CN214589718U - Wire outlet terminal and inflatable cabinet with same - Google Patents
Wire outlet terminal and inflatable cabinet with same Download PDFInfo
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- CN214589718U CN214589718U CN202023345073.4U CN202023345073U CN214589718U CN 214589718 U CN214589718 U CN 214589718U CN 202023345073 U CN202023345073 U CN 202023345073U CN 214589718 U CN214589718 U CN 214589718U
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- outlet terminal
- mutual inductance
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Abstract
The application provides a wire outlet terminal and an inflation cabinet with the same, wherein the wire outlet terminal comprises a conductor, an insulator, a temperature sensor packaged in the insulator, a signal transmitter and a mutual inductance power supply device; the sensing part of the temperature sensor is in temperature sensing contact with the electric conductor and is electrically connected with the signal transmitter, and the mutual inductance power supply device is sleeved outside the electric conductor and is electrically connected with the signal transmitter so as to supply power to the signal transmitter. The scheme contacts the sensing part of the temperature sensor with the conductor, and accurately detects the temperature of the conductor. The mutual inductance power supply device supplies power to the signal transmitter, the signal transmitter transmits temperature data in a wireless mode, connection with a low-voltage circuit can be avoided, and the problem of electrical breakdown does not exist.
Description
Technical Field
The application relates to the technical field of power distribution, and more particularly relates to an outlet terminal of an inflation cabinet and an inflation cabinet with the outlet terminal.
Background
In the technical field of power distribution, electric energy is output to the gas charging cabinet after being subjected to voltage reduction through a high-voltage transformer substation, and then is further subjected to voltage reduction and is transmitted to a user.
The air charging cabinet belongs to secondary distribution electric equipment, and a wire outlet terminal is used as an output interface of the air charging cabinet and is usually connected with a cable by means of a cable shoe. The part of the outgoing line terminal connected with the cable shoe is easy to generate high temperature due to poor contact, the connection part is overheated for a long time to cause insulation breakdown, and the tab causes large-area power failure accidents.
Therefore, the temperature monitoring of the connection portion of the outlet terminal and the cable shoe is a technical problem to be solved.
SUMMERY OF THE UTILITY MODEL
The application provides a leading-out terminal and have leading-out terminal's aerify cabinet aims at providing the scheme that can accurately detect conductive temperature in the leading-out terminal.
In a first aspect, the present application provides an outlet terminal comprising: the electric conductor and the insulator of encapsulation outside the electric conductor still include: the temperature sensor, the signal transmitter and the mutual inductance power supply device are packaged in the insulator;
the sensing part of the temperature sensor is in temperature sensing contact with the electric conductor and is electrically connected with the signal transmitter;
the mutual inductance power supply device is sleeved outside the electric conductor and is electrically connected with the signal transmitter so as to supply power to the signal transmitter.
Optionally, the signal transmitter comprises a temperature sensing signal processing unit and a wireless unit; the temperature sensing signal processing unit is respectively connected with the temperature sensor and the wireless unit.
Optionally, the mutual inductance power supply device includes a ring-shaped magnet and a mutual inductance coil, the magnet is sleeved outside the electric conductor, and the mutual inductance coil is wound on the magnet;
the mutual inductor has two power supply line terminals and is connected to a signal transmitter, respectively.
Optionally, the temperature sensor, the signal transmitter, the mutual inductance power supply device and the insulator are integrally arranged.
In a second aspect, the present application provides an inflatable cabinet comprising: the gas tank, more than one outlet terminal and the control chamber, wherein the outlet terminal is provided with a conductor and an insulator packaged outside the conductor; further comprising: the temperature sensor, the signal transmitter and the mutual inductance power supply device are packaged in the insulator;
the sensing part of the temperature sensor is in temperature sensing contact with the electric conductor and is electrically connected with the signal transmitter;
the mutual inductance power supply device is sleeved outside the electric conductor and is electrically connected with the signal transmitter so as to supply power to the signal transmitter.
Optionally, the signal transmitter comprises a temperature sensing signal processing unit and a wireless unit; the temperature sensing signal processing unit is respectively connected with the temperature sensor and the wireless unit.
Optionally, a signal transceiver is arranged in the control room; the signal transceiver is in wireless communication connection with the signal transmitter of the outlet terminal.
Optionally, a temperature sensing data processor is arranged in the control room, and the temperature sensing data processor is connected with the signal transceiver through a data bus.
