WO2020166771A1

WO2020166771A1 - Remote control system for experimental device, and experimental device

Info

Publication number: WO2020166771A1
Application number: PCT/KR2019/009049
Authority: WO
Inventors: 장효철
Original assignee: 삼인싸이언스(주)
Priority date: 2019-02-13
Filing date: 2019-07-23
Publication date: 2020-08-20

Abstract

The present invention relates to a remote control system for an experimental device, and the experimental device, the remote control system managing remote control of each part of the experimental device in response to optimum environmental conditions necessary for the operation of the experimental device and maintaining the homeostasis of the experimental device by taking measurements more efficiently when an abnormal situation occurs in the experimental device. To this end, the remote control system for an experimental device remotely controls the experimental device that generates environmental information according to the operation of units on the basis of the environmental conditions necessary for the operation of the units and compares the environmental conditions with the environmental information to control the operation of the units. The remote control system comprises at least one of a portable terminal connected to the experimental device to be bidirectionally communicable by using a low-power Bluetooth communication method and a server unit including a relay server connected to the experimental device to be bidirectionally communicable by using an Internet communication method and a control server connected to the relay server to be bidirectionally communicable by using the Internet communication method, wherein at least one of the portable terminal and the control server receives the environmental information to display the environmental information on a display unit, and generates control information for control of the experimental device on the basis of the environmental information to transmit the control information to the experimental device.

Description

Remote control system and experiment equipment of experiment equipment

The present invention relates to a remote control system and an experimental apparatus of an experimental apparatus, and more specifically, to manage each part of the experimental apparatus to enable remote control in response to the optimum environmental conditions required for the operation of the experimental apparatus, and The present invention relates to a remote control system and an experimental device of an experimental device that can more effectively cope with the occurrence of an abnormal situation of the experiment and maintain homeostasis.

In general, reagents and pharmaceuticals are often relatively expensive and are sensitive to storage environments such as temperature and humidity, and exhibit a decrease in potency over time. In most cases, storage conditions and expiration dates are determined and effective. Reagent management in laboratories or laboratories is a very important issue, as reagents or drugs whose potency decreases or disappears over a period of time may not be obtained, leading to incorrect conclusions. Effective use in the laboratory is a very important factor in the management aspect of the laboratory or laboratory.

Conventionally, the storage and handling of such reagents or drugs rely on simple memory of various types of reagents stored in various reagent rooms in a laboratory or laboratory, or must be searched by visually checking each reagent label, and when returning or exporting reagents. It was common to record in the management ledger by hand in a cumbersome and laborious manner, and even in the case of recording such management records on a computer, there was only a difference in whether the recording medium was paper or computer memory, but it was cumbersome and laborious.

In addition, interest in Bluetooth technology, which is a short-range wireless communication technology standard for implementing two-way short-range communication between communication devices at low cost and with low energy, is increasing.

A Bluetooth communication technology is deviating from the issue of transmitting and receiving large-capacity data, and a low-energy Bluetooth communication technology capable of rapidly transmitting and receiving data of a small capacity and using low power consumption has been proposed.

Such low-power Bluetooth communication technology is used in various fields such as mobile computers, mobile phones, headsets, PDAs, tablet PCs, printers, as well as healthy care, medical devices, and sensors 30 for monitoring.

Conventional low-power Bluetooth technology transmits and receives data through a 1:1 connection by interconnecting a master terminal serving as a master and a slave terminal.

However, in the conventional technology as described above, in order for the master terminal to transmit a control command to the slave terminal, the master terminal must be connected 1:1 with the slave terminal, so that one master terminal controls only one slave terminal. Therefore, it is difficult for one master terminal to easily control a plurality of slave terminals.

An object of the present invention is to manage the remote control of each part of the experimental apparatus in response to the optimum environmental conditions required for the operation of the experimental apparatus, and to more effectively cope with abnormal conditions of the experimental apparatus to maintain homeostasis. It is to provide a remote control system and experimental device for the experimental device to be used.

According to a preferred embodiment for achieving the object of the present invention described above, the experimental apparatus according to the present invention includes an experiment space in which an experiment is performed, a door for opening and closing an opening of the experiment space, and the door can slide in a vertical direction. A chamber unit including a support column supported so as to be supported; A driving unit that slides the door in the vertical direction on the support pillar; An exhaust unit exhausting the air in the experiment space; A control sensing unit including a position sensor for sensing an opening height of the door in response to the vertical movement of the door, and a wind speed sensor for sensing an inflow wind speed from an opening of the experiment space or an exhaust wind speed from the exhaust unit; And a control unit that controls the amount of air exhausted in the experiment space exhausted from the exhaust unit according to the opening area of the opening of the experiment space based on the detected value of the control sensing unit.

