precise control of the on / off time. Based on this principle, the time switch automatically and effectively controls the operation of the ozone generator. The ozone generator disinfects the space environment inside the incubator and the clean water injected into the bottom of the incubator, ensuring the cleanliness of the incubator meets requirements. This ensures that the turtles or tortoises cultivating Cordyceps militaris complex placed in the incubator are not contaminated, and achieves automated and precise control.
[0022] 4. Application of the combination of air humidity control instrument and exhaust fan: The air humidity control instrument consists of a humidity controller and a humidity probe. The humidity probe is placed inside the incubator, and the humidity parameters inside the incubator are fed back to the air humidity control instrument by the humidity probe. The air humidity inside the incubator is obtained by controlling the operation of the ultrasonic atomizing humidifier under the control of the humidity controller. When the ultrasonic atomizing humidifier controlled by the humidity controller operates, it brings the air humidity in the incubator to the user-set value. Although the humidity controller has stopped the operation of the ultrasonic atomizing humidifier, because the incubator is closed and there is water at the bottom, the air humidity in the incubator often continues to rise. For example, the user-set air humidity is 85%, but the air humidity in the incubator will continue to rise to 90% or higher and will not drop for a long time. Once the ambient humidity in the incubator is too high... High humidity levels can negatively impact the normal growth of Cordyceps militaris, so it's crucial to restore the humidity in the incubator to the manually set value as quickly as possible. An air humidity controller is used to operate the exhaust fan, which removes excessive humidity from the incubator. When using an air humidity controller to regulate the humidity in the incubator, first set the required humidity parameters on the controller. When the humidity in the incubator exceeds the set parameter, the controller will automatically activate the exhaust fan to remove excess humidity. When the humidity drops to the set parameter, the controller will immediately and automatically stop the exhaust fan. This achieves the ideal humidity level inside the incubator, which is more conducive to the growth of Cordyceps militaris and enables automated and precise control.
[0023] This intelligent management device for cultivating Cordyceps militaris using turtles and tortoises as parasites features an ingenious structure. The cultivation chamber is equipped with LED strips, an ozone generator, an ultrasonic humidifier, an exhaust fan, and an air filter. A time relay precisely controls the on / off state of the LED strips, using the light to induce and promote the growth and development of Cordyceps militaris for optimal cultivation. Since excessive or insufficient light is detrimental to the healthy growth of the fruiting bodies, the time relay intermittently controls the LED strips, providing approximately 8-12 hours of light per day to meet the growth requirements of Cordyceps militaris, achieving automated and precise control. A humidity control instrument regulates the operation of the ultrasonic humidifier, setting a predetermined humidity level. When the humidity in the cultivation chamber falls below the set value, the humidity control instrument automatically activates the ultrasonic humidifier. When powered on, the ultrasonic humidifier generates a high-frequency oscillation of 17,000 times per second, atomizing water into fine particles of 1-5 μm into the air. The system employs air humidification to achieve the optimal humidity environment for Cordyceps militaris growth within the incubator, with automated and precise control. An ozone generator, controlled by a timer switch, disinfects the environment inside the incubator and the water injected at the bottom, ensuring the incubator remains clean and preventing contamination of the turtles or tortoises cultivating Cordyceps militaris. A humidity regulator controls the exhaust fan; since the incubator is enclosed, excessive humidity is difficult to reduce to the set value. The humidity regulator, set to the desired level, controls the exhaust fan to quickly remove excess humidity, maintaining the ideal humidity level for Cordyceps militaris growth. This automated and precise control, combined with intermittent ozone disinfection and precise control of light and humidity, ensures the safe and efficient growth of Cordyceps militaris fruiting bodies in the incubator for the turtles or tortoises. The turtle or tortoise containing the culture medium is placed on the culture rack in the incubator. This releases the Cordyceps militaris from its usual narrow culture containers such as bottles and boxes. In the spacious incubator, the Cordyceps militaris mycelium and fruiting bodies have sufficient oxygen supply and growth space. This effectively avoids the defects that occur during the cultivation and growth of Cordyceps militaris, such as poor ventilation and excessive carbon dioxide accumulation, which can lead to the inability of the stroma to differentiate normally and affect its growth and development. Attached Figure Description