The outlet terminal and have outlet terminal's aerify cabinet that this application embodiment provided, outlet terminal includes temperature sensor, signal transmitter and mutual inductance power supply unit, and temperature sensor's response portion and electric conductor contact to make temperature sensor can accurately detect out the temperature of the electric conductor of line terminal and cable shoe junction. The mutual inductance power supply device is sleeved outside the conductor to supply power for the signal transmitter, so that connection with an external low-voltage power supply circuit is avoided. The signal transmitter transmits the temperature signal in a wireless mode, can avoid being connected with a low-voltage signal transmission circuit, cannot form a power-on loop with the outside, and further ensures that the outgoing line terminal and the cable shoe are equipotential and do not have the problem of electrical breakdown.
Drawings
FIG. 1 is a schematic diagram of an electrical energy delivery system according to an embodiment of the present disclosure;
fig. 2 is a perspective view of an outlet terminal according to an embodiment of the present application;
FIG. 3 is a schematic view of the connection of an outlet terminal and a cable shoe provided in accordance with another embodiment of the present application;
fig. 4 is a cross-sectional view of an outlet terminal according to another embodiment of the present application;
fig. 5 is a schematic structural diagram of an inflatable cabinet according to another embodiment of the present application.
Reference numerals:
1-a generator set; 2-an ultra high voltage transmission line; 3-primary electric energy distribution circuit; 4-secondary power distribution lines; 10-an inflatable cabinet; 11-a gas tank; 12-a control room; 13-a cable chamber; 14-an operation chamber; 100-outlet terminals; 101-an electrical conductor; 102-a signal transmitter; 103-a temperature sensor; 104-mutual inductance power supply device; 105-an insulator; 106-a charged sensor; 2011-mounting holes for outlet terminals; 2012-mounting holes for cables; 1011-connector for electrical conductor; 3011-connecting pieces of cable cores.
Detailed Description
In order to make the objects, technical solutions and advantages of the present application clearer, the technical solutions of the present application will be clearly and completely described below with reference to the accompanying drawings of the present application.
As shown in fig. 1, the electric power transmission line includes an extra-high voltage transmission line 2, a primary electric power distribution line 3, and a secondary electric power distribution line 4; the electric energy generated by the generator set 1 is boosted by a transformer in the high-voltage transmission line 2 and then transmitted; the high-voltage transmission line 2 supplies power to the primary electric energy distribution line 3, and a transformer in the primary electric energy distribution line 3 reduces the voltage and then performs multi-path transmission; the primary electric energy distribution circuit 3 supplies power to the secondary electric energy distribution circuit 4, the secondary electric energy distribution circuit 4 divides and multiplexes the electric energy, and the secondary electric energy distribution circuit is directly connected to users.
The gas-filled cabinet serves as a device in the secondary power distribution line 4 for providing power to the user. The outlet terminal serves as an output interface of the gas-filled cabinet and is usually connected with a cable through a cable shoe. The connection part of the outgoing line terminal and the cable shoe is easy to generate high temperature due to poor contact, and insulation breakdown is caused by long-term overheating, so that a large-area power failure accident is caused.
Such failures in the field of power transmission and distribution, which are subject to a large social range, often result in power outages in areas around several square kilometers. The resolution of such failures is long, usually at least several hours and seriously several days. Therefore, the temperature monitoring of the connection portion of the outlet terminal and the cable shoe is a technical problem to be solved.
In order to solve the above technical problem, an embodiment of the present application provides an outlet terminal and an air charging cabinet having the outlet terminal. Because the conductor of the outlet terminal has high voltage inside, if the sensor is directly contacted with the conductor, and the signal detected by the sensor is led out through a circuit, the problem of electric breakdown can occur. If the sensor does not contact the conductor, the temperature of the conductor at the connection position of the outlet terminal and the cable shoe cannot be directly measured, and the measured temperature is not accurate enough. The technical concept of the present application specifically includes: the temperature sensor is contacted with the conductor of the wire outlet terminal to directly detect the temperature of the conductor, the mutual inductance power supply device sleeved outside the conductor supplies power to the signal transmitter, and the signal transmitter transmits the temperature signal detected by the temperature sensor in a wireless communication mode, so that the problem of electrical breakdown caused by introducing a low-voltage signal output circuit and a low-voltage power supply circuit is avoided.
As shown in fig. 2, which is an outlet terminal according to an embodiment of the present invention, an outlet terminal 100 includes a conductor 101, a signal transmitter 102, a temperature sensor 103, a mutual inductance power supply 104, and an insulator 105.