Here, the control unit controls the exhaust unit to increase at least one of an opening area of the opening of the experiment space and an airflow amount of the experiment space, thereby increasing the amount of air exhausted in the experiment space exhausted from the exhaust unit, and The exhaust unit is controlled so that at least one of the opening area of the opening of the experiment space and the amount of air blown in the experiment space decreases, thereby reducing the amount of air exhausted from the experiment space that is exhausted from the exhaust unit.

Here, the exhaust unit includes an exhaust duct provided in the chamber unit to receive the air in the experiment space and having an exhaust port through which the air in the experiment space is exhausted, and the exhaust port to adjust the opening of the exhaust port. An opening degree control unit including a damper rotatably coupled to the control unit and an actuator that rotates the damper in response to the amount of air exhausted in the experiment space controlled by the control unit; And an exhaust fan that sucks air from the exhaust port to adjust the amount of air blown from the exhaust port, and an inverter that controls an output of the exhaust fan. It further includes at least any one of.

The experimental apparatus according to the present invention further includes a fire extinguishing unit for extinguishing a fire in the experiment space, wherein the control sensing unit further includes a fire detection sensor for detecting a fire in the experiment space, and the control unit , When the fire detection sensor detects a fire in the experiment space, an alarm sounds to cope with an abnormal situation.

The experimental apparatus according to the present invention further includes a fall prevention unit for stopping the door in response to the free fall of the door due to the break of the wire coupled to the door.

Here, the fall prevention unit includes: compression members coupled to both sides of the door; A body member coupled to the driving unit, the compression member being slidably coupled to each other; A stopper rotatably coupled to the body member and supported by the support pillar in response to the slide movement of the compression member; And an elastic member for elastically supporting the compression member in an up-down direction with respect to the body member, wherein when the compression member is supported by the body member by its own weight of the door, the elastic member is compressed and the support pillar And the support of the stopper is released, and when the force supported by the compression member to the body member is released, the stopper unit increases as the compression member rises by the elastic member relative to the body member. It is rotated so that it is caught and supported.

The remote control system of the experimental apparatus according to the present invention generates environmental information according to the operation of the units based on the environmental conditions required for the operation of the units, and controls the operation of the units by comparing the environmental conditions with the environmental information. A mobile terminal that is a remote control system of the experimental apparatus for remotely controlling the experimental apparatus, and is connected to the experimental apparatus in a bidirectional communication manner using a low-power Bluetooth communication method; And a relay server connected to enable bidirectional communication using the experimental apparatus and an internet communication method, and a control server connected to enable bidirectional communication using the relay server and an internet communication method. And at least one of the mobile terminal and the control server receives the environmental information and displays the environmental information on the display unit, and provides control information for controlling the experimental apparatus based on the environmental information. It is generated and transmitted to the experimental device.

Here, the portable terminal is connected to enable bidirectional communication using the relay server and an Internet communication method.

Here, the portable terminal and the control server, respectively, in response to environmental information based on one experimental device, when the environmental information stored in the portable terminal and the environmental information stored in the control server overlap, the latest environmental information If the control information generated by the mobile terminal and the control information generated by the control server are overlapped in response to the control information based on one experimental device, the latest environmental information It is updated and stored as control information, and the control server collects and manages the latest environmental information and the latest control information based on one experimental device.

According to the remote control system and the experimental apparatus of the experimental apparatus according to the present invention, it is managed to enable remote control of each part of the experimental apparatus in response to the optimum environmental conditions required for the operation of the experimental apparatus, and an abnormal situation of the experimental apparatus occurs. The experimental device can maintain homeostasis by coping more effectively with time.

In addition, the present invention is grouped by each experimental device, each laboratory in which one or more experimental devices are arranged, and each laboratory in which one or more laboratory is provided through the server construction, so that environmental information and control information can be collected and managed in a group unit.

In addition, the experimental apparatus of the present invention enables direct communication with the portable terminal using Bluetooth or the Internet communication with the portable terminal using a relay server, and the convenience of remote control even in an experimental apparatus or laboratory equipped with an experimental apparatus that cannot communicate with the Internet. Can be improved.

In addition, the present invention simplifies the remote control of the experiment apparatus using a portable terminal, facilitates the operation of the experiment apparatus, and increases the experiment effect, while preventing safety accidents of the experimenter.

In addition, the present invention facilitates the operation of the experiment device by effectively controlling the opening and closing range of the door, and it is possible to promptly notify the experimenter or the administrator when the door is abnormally opened or closed, so that problems of the experiment device can be quickly coped with.

In addition, the present invention can easily adjust the amount of air exhausted in the experiment space through the detailed configuration of the exhaust unit.