[0024] Figure 1 This is a schematic diagram of the planar structure of the intelligent management device used to cultivate Cordyceps militaris using turtles and tortoises as parasites; Figure 2 This is a three-dimensional structural diagram of the intelligent management device used to cultivate Cordyceps militaris using turtles and tortoises as parasites; Figure 3 This is a structural diagram showing the box body and lid separated. Figure 4 This is a schematic diagram of the incubator structure; Figure 5 This is a structural diagram of the box. Figure 6 This is a schematic diagram of the box lid structure; Figure 7 This is a schematic diagram of the culture rack structure; Figure 8 This is a schematic diagram of the intelligent controller. The component names corresponding to the serial numbers in the diagram are: 1. Incubator; 2. Culture rack; 3. LED strip light; 4. Ozone generator; 5. Ultrasonic atomizing humidifier; 6. Exhaust fan; 7. Air filter; 8. Intelligent controller; 9. Chamber body; 10. Chamber lid; 11. Drain switch; 12. Ozone vent; 13. Ozone vent pipe; 14. Humidity probe port; 15. Air probe port; 16. Exhaust fan port; 17. Air filter port; 18. Column; 19. Mounting rack; 20. Humidity control instrument; 21. Time relay; 22. Time control switch; 23. Air humidity regulating instrument. Detailed Implementation
[0025] The technical solutions of the invention will be clearly and completely described below with reference to the embodiments. The described embodiments are only a part of the present utility model, and not all of the embodiments. Example
[0026] An intelligent management device for cultivating Cordyceps militaris using turtles and tortoises as parasites includes an incubation box 1, an ozone generator 4, and an intelligent controller 8. The incubation box 1 consists of a box body 9 and a box cover 10. The box body 9 is equipped with a humidity probe, an air probe, a cultivation rack 2, a light strip 3, and an ultrasonic atomizing humidifier 5. The ultrasonic atomizing humidifier 5 is placed at the bottom of the inner side of the box body 9. The ultrasonic atomizing humidifier 5 is a device that uses high-frequency oscillation, and the high-frequency vibration of the atomizing plate causes the water in the humidifier to be thrown off the water surface to produce drifting water mist, thereby achieving the purpose of air humidification. It can be purchased and installed commercially. It uses an atomizing vibrator to generate a high-frequency oscillation of 17,000 times / second when powered on, atomizing water into fine water particles of 1-5μm, thereby achieving the purpose of air humidification. An exhaust fan 6 and an air filter 7 are installed on the cover 10. The air filter 7 removes dust, solid impurities, and various bacteria from the air, ensuring sufficient clean air circulation. The ozone generator 4 is connected to the enclosure 9 via an ozone ventilation duct 13. The intelligent controller 8 is connected to the humidity probe, air probe, light strip 3, ozone generator 4, and ultrasonic atomizing humidifier 5 via wires. The intelligent controller 8 controls the operation of the light strip 3, ozone generator 4, and ultrasonic atomizing humidifier 5 according to a set program.
[0027] A drain switch 11 is provided at the bottom of the box 9. Several ozone ventilation holes 12 are respectively provided in the middle of the two side walls of the box 9. Ozone ventilation pipes 13 extend into the box 9 from the ozone ventilation holes 12. One set of ozone ventilation pipes 13 supplies oxygen to the space of the box 9. Another set of ozone ventilation pipes 13 supplies oxygen to the space of the box 9 and to the water layer at the bottom of the box 9.
[0028] The box 9 has a humidity probe hole 14 and an air probe hole 15 in the middle of its wall. The humidity probe and the air probe are installed in the humidity probe hole 14 and the air probe hole 15 respectively.
[0029] The cover 10 is provided with an exhaust fan hole 16 and several air filter holes 17; the exhaust fan 6 and the air filter 7 are installed in the exhaust fan hole 16 and several air filter holes 17 respectively.
[0030] The culture rack 2 consists of four uprights 18 and several layers of placement racks 19 for placing turtles or tortoises.
[0031] The light strip 3 is a PCB rigid light strip; the light strip 3 is installed on the inner walls of the housing 9.