Wherein, the insulator 105 is packaged outside the conductor, and the temperature sensor 102, the signal transmitter 103 and the mutual inductance power supply device 104 are packaged inside the insulator 105.
The sensing part of the temperature sensor 103 is directly in temperature sensing contact with the conductor 101, and the temperature sensor 103 directly senses the temperature of the conductor 101 at the connection part of the outlet terminal and the cable shoe.
The mutual inductance power supply device 104 is sleeved outside the conductor 101, when the outlet terminal 100 is connected with the cable shoe 200, alternating current flows in the conductor 101, an alternating magnetic field is generated around the alternating current, the alternating magnetic field can enable the mutual inductance power supply device arranged around the conductor 101 to generate mutual inductance current like a mutual inductor, and the mutual inductance current can supply power for the signal transmitter 202.
The signal transmitter 102 is electrically connected with the mutual inductance power supply device 104, and the signal transmitter 102 is electrically connected with the temperature sensor 103. The mutually inductive power supply 104 is used to provide power to the signal transmitter 102. The temperature sensor 103 collects a temperature signal of the conductive body 101 and transmits the temperature signal to the signal transmitter 102. The signal transmitter 102 processes the temperature signal and transmits the processed temperature signal to the outside by wireless.
As shown in fig. 3, when the gas-filled cabinet works, the outlet terminal 100 is connected to the cable through the cable shoe, and the outlet terminal 100 serves as an output end of the gas-filled cabinet to transmit the electric energy to the cable, and the cable transmits the electric energy to the user.
One end of the cable shoe is provided with a mounting hole 2011 which is formed by surrounding the insulating body 201 and used for inserting and mounting the outlet terminal of the outlet terminal 100, and the other end of the cable shoe is provided with a mounting hole 2012 of a cable. In order to connect the conductor 101 of the outlet terminal 100 with the cable core 301 of the cable 300 in the cable shoe 200, the conductor 101 of the outlet terminal 100 is provided with a conductor connector 1011, the cable core 301 is provided with a cable core connector 3011, and the cable core 301 upper connector 3011 and the conductor 101 upper connector 1011 of the outlet terminal 100 are connected with each other.
Preferably, a charging sensor 106 is enclosed in the insulating body 105, and the charging sensor 106 is used for detecting whether the outlet terminal is charged or not.
The working principle of the outlet terminal provided by the embodiment of the application is described as follows: high voltage is conducted in the conductor 101 of the outlet terminal 100, and the conductor 101 generates heat due to large loss at the connection part of the outlet terminal 100 and the cable shoe. The sensing area of the temperature sensor 103 is in temperature sensing contact with the conductor 101, directly collects the temperature signal of the conductor 101 and transmits the temperature signal to the signal transmitter 102, and the signal transmitter 102 processes the temperature signal and transmits the temperature signal to the outside in a wireless mode.
The scheme adopts the isobaric body principle to realize the temperature detection of the conductor 101 bearing high voltage, the temperature sensor 103 is in contact with the conductor 101 bearing high voltage, the amplitude of the voltage on the conductor 101 can reach more than 10kV, and the potential of the temperature sensor 103 can exceed 10kV due to the contact with the conductor 101. In order to prevent the high voltage from being led out by the signal output circuit of the temperature sensor 103, the output circuit of the temperature sensor 103 cannot use a low voltage circuit, so as to ensure that the output circuit of the temperature sensor 103 cannot be electrically connected with an external low voltage circuit; therefore, the temperature measurement data collected by the temperature sensor 103 is transmitted out in a wireless transmission mode in the scheme. In addition, the scheme adopts a self-powered mode, and utilizes the mutual inductance power supply device 104 to induce a tiny current as a power supply of the signal transmitter. The electric energy is obtained by only utilizing the current in the conductor 101 without introducing a low-voltage power supply from the outside, and is completely isolated from the outside.
Because the mutual inductance power supply device 104 is used for supplying power and the signal transmitter 102 is used for transmitting temperature data in a wireless mode, the whole outgoing line terminal 100 is closed on a single-phase high-voltage potential, just as a bird can stay on an exposed high-voltage line, the outgoing line terminal 100 and a low-voltage circuit cannot form a loop, the potentials of all parts of the outgoing line terminal 100 are the same, the voltage drop among the temperature sensor 103, the signal transmitter 102 and the mutual inductance power supply device 104 is small, and the temperature sensor 103, the signal transmitter 102 and the mutual inductance power supply device 104 cannot be broken down electrically.