In addition, the present invention warns an administrator of a fire caused by a reaction of chemical substances or an experimenter's mistake during an experiment through the operation of the fire extinguishing unit, while stably suppressing the fire in the experiment space.

In addition, the present invention can urgently stop the door in the chamber unit in response to the free fall of the door due to the break of the wire, and can prevent the experimenter's safety accident and damage to the door due to the fall of the door, and the opening in the experiment space Through this, harmful gases can be prevented from being released.

1 is a diagram showing a remote control system according to an embodiment of the present invention.

2 is a rear perspective view showing an experimental apparatus in a remote control system according to an embodiment of the present invention.

3 is a front view showing an experimental apparatus in the remote control system according to an embodiment of the present invention.

4 is a bottom perspective view showing a ceiling state of an experiment space in an experiment apparatus according to an embodiment of the present invention.

5 is a perspective view showing a fall prevention unit in the experimental apparatus according to an embodiment of the present invention.

6 and 7 are views showing the initial state of the fall prevention unit in the experimental apparatus according to an embodiment of the present invention.

8 and 9 are views showing the operating state of the fall prevention unit in the experimental apparatus according to an embodiment of the present invention.

Hereinafter, an embodiment of the remote control system and the experimental apparatus of the experimental apparatus according to the present invention will be described with reference to the accompanying drawings. At this time, the present invention is not limited or limited by the examples. In addition, in describing the present invention, detailed descriptions of known functions or configurations may be omitted to clarify the gist of the present invention.

1 to 9, the remote control system according to an embodiment of the present invention remotely controls the experimental apparatus 100.

Here, the experiment apparatus 100 includes an experiment apparatus according to an embodiment of the present invention.

The remote control system of the experimental apparatus according to an embodiment of the present invention may further include at least one of a portable terminal 310 and a server unit. Here, the server unit may include a relay server 200 and a control server 400. The remote control system according to an embodiment of the present invention may further include a manager terminal 320.

The experimental apparatus 100 according to an embodiment of the present invention generates environmental information according to the operation of the units based on the environmental conditions required for the operation of the units, and controls the operation of the units by comparing the environmental conditions and the environmental information. , A chamber unit 10, a driving unit 20, an exhaust unit 30, a control sensing unit, and a control unit 50. The experimental apparatus according to an embodiment of the present invention may further include at least one of a fire extinguishing unit and a fall prevention unit 70.

The chamber unit 10 forms the exterior of the experimental apparatus 100.

The chamber unit 10 includes an experiment space 11 in which an experiment is performed, a door 12 that opens and closes an opening of the experiment space 11, and a support column 123 that is supported so that the door 12 is slidably movable in the vertical direction. ) Can be included. The chamber unit 10 may further include an auxiliary column spaced apart from the support column 123 and supported outside the experiment space 11.

A door guide that forms a slide movement path of the door 12 may be provided on the support pillar 123, and a door frame 121 may be provided on both sides of the door 12 so as to be fitted to the door guide and slidably. . At this time, between the door 12 and the door frame 121, the body member 73 of the fall prevention unit 70, which will be described later, may be supported to be slidably moved in the vertical direction.

The driving unit 20 slides the door 12 in the vertical direction from the support column 123.

The drive unit 20 includes a drive motor 21 that generates a driving force for slide movement of the door 12, a drive shaft 23 that is rotated forward and backward by the driving force of the drive motor 21, and the door 12 or to be described later. It may include a wire 24 that is coupled to the fall prevention unit 70 and is wound or unwound according to the rotation of the drive shaft 23. The drive unit 20 further includes a belt 22 for transmitting the driving force to the drive shaft 23, and the drive shaft 23 is rotated by the belt 22.

Then, when the drive motor 21 is directly operated under the control of the control unit 50, the door 12 is raised while the wire 24 is wound around the drive shaft 23 to open the opening of the experiment space 11 . In addition, when the driving motor 21 is reversely operated under the control of the control unit 50, the door 12 is lowered while the wire 24 is released from the drive shaft 23 to close the opening of the experiment space 11. I can.

The exhaust unit 30 exhausts the air in the experiment space 11. Noxious gas may be included in the air in the experiment space 11.

The exhaust unit 30 is provided in the chamber unit 10 and includes an exhaust duct 31 provided with an exhaust port 32 through which air in the experiment space 11 is accommodated, and air in the experiment space 11 is exhausted, It may further include at least one of the opening degree control unit and the flow control unit.

The opening degree control unit includes a damper 33 rotatably coupled to the exhaust port 32 for adjusting the opening degree of the exhaust port 32, and rotating the damper 33 in response to the amount of air exhaust controlled by the control unit 50. An actuator 35 may be included.