[0032] The intelligent controller 8 is also connected to the exhaust fan 6 via wires. The intelligent controller 8 consists of a humidity control instrument 20, a time relay 21, a time control switch 22, and an air humidity regulating instrument 23. The humidity control instrument 20 is connected to and controls the humidity probe and the ultrasonic atomizing humidifier 5, controlling the operation of the ultrasonic atomizing humidifier 5. The air humidity regulating instrument 23 is connected to and controls the air probe. The time relay 21 is connected to and controls the light strip 3, controlling its on and off states. The time control switch 22 is connected to and controls the ozone generator 4, controlling its operation. The air humidity regulating instrument 23 is connected to and controls the exhaust fan 6, controlling its operation.
[0033] When using this intelligent management device for cultivating Cordyceps militaris using turtles and tortoises as parasites, first manually activate the timer switch 22 to run the ozone generator 4 and disinfect the interior of the cultivation chamber 1 for 20 minutes. After disinfection, place the turtle containing the culture medium into the turtle or tortoise placement rack 16 on the cultivation rack 2. Then, cultivate in the dark until the Cordyceps militaris mycelium completely covers the culture medium inside the turtle and eventually the entire turtle is covered with mycelium. The intelligent time relay 21 is then activated, according to the requirement of turning on the light strip 3 for 10 hours every 12 hours. The time relay 21 is set with corresponding parameters to automatically close or open every 12 hours, causing the light strip 3 to turn on for 10 hours and then automatically turn off, ensuring the turtle receives uniform and appropriate light until all the mycelium on the turtle's surface changes color. Two to three days after the mycelium changes color, scratch the mycelium to induce fruiting body germination. Pour clean water into the bottom of incubator 1 until the water level submerges the ultrasonic atomizing humidifier 5. Then, intelligently activate the timer switch 22. According to the requirement that the ozone generator 4 is turned on for 2 minutes every 24 hours and then automatically turned off, set the corresponding parameters on the timer switch 22. The timer switch 22 will automatically execute the on and off operation of the ozone generator 4, so that the ozone can scientifically and reasonably disinfect the clean water poured into the bottom of incubator 1.When the culture medium on the turtle's body begins to germinate fruiting bodies, the light strip 3 is turned on every 12 hours, requiring 12 hours on and 12 hours off per day. Corresponding parameters are set on the time relay 21 to effectively control the light strip 3 according to the set on and off durations. The humidity control instrument 20 is set to 80% to effectively control the ultrasonic atomizing humidifier 5, ensuring the humidity environment inside the incubator 1 meets the requirements. Ozone generation... The ozone generator 4 is required to be on for 2 minutes and off for 24 hours. The on / off time parameters are set on the timer switch 22, allowing it to effectively and reasonably control the ozone generator 4 according to these parameters, using ozone disinfection to maintain the cleanliness of the incubator 1 to meet requirements. The humidity control parameter of the air humidity regulator 23 is set to 85%, allowing it to effectively control the exhaust fan 6 according to this parameter. This function addresses the requirement that the air humidity inside the incubator 1 is controlled by the humidity controller 20 via ultrasound. The humidity level in the incubator 1 is achieved through the operation of the ultrasonic atomizing humidifier 5. When the ultrasonic atomizing humidifier 5, controlled by the humidity control instrument 20, is running, it brings the air humidity in the incubator 1 to the manually set value. Although the humidity control instrument 20 has stopped the ultrasonic atomizing humidifier, because the incubator 1 is enclosed and contains water at the bottom, the air humidity in the incubator 1 often continues to rise. For example, if the manually set air humidity is 80%, the air humidity in the incubator 1 may rise to 85% or higher and remain high for a long time. Once the incubator... Excessive humidity in the environment of the incubator 1 can also affect the normal growth of Cordyceps militaris. Therefore, it is very necessary to restore the humidity of the environment of the incubator 1 to the value set by the human as soon as possible. The air humidity regulating instrument 23 is used to control the operation of the exhaust fan 6, which removes the excessive humidity in the incubator 1. This brings the humidity environment inside the incubator 1 to an ideal value, which is more conducive to the growth of Cordyceps militaris and realizes automation and precise control. Through intermittent ozone disinfection and reasonable control of light and humidity, Cordyceps militaris fruiting bodies grow all over the turtle's body, resulting in a turtle Cordyceps militaris complex.