In the embodiment, the induction part of the sensor is directly contacted with the conductor of the outlet terminal, so that the temperature of the conductor at the joint of the outlet terminal and the cable shoe can be accurately detected, the mutual inductance power supply device supplies power for the signal transmitter, the signal transmitter transmits temperature data in a wireless mode, a low-voltage power supply circuit and a low-voltage signal transmission circuit are not required to be introduced, and the problem of electric breakdown caused by the fact that high voltage is completely applied to the outlet terminal due to the fact that the high voltage and a low-voltage line form a loop can be avoided.
As shown in fig. 4, which is an outlet terminal according to an embodiment of the present invention, an outlet terminal 100 includes a conductor 101, a signal transmitter 102, a temperature sensor 103, a mutual inductance power supply 104, an insulator 105, and a charge sensor 106.
The position relationship and the connection relationship of each component of the outgoing line terminal have been described in detail in the above embodiments, and are not described herein again.
The mutual inductance power supply device 104 comprises a ring-shaped magnet and a mutual inductance coil, the magnet is sleeved outside the conductor 101, the mutual inductance coil is wound on the magnet, and two terminals of the mutual inductance coil are respectively connected with the signal transmitter 102 so as to realize power supply to the signal transmitter 102.
When the outlet terminal 100 is connected to a cable shoe, a current flows in the conductor 101 of the outlet terminal 100, the conductor 101 serves as a primary coil, electromagnetic energy is transmitted through the magnet, a mutual inductance current is generated in the mutual inductance coil, and the mutual inductance current is supplied to the signal transmitter 102.
The signal transmitter 102 includes a temperature sensing signal processing unit and a wireless unit, and the temperature sensing signal processing unit is connected to the temperature sensor and the wireless unit, respectively. Preferably, the temperature sensing signal processing unit is connected with the temperature sensor and the wireless unit through a data bus. After acquiring the temperature signal of the conductor 101, the temperature sensor 103 transmits the temperature signal to the temperature sensing signal processing unit, the temperature sensing signal processing unit performs analog/digital conversion on the temperature signal to generate a digital signal, the wireless unit processes the digital signal according to a corresponding transmission protocol to obtain a corresponding data packet, and the data packet is transmitted in a wireless manner.
The temperature sensor 101 may be of the type of a resistive temperature sensor, a thermocouple temperature sensor, a bimetal sensor, or the like.
The temperature sensing signal processing unit and the wireless unit in the signal transmitter 102 are integrated on a circuit board to form a wireless transmitting circuit board, the temperature sensor 101 and the mutual inductance power supply device 104 are both connected to the wireless transmitting circuit board, and then the wireless transmitting circuit board connected with the temperature sensor 102 and the mutual inductance power supply device 104 and the insulator 105 are integrated into an integrated structure by using a pouring process. It should be noted that: the sensing portion of the thermistor is secured within the mounting bore 2011.
The signal transmitter 102, the temperature sensor 103 and the mutual inductance power supply device 104 are arranged in the insulator 105 for coating the conductor, so that the structure change of an original outlet terminal is small, and the stable and reliable work of the signal transmitter 102, the temperature sensor 103 and the mutual inductance power supply device 104 can be ensured.
The working principle of the outlet terminal provided by the embodiment of the application is described as follows: when the gas-filled cabinet works, high voltage is conducted in the conductor 101 of the outlet terminal 100, the mutual inductance power supply device 104 is sleeved outside the conductor 101, a magnetic field generated by the high voltage generates mutual inductance current in the mutual inductance power supply device 104, and the mutual inductance current is supplied to the signal transmitter 102. The temperature sensor 103 collects a temperature signal of the conductor 101 and transmits the temperature signal to the temperature sensing signal processing unit, the temperature sensing signal processing unit performs analog/digital conversion to output temperature data, the temperature sensing signal processing unit transmits the temperature data to the wireless unit, and the wireless unit processes the temperature data and then sends the temperature data to the outside in a wireless mode.
Preferably, the temperature sensing signal processing unit collects temperature signals acquired at a plurality of times, performs analog/digital conversion on the temperature signals acquired at the plurality of times to generate temperature data, processes the digital signals according to a corresponding transmission protocol by the wireless unit to obtain a corresponding data packet, and sends the data packet to the outside. By processing the plurality of temperature signals and then transmitting the processed temperature signals to the outside, the power consumption of the signal transmitter 102 can be reduced, the power provided by the mutual inductance power supply device 104 can be reduced, the size of the mutual inductance power supply device 104 can be reduced, and the influence of the mutual inductance power supply device 104 on the structure of the outlet terminal can be reduced.