The flow rate control unit may include an exhaust fan (not shown) that sucks air from the exhaust port 32 to control the amount of air blown from the exhaust port 32 and an inverter 36 that adjusts the output of the exhaust fan 32. Here, the exhaust fan (not shown) may generate a suction force for exhausting air from the experiment space 11 from the exhaust port 32 according to the control information transmitted from the control unit 50. In addition, the inverter 36 may adjust the output of the exhaust fan (not shown) according to control information transmitted from the control unit 50.

Then, according to the control of the control unit 50, the rotation amount of the damper 33 is adjusted or the output of the exhaust fan (not shown) is adjusted, so that the exhaust unit 30 corresponds to the adjusted air exhaust amount, and the experiment space 11 It can stably exhaust the air.

The control sensing unit detects the state of the experimental apparatus 100 in the chamber unit 10.

The state of the experiment device 100 is the opening and closing state of the opening of the experiment space 11, the exhaust state of the experiment space 11, the state of the experiment space 11, the state of the driving unit 20, and the exhaust unit 30. You can detect the status, etc.

Then, the detection value of the control sensing unit is used in the control unit 50 for environmental information.

The control sensing unit includes a position sensor 41 that detects the opening height of the door 12 in response to the vertical movement of the door 12, and the inflow wind speed at the opening of the experiment space 11 or the exhaust unit 30. It may include a wind speed sensor 42 for sensing the exhaust wind speed.

The control sensing unit includes a fire detection sensor 43 that detects a fire in the experiment space, a proximity sensor 44 that detects the motion of the experimenter, and an object detection sensor that detects whether an object enters the opening of the experiment space 11 ( 45) and at least one of a temperature and humidity sensor 46 for sensing the temperature and humidity of the experiment space 11 may be further included.

The control unit 50 controls the operation of the experimental apparatus 100 based on the detected value of the control sensing unit. The control unit 50 may generate environmental information on the experimental device 100 based on the detected value of the control sensing unit and transmit it to the portable terminal 310 and the relay server 200. The control unit 50 may control the operation of the experimental apparatus 100 using control information transmitted from the portable terminal 310 or the relay server 200.

The control unit 50 may control the drive unit 20 and the exhaust unit 30, further control the fire extinguishing unit, and control the operation of other experimental devices.

The control unit 50 may include a control panel 52 that displays a detected value of the control sensing unit, and a control box 51 that controls the operation of the experimental device 100 based on the detected value of the control sensing unit. have. Here, the control panel 52 may be provided with a communication module for external Bluetooth communication or Internet communication.

First, the control unit 50 is based on the detection value of the position sensor 41 and the wind speed sensor 42 among the detection values of the control sensing unit, according to the opening area of the opening of the experiment space 11. It is possible to control the amount of air exhausted in the experiment space 11 exhausted from 30).

Then, on the control panel 52, a detection value of the position sensor 41, a detection value of the wind speed sensor 42, and a preset surface speed may be displayed. And, the control box 51 calculates the surface speed of the opening of the experiment space 11 based on the detected value of the position sensor and the detected value of the wind speed sensor 42, and a preset surface speed range (control panel 52) Alternatively, the experimental space 11 exhausted from the exhaust unit 30 according to the opening area of the opening of the experiment space 11 to be included in the mobile terminal 310 or the control server 400). The amount of air exhaust can be controlled. The control state in the control box 51 is transmitted to the portable terminal 310 and the relay server 200 through the control panel 52.

The control unit 50 may control the exhaust unit 30 to increase at least one of an opening area of the opening of the experiment space 11 and an airflow amount of the experiment space 11. Then, the amount of air exhausted in the experiment space 11 exhausted from the exhaust unit 30 can be increased. In addition, the control unit 50 may control the exhaust unit 30 such that at least one of the opening area of the opening of the experiment space 11 and the amount of air blown in the experiment space 11 decreases. Then, the amount of air exhausted in the experiment space 11 exhausted from the exhaust unit 30 can be reduced. Accordingly, it is possible to easily adjust the preset surface speed range.

For example, when the driving unit 20 is directly operated by the control unit 50 while the experiment space 11 is closed to open the experiment space 11, the control unit 50 outputs the exhaust fan. It is possible to increase or control the exhaust unit 30 so that the damper 33 opens the exhaust port 32. In addition, when the driving unit 20 is reversely operated by the control unit 50 while the test space 11 is open to close the test space 11, the control unit 50 reduces the output of the exhaust fan. Alternatively, the exhaust unit 30 may be controlled so that the damper 33 closes the exhaust port 32.