[0034] The above description is not intended to limit the present utility model, nor is the present utility model limited to the above examples. Any changes, modifications, additions or substitutions made by those skilled in the art within the scope of the present utility model should be protected by the present utility model.
Claims
1. An intelligent management device for cultivating Cordyceps militaris with turtles and soft-shelled turtles as parasitic bodies, characterized in that: The incubator (1), ozone generator (4), and intelligent controller (8) are included. The incubator (1) consists of a box body (9) and a box cover (10). The box body (9) is equipped with a humidity probe, an air probe, a culture rack (2), a light strip (3), and an ultrasonic atomizing humidifier (5). The box cover (10) is equipped with an exhaust fan (6) and an air filter (7). The ozone generator (4) is connected to the box body (9) through an ozone ventilation pipe (13). The intelligent controller (8) is connected to the humidity probe, the air probe, the light strip (3), the ozone generator (4), and the ultrasonic atomizing humidifier (5) through wires. 2.The intelligent management device for cultivating Cordyceps militaris with turtles and soft-shelled turtles as parasitic hosts according to claim 1, characterized in that: The intelligent controller (8) is also connected to the exhaust fan (6) via a wire. 3.The intelligent management device for cultivating Cordyceps militaris by using turtles and soft-shelled turtles as parasitic hosts according to claim 1, characterized in that: The bottom of the box (9) is provided with a drain switch (11).
4. The intelligent management device for cultivating Cordyceps militaris using turtles and terrapins as parasitic hosts according to claim 1, characterized in that: The two sides of the box (9) are provided with a number of ozone ventilation holes (12), and the ozone ventilation pipe (13) extends into the box (9) from the ozone ventilation holes (12).
5. The intelligent management device for cultivating Cordyceps militaris using turtles and terrapins as parasitic bodies according to claim 1, characterized in that: The box (9) has a humidity probe hole (14) and an air probe hole (15) in the middle of its wall. The humidity probe and the air probe are installed in the humidity probe hole (14) and the air probe hole (15) respectively. 6.The intelligent management device for cultivating Cordyceps militaris by using turtles and soft-shelled turtles as parasitic hosts according to claim 1, characterized in that: The cover (10) is provided with an exhaust fan hole (16) and several air filter holes (17); the exhaust fan (6) and the air filter (7) are installed in the exhaust fan hole (16) and several air filter holes (17) respectively.
7. The intelligent management device for cultivating Cordyceps militaris using turtles and terrapins as parasitic bodies according to claim 1, characterized in that: The culture rack (2) consists of four uprights (18) and several layers of mounting racks (19) for placing turtles or tortoises.
8. The intelligent management device for cultivating Cordyceps militaris using turtles and tortoises as parasites according to claim 1, characterized in that: The light strip (3) is a PCB rigid light strip; the light strip (3) is installed on the inner walls of the box (9) around the box.
9. The intelligent management device for cultivating Cordyceps militaris using turtles and tortoises as parasites, as described in claim 1, is characterized in that: The intelligent controller (8) consists of a humidity control instrument (20), a time relay (21), a time control switch (22), and an air humidity regulating instrument (23). The humidity control instrument (20) is connected to the humidity probe and the ultrasonic atomizing humidifier (5) for control, and the operation of the ultrasonic atomizing humidifier (5) is controlled by the humidity control instrument (20). The air humidity regulating instrument (23) is connected to the air probe for control. The time relay (21) is connected to the light strip (3) for control, and the light strip (3) is turned on and off by the time relay (21). The time control switch (22) is connected to the ozone generator (4) for control, and the ozone generator (4) is operated by the time control switch (22).
10. The intelligent management device for cultivating Cordyceps militaris using turtles and tortoises as parasites, as described in claim 9, is characterized in that: The air humidity regulating instrument (23) is connected to the exhaust fan (6) for control, and the air humidity regulating instrument (23) controls the operation of the exhaust fan (6).