In order to make the whole outlet terminal be "sealed" on the single-phase high-voltage potential, the low-voltage power supply can not be introduced from the outside, and the signal transmitter 102 is a micro-power consumption device, therefore, the scheme uses a self-powered form, and utilizes the mutual inductance power supply device 104 to induce a micro-mutual inductance current as the power supply. The energy is obtained by using high voltage in the electric conductor without introducing a low-voltage power supply from the outside, for example, 10kV single-phase voltage is completely isolated from the outside.
The sensing part of the temperature sensor 103 is contacted with the conductor 101, so that the temperature signal of the conductor 101 can be accurately detected and obtained, the temperature signal of the conductor 101 is transmitted to the signal transmitter 102, the signal transmitter 102 is supplied with power through the mutual inductance power supply device 104, the signal transmitter 102 processes the temperature signal and then transmits the temperature signal to the outside, a low-voltage signal output circuit is not needed, the potentials of all parts of an outlet terminal are the same, the voltage drops among the signal transmitter 102, the temperature sensor 103 and the mutual inductance power supply device 104 are relatively small, and the phenomenon of electrical breakdown is avoided.
In the embodiment, the sensing part of the temperature sensor is directly contacted with the conductor, so that the temperature of the conductor at the joint of the line terminal and the cable shoe can be accurately detected, in order to ensure that the outlet terminal is not broken down, the signal transmitter is used for transmitting temperature data in a wireless mode, the mutual inductance power supply device supplies power to the signal transmitter based on the mutual inductor principle, and the problem of electrical breakdown caused by the fact that high voltage is applied to the outlet terminal due to the introduction of a low-voltage circuit can be avoided.
As shown in fig. 5, which is an inflatable cabinet according to one embodiment of the present invention, an inflatable cabinet 10 includes an air box 11 and a control room 12. The gas tank comprises at least one outlet terminal 100, a switch unit and a tank body, wherein the switch unit and the outlet terminal 100 are both positioned in the tank body.
The box body is formed by welding six steel plates, and when the inflatable cabinet works, the box body is completely closed, and protective gas is injected into the box body. Preferably, the protective gas is sulfur fluoride gas. The outer wall of the box body is provided with cooling fins for reducing the temperature of the box body.
The switch unit comprises a breaker and a copper bar, the copper bar and the breaker form a power distribution main loop, and the wire outlet terminal 100 serves as an output end of the power distribution main loop. The switch unit is used for controlling the on-off of the voltage transmission line, and the outlet terminal 100 is connected with the cable shoe to realize the outward output of voltage. The structure of the outlet terminal 100 has been described in detail in the above embodiments, and is not described herein again.
And the control room is used for controlling the switch unit in the air box to work. The control circuit of the circuit breaker in the gas tank is positioned in the control room 12, and the control circuit of the circuit breaker is used for controlling the opening and closing of the circuit breaker so as to realize the on-off control of the voltage transmission line.
Preferably, the gas-filled cabinet further comprises a cable chamber 13 and an operation chamber 14, the cable chamber 13 is located below the operation chamber 14 and the gas tank 11, the control chamber 12 is located above the operation chamber 14 and the gas tank 11, and a button is provided on an operation panel of the operation chamber 14, and a control circuit of a circuit breaker located in the control chamber 12 can be controlled by the button to generate an opening signal and a closing signal.
When the gas-filled cabinet works, the outlet terminal 100 of the gas tank is connected with the cable through the cable shoe. High voltage is conducted in the circuit breaker and the copper bar, current is conducted to the cable through the outgoing line terminal 100, the temperature sensor 103 in the outgoing line terminal 100 detects the temperature of the conductor 101 in real time, the mutual inductance power supply device 104 supplies power to the signal transmitter 102, the signal transmitter 102 transmits the temperature data of the conductor 101 to the outside in a wireless mode, a low-voltage circuit is prevented from being introduced into the gas tank, the outgoing line terminal 100 and the circuit breaker cannot be subjected to electric breakdown, the temperature of the outgoing line terminal 100 can be detected in real time, and the outgoing line terminal 100 is prevented from being burnt due to overhigh temperature.