In addition, when the experiment space 11 is completely opened by the direct action of the driving unit 20 and the opening area of the opening of the experiment space 11 is the maximum, the control unit 50 is configured to maximize the output of the exhaust fan. By controlling the operation of the exhaust fan or by controlling the operation of the actuator 35 so that the exhaust port 32 is opened to the maximum, the amount of air exhausted in the experiment space 11 exhausted from the exhaust unit 30 can be maximally controlled.

In addition, when the experiment space 11 is closed by the reverse operation of the driving unit 20 to minimize the opening area of the opening of the experiment space 11, the control unit 50 is an exhaust fan so that the output of the exhaust fan is minimized. The amount of air exhausted from the experiment space 11 exhausted from the exhaust unit 30 can be controlled to a minimum by controlling the operation of the actuator 35 or controlling the operation of the actuator 35 so that the exhaust port 32 is opened to the minimum.

As another example, the control unit 50 controls the operation of the exhaust fan using the inverter 36 without adjusting the exhaust port 32 using the damper 33 while the experiment space 11 is open. It is possible to adjust the amount of air exhausted in the experiment space 11 exhausted from 30).

Second, the control unit 50 may control the supply of the fire extinguishing agent based on the detection value of the fire detection sensor 43 among the detection values of the control sensing unit.

The fire extinguishing unit extinguishes the fire in the experiment space (11). The fire extinguishing unit may include a fire extinguishing device that supplies a fire extinguishing agent to the experiment space. The fire extinguishing unit may be provided with a fire extinguishing unit 61 for spraying a fire extinguishing agent into the experiment space 11.

Then, the detection value of the fire detection sensor 43 may be displayed on the control panel 52. In addition, the control box 51 may determine whether a fire has occurred based on the detected value of the fire detection sensor 43, and when a fire occurs in the experiment space 11, an alarm may sound to take action according to an abnormal situation. . In addition, the control box 51 may control the supply of the extinguishing agent by controlling the operation of the extinguishing unit so that the extinguishing agent is supplied to the experiment space 11. The control state in the control box 51 is transmitted to the portable terminal 310 and the relay server 200 through the control panel 52.

In addition, in addition to self-extinguishing, it is possible to prevent the fire from spreading through the exhaust port 32 by using the damper 33 to block the spread of the fire and the inverter 36 to stop. This is because the exhaust port 32 serves as a fuse through which a fire spreads rapidly because dust or test materials are adsorbed according to long-term use.

Third, the control unit 50 may control the opening and closing of the experiment space 11 based on the detection value of the proximity sensor 44 among the detection values of the control sensing unit.

Then, the detection value of the proximity sensor 44 may be displayed on the control panel 52. In addition, the control box 51 determines the presence or absence of an experimenter around the experiment apparatus based on the detected value of the proximity sensor 44, and the experimenter determines a preset distance from the chamber unit 10 (control panel 52 or mobile terminal ( 310) or control server 400), or when the experimenter is away from the experiment apparatus 100 for a long time, or when the experimenter is not around the experiment apparatus 100, the operation of the driving unit 20 is controlled so that the experiment space 11 is closed. can do. The control state in the control box 51 is transmitted to the portable terminal 310 and the relay server 200 through the control panel 52.

Fourth, the control unit 50 may control the slide movement of the door 12 based on the detection value of the object detection sensor 45 among the detection values of the control sensing unit.

Then, the detection value of the object detection sensor 45 may be displayed on the control panel 52. In addition, the control box 51 detects the entry or exit of the object from the opening of the experiment space 11 when the door 12 slides during the operation of the experiment device 100 based on the detected value of the object detection sensor 45. If so, the operation of the driving unit 20 may be controlled to generate an alarm or to stop the door 12. The control state in the control box 51 is transmitted to the portable terminal 310 and the relay server 200 through the control panel 52.

Fifth, the control unit 50 may control the condition of the experiment space 11 based on the detection value of the temperature and humidity sensor 46 among the detection values of the control sensing unit.

Then, the detected value of the temperature and humidity sensor 46 may be displayed on the control panel 52. And the control box 51 determines the temperature and humidity state of the experiment space 11 based on the detected value of the temperature and humidity sensor 46, and the temperature and humidity state of the experiment space 11 is a preset temperature and humidity state (control panel 52 or In case of deviating from the mobile terminal 310 or the control server 400), the condition of the experiment space 11 can be controlled by generating an alarm or controlling the operation of a separate temperature and humidity control module. have. The control state in the control box 51 is transmitted to the portable terminal 310 and the relay server 200 through the control panel 52.

The fall prevention unit 70 stops the door 12 in the chamber unit 10 in response to the free fall of the door 12 due to the break of the wire 24 coupled to the door 12.

The fall prevention unit 70 includes a compression member 71 coupled to both sides of the door 12, and a body member 73 coupled to the drive unit 20 so that the compression member 71 slides in the vertical direction. ), and a stopper (75) rotatably coupled to the body member (73) from the upper side of the compression member (71) and supported by the support column (123) in response to the slide movement of the compression member (71), the body member It may include an elastic member 77 for elastically supporting the compression member 71 in the vertical direction based on (73).

A limit switch 72 is provided on the upper part of the compression member 71 to detect the rotational state of the stopper 75. When the stopper 75 is not rotated, the limit switch 72 indicates an "off" state, and when the stopper 75 is rotated, the limit switch 72 between the rotation shaft of the stopper 75 and the compression member 71 is It can be pressed to indicate "on".

Then, the "on" state of the limit switch 72 may be displayed on the control panel 52. And the control box 51 determines that the door 12 has been stopped urgently based on the "on" state of the limit switch 72, and generates an alarm or drives when the limit switch 72 is in the "on" state. By controlling the operation of the unit 20 and the exhaust unit 30, it is possible to maintain air exhaustion in the experiment space 11. The control state in the control box 51 is transmitted to the portable terminal 310 and the relay server 200 through the control panel 52.

The compression member 71 may have an elevating protrusion 711 protruding toward the body member 73.

The body member 73 has an elongated hole 731 formed in the vertical direction corresponding to the compression member 71. Then, the elevating protrusion 711 is fitted into the long hole 731 so as to be slidably moved in the vertical direction in response to the relative motion between the body member 73 and the compression member 71.

A wire connection part 74 to which a wire 24 provided in the driving unit 20 is coupled may be provided at an upper portion of the body member 73.

The stopper 75 may include a rotation shaft portion rotatably coupled to the body member 73, and a locking portion extending from the rotation shaft portion so as to be engaged with the support pillar 123 by rotation of the rotation shaft portion. The locking portion may be formed bent from the rotating shaft portion, and a locking protrusion 76 is provided at an end of the locking portion, so that the locking portion and the support pillar 123 can be clearly supported.

The elastic member 77 may elastically press the lower portion of the compression member 71 based on the body member 73. The elastic member 77 is compressed by the weight of the door 12 and is inserted and supported between the lower portion of the body member 73 and the lower portion of the compression member 71.

Eventually, in a state in which the compression member 71 in the fall prevention unit 70 is supported by the body member 73 by the weight of the door 12, the elastic member 77 is compressed, so that the stopper 75 is in an initial state. And the support column 123 and the stopper 75 are released. In addition, in the fall prevention unit 70, the force supported by the compression member 71 on the body member 73 is released (breaking of the wire 24, the descent of the body member 73 is faster than the descent of the door 12). If the case), as the compression member 71 rises by the elastic member 77 on the basis of the body member 73, the stopper 75 is rotated to be caught and supported by the support column 123, so that the support column 123 The door 12 can be stopped in an emergency.

The portable terminal 310 is connected to the experimental apparatus 100 to enable bidirectional communication using a low-power Bluetooth communication method to control the experimental apparatus 100. At this time, the experimental apparatus 100 may be connected to one or two or more based on one portable terminal 310.

Then, the portable terminal 310 receives the environmental information and displays the environmental information, while generating control information for controlling the experimental apparatus 100 based on the environmental information and transmitting it to the control unit. The control information includes a preset value of the chamber unit 10, operation information of the chamber unit 10, a preset value of the drive unit 20, operation information of the drive unit 20, and preset value of the exhaust unit 30. , Operation information of the exhaust unit 30, preset values of the control sensing unit, operation information of the control sensing unit, preset values of the control unit 50, operation information of the control unit 50, preset values of the fire extinguishing unit , At least one of operation information of the fire extinguishing unit, a preset value of the fall prevention unit 70, and operation information of the fall prevention unit 70 may be included.

The portable terminal 310 is connected not only to the experimental apparatus 100 but also to a separate driving unit of a laboratory equipped with the experimental apparatus 100 to control a separate driving unit. In this case, the control information may further include at least one of reagent information, a preset value of a separate driving unit, and operation information of a separate driving unit.

The portable terminal 310 may include various well-known terminals such as a smart pad, a tablet, and a smart phone. One or two or more of the portable terminals 310 may be connected based on one experimental device 100. The portable terminal 310 may provide priority setting and sequential command execution for the concurrent event.

An experimenter or an administrator may input control information to the mobile terminal 310.

The relay server 200 is connected to the experimental apparatus 100 and the portable terminal 310 to enable two-way communication using an Internet communication method (wifi, 3G, LTE, 5G, etc.). The relay server 200 may store environment information and control information according to two-way communication, and distribute transmitted/received information by verifying data on a control board.