The gas-filled cabinet 10 further comprises a signal transceiver and a temperature sensing data processor, wherein the signal transceiver and the temperature sensing data processor are both located in the control room 12, and the signal transceiver and the temperature sensing data processor are connected with each other through a bus. The signal transceiver is communicatively coupled to a signal transmitter 102 of the outlet terminal 100, and the signal transceiver is configured to receive the temperature data packet. The temperature sensing data processor is used for processing the received temperature data packet, sending the processed temperature data packet to the outside of the inflatable cabinet 10, and providing temperature data of the connection position of the outgoing line terminal 100 and the cable shoe in the inflatable cabinet 10 to the outside to realize temperature monitoring.
In the above embodiment, the signal transceiver receives the temperature data packet transmitted by the signal transmitter 102 in the outlet terminal 100, processes the received temperature data packet and outputs the processed temperature data packet to the outside, so as to realize real-time monitoring of the temperature at the connection position between the outlet terminal and the cable shoe in the gas-filled cabinet 10.
Finally, it should be noted that: the above embodiments are only used for illustrating the technical solutions of the present application, and not for limiting the same; although the present application has been described in detail with reference to the foregoing embodiments, it should be understood by those of ordinary skill in the art that: the technical solutions described in the foregoing embodiments may still be modified, or some or all of the technical features may be equivalently replaced; and the modifications or the substitutions do not make the essence of the corresponding technical solutions deviate from the technical solutions of the embodiments of the present application.
Claims (8)
1. An outlet terminal comprising: the electric conductor and encapsulate the insulator in the electric conductor outside, its characterized in that still includes: the temperature sensor, the signal transmitter and the mutual inductance power supply device are packaged in the insulator;
the sensing part of the temperature sensor is in temperature sensing contact with the electric conductor and is electrically connected with the signal transmitter;
the mutual inductance power supply device is sleeved outside the electric conductor and is electrically connected with the signal transmitter so as to supply power to the signal transmitter.
2. The outlet terminal of claim 1, wherein the signal transmitter comprises a temperature-sensitive signal processing unit and a wireless unit; the temperature sensing signal processing unit is respectively connected with the temperature sensor and the wireless unit.
3. The outlet terminal of claim 1 or 2, wherein the mutual inductance power supply device comprises a ring-shaped magnet and a mutual inductance coil, the magnet is sleeved outside the electric conductor, and the mutual inductance coil is wound on the magnet;
the mutual inductor has two power supply line terminals and is connected to the signal transmitter, respectively.
4. The outlet terminal of claim 1 or 2, wherein the temperature sensor, the signal transmitter, the mutually inductive powering device are provided integrally with the insulator.
5. An inflatable cabinet comprising: the gas tank, more than one outlet terminal and the control chamber, wherein the outlet terminal is provided with a conductive body and an insulator packaged outside the conductive body; it is characterized by also comprising: the temperature sensor, the signal transmitter and the mutual inductance power supply device are packaged in the insulator;
the sensing part of the temperature sensor is in temperature sensing contact with the electric conductor and is electrically connected with the signal transmitter;
the mutual inductance power supply device is sleeved outside the electric conductor and is electrically connected with the signal transmitter so as to supply power to the signal transmitter.
6. The inflatable cabinet of claim 5, wherein the signal transmitter comprises a temperature-sensitive signal processing unit and a wireless unit; the temperature sensing signal processing unit is respectively connected with the temperature sensor and the wireless unit.
7. An inflatable cabinet as claimed in claim 5 or 6, wherein a signal transceiver is provided in the control chamber; the signal transceiver is in wireless communication connection with the signal transmitter of the outlet terminal.
8. An inflatable cabinet as claimed in claim 7, wherein a temperature sensing data processor is provided in the control chamber, and the temperature sensing data processor is connected to the signal transceiver via a data bus.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202023345073.4U CN214589718U (en) | 2020-12-31 | 2020-12-31 | Wire outlet terminal and inflatable cabinet with same |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202023345073.4U CN214589718U (en) | 2020-12-31 | 2020-12-31 | Wire outlet terminal and inflatable cabinet with same |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| CN214589718U true CN214589718U (en) | 2021-11-02 |
Family
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Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN202023345073.4U Active CN214589718U (en) | 2020-12-31 | 2020-12-31 | Wire outlet terminal and inflatable cabinet with same |
Country Status (1)
| Country | Link |
|---|---|
| CN (1) | CN214589718U (en) |
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2020
- 2020-12-31 CN CN202023345073.4U patent/CN214589718U/en active Active
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