The relay server 200 may communicate with the control server 400 and may perform a system monitoring function such as a system load check. For example, if the detected value of the fire detection sensor 43 in the environmental information transmitted from the experiment device 100 is a value that detects a fire in the experiment space 11, the relay server 200 is the mobile terminal 310 and the manager By transmitting the fire occurrence information to the terminal 320, the experimenter and the manager can check the warning message about the fire occurrence and induce a quick response.

Here, the manager terminal 320 is connected to the relay server 200 and has the same or similar configuration as the portable terminal 310, and a description thereof will be omitted.

The control server 400 is connected to enable bidirectional communication using the relay server 200 and an internet communication method (wifi, 3G, LTE, 5G, etc.).

The control server 400 receives the environmental information and displays the environmental information, while generating control information for controlling the experimental apparatus 100 based on the environmental information, and the control server 400 communicates with the experimental apparatus 100 through the relay server 200. It can be transmitted to the mobile terminal 310.

The control server 400 may collect and manage environmental information and control information corresponding to the corresponding experimental device 100. The control server 400 may perform a management status check function, an information processing function, an information inquiry function, an information statistics function, and the like of the experimental apparatus 100.

At this time, the portable terminal 310 and the control server 400 may update and store the latest environmental information and the latest control information, respectively.

When the environmental information stored in the portable terminal 310 and the environmental information stored in the control server 400 are duplicated in correspondence with the environmental information based on one experimental device 100, the portable terminal 310 and the control server 400 ) Can be updated and saved with the latest environmental information.

When the control information generated by the mobile terminal 310 and the control information generated by the control server 400 are overlapped in response to the control information based on one experimental device 100, the mobile terminal 310 and the control server Each 400 may update and store the latest control information corresponding to the latest environmental information.

Further, the control server 400 collects and manages the latest environmental information and the latest control information based on one experimental device 100.

By performing remote control and monitoring in this way, stable interworking with other systems is possible. Although the remote control system according to an embodiment of the present invention can be independently operated, a relay function capable of mutual linkage can be provided between two different remote control systems through an authorized access.

For example, in the case of the fume hood type experiment apparatus 100, it is possible to link with air conditioning or control.

In the case of connection with air conditioning, when the product is operated under an air conditioning system other than a single model using the inverter 35, the part that is difficult to maintain high system efficiency with only the damper 33 can be interlocked through a relay function to improve efficiency. I can do it. In other words, in the case of linkage with air conditioning, more than necessary exhaust in the experiment apparatus 100 may be limited or the amount of exhaust may be adjusted.

In the case of linkage with the control, propagation and restrictions on the use of the experimental apparatus 100 or the laboratory in which the experimental apparatus 100 is installed are possible.

According to the above-described remote control system of the experimental apparatus and the experimental apparatus, it is managed to enable remote control of each part of the experimental apparatus 100 in response to the optimum environmental conditions required for the operation of the experimental apparatus 100, and the experimental apparatus In the event of an abnormal situation of (100), the experimental apparatus can maintain homeostasis by more effectively coping with it.

In addition, through the server construction, it is possible to collect and manage environmental information and control information in a group unit by grouping each experimental apparatus, each laboratory in which one or more experimental apparatuses 100 are disposed, and each laboratory in which one or more laboratory is provided.

In addition, the experimental apparatus 100 can directly communicate with the portable terminal 310 using Bluetooth or communicate with the portable terminal 310 using the relay server 200, and the experimental apparatus 100 in which Internet communication is not possible. Alternatively, the convenience of remote control may be improved even in a laboratory in which the experimental apparatus 100 is installed.

In addition, by using the portable terminal 310, remote control of the experimental apparatus 100 is simplified, operation of the experimental apparatus 100 is facilitated, and safety accidents of the experimenter can be prevented while increasing the experimental effect.

In addition, by effectively controlling the opening and closing range of the door 12, the operation of the experimental apparatus 100 is facilitated, and when an abnormal opening and closing operation of the door 12 is performed, an immediate notification to the experimenter or administrator is possible, so the problem of the experiment apparatus 100 You can solve it quickly.

In addition, in response to the amount of opening and closing of the experiment apparatus 100, the exhaust of the experiment space 11 is smoothly performed, and an abnormal opening and closing operation of the experiment apparatus 100 can be immediately handled remotely.

In addition, it is possible to easily adjust the amount of air exhausted in the experiment space 11 through the detailed configuration of the exhaust unit 30.

In addition, through the operation of the fire extinguishing unit, it is possible to stably extinguish the fire in the experiment space 11 while warning the manager of a fire caused by a reaction of chemical substances or an experimenter's mistake during the experiment.

In addition, in response to a malfunction of the drive unit 20 or a free fall of the door 12, the door 12 can be emergencyly stopped in the chamber unit 10, and the experimenter's safety accident due to the fall of the door 12 and Damage of the door 12 can be prevented, and harmful gas can be prevented from being released through the opening in the experiment space 11.

As described above, preferred embodiments of the present invention have been described with reference to the drawings, but those skilled in the art will variously modify the present invention within the scope not departing from the spirit and scope of the present invention described in the following claims. Can be modified or changed.

Claims

A chamber unit including an experiment space in which an experiment is performed, a door for opening and closing an opening of the experiment space, and a support column supporting the door to be slidably moved in an up-down direction;

A driving unit that slides the door in the vertical direction on the support pillar;

An exhaust unit exhausting the air in the experiment space;

A control sensing unit including a position sensor for detecting an opening height of the door in response to the vertical movement of the door, and a wind speed sensor for detecting an inflow wind speed from an opening of the experiment space or an exhaust wind speed from the exhaust unit; And

And a control unit for controlling the amount of air exhausted in the experiment space exhausted from the exhaust unit according to the opening area of the opening of the experiment space based on the detected value of the control sensing unit.
The method of claim 1,

The control unit,

Controlling the exhaust unit to increase at least one of the opening area of the opening of the experiment space and the amount of air blown in the experiment space increases the amount of air exhausted in the experiment space exhausted from the exhaust unit,

An experimental apparatus, characterized in that, by controlling the exhaust unit to reduce at least one of an opening area of the opening of the experiment space and an airflow amount of the experiment space, thereby reducing the amount of air exhausted from the experiment space exhausted from the exhaust unit.
The method of claim 1,

The exhaust unit,

An exhaust duct provided in the chamber unit to receive the air in the experiment space and having an exhaust port through which the air in the experiment space is exhausted; and

An opening degree control unit including a damper rotatably coupled to the exhaust port for adjusting the opening degree of the exhaust port, and an actuator that rotates the damper in response to the amount of air exhausted in the experiment space controlled by the control unit; And

A flow rate control unit including an exhaust fan that sucks air from the exhaust port to control the amount of air blown from the exhaust port, and an inverter that adjusts the output of the exhaust fan;

Experimental apparatus, characterized in that it further comprises at least any one of.
The method of claim 1,

Further comprising; a fire extinguishing unit for extinguishing the fire in the experiment space,

The control sensing unit further includes a fire detection sensor for detecting a fire in the experiment space,

The control unit, when the fire detection sensor detects a fire in the experiment space, the experiment apparatus, characterized in that to sound an alarm to cope with an abnormal situation.
The method according to any one of claims 1 to 4,

And a fall prevention unit for stopping the door in response to a free fall of the door due to a break of the wire coupled to the door.
The method of claim 5,

The fall prevention unit,

Compression members coupled to both sides of the door;

A body member coupled to the driving unit, the compression member being slidably coupled to each other;

A stopper rotatably coupled to the body member and supported by the support pillar in response to the slide movement of the compression member; And

Including; an elastic member for elastically supporting the compression member in the vertical direction based on the body member,

When the compression member is supported by the body member by its own weight of the door, the elastic member is compressed to release the locking support of the support pillar and the stopper,

When the force supported by the compression member to the body member is released, the stopper unit is rotated so as to be supported by the support pillar as the compression member is raised by the elastic member relative to the body member. Experimental device.
Remote control of an experimental device that generates environmental information according to the operation of the units based on the environmental conditions required for the operation of the units, and remotely controls the experimental device that controls the operation of the units by comparing the environmental conditions and the environmental information System,

A portable terminal connected to the experimental device and capable of bi-directional communication using a low-power Bluetooth communication method; And

A server unit including a relay server connected to enable bidirectional communication using the experimental apparatus and an internet communication method, and a control server connected to enable bidirectional communication using the relay server and an internet communication method; Including at least any one of,

At least one of the portable terminal and the control server receives the environmental information and displays it on the display, while generating control information for controlling the experimental apparatus based on the environmental information and transmitting it to the experimental apparatus. A remote control system for an experimental device, characterized in that.
The method of claim 7,

The mobile terminal is a remote control system of the experimental apparatus, characterized in that the connection to enable bidirectional communication using the relay server and an Internet communication method.
The method according to claim 7 or 8,

The mobile terminal and the control server, respectively,

When the environmental information stored in the mobile terminal and the environmental information stored in the control server are duplicated in response to environmental information based on one experimental device, the latest environmental information is updated and stored,

When the control information generated by the mobile terminal and the control information generated by the control server are duplicated in response to control information based on one experimental device, the latest control information is updated and stored in response to the latest environmental information. And

The control server, the remote control system of the experimental device, characterized in that collecting and managing the latest environmental information and the latest control information based on one experimental device.