CN106131228A - Smart city network node communication system - Google Patents
Smart city network node communication system Download PDFInfo
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- CN106131228A CN106131228A CN201610799395.5A CN201610799395A CN106131228A CN 106131228 A CN106131228 A CN 106131228A CN 201610799395 A CN201610799395 A CN 201610799395A CN 106131228 A CN106131228 A CN 106131228A
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
- H04L67/00—Network arrangements or protocols for supporting network services or applications
- H04L67/01—Protocols
- H04L67/12—Protocols specially adapted for proprietary or special-purpose networking environments, e.g. medical networks, sensor networks, networks in vehicles or remote metering networks
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- G—PHYSICS
- G08—SIGNALLING
- G08C—TRANSMISSION SYSTEMS FOR MEASURED VALUES, CONTROL OR SIMILAR SIGNALS
- G08C17/00—Arrangements for transmitting signals characterised by the use of a wireless electrical link
- G08C17/02—Arrangements for transmitting signals characterised by the use of a wireless electrical link using a radio link
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
- H04L41/00—Arrangements for maintenance, administration or management of data switching networks, e.g. of packet switching networks
- H04L41/04—Network management architectures or arrangements
-
- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
- H04L41/00—Arrangements for maintenance, administration or management of data switching networks, e.g. of packet switching networks
- H04L41/06—Management of faults, events, alarms or notifications
- H04L41/0681—Configuration of triggering conditions
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04W—WIRELESS COMMUNICATION NETWORKS
- H04W52/00—Power management, e.g. TPC [Transmission Power Control], power saving or power classes
- H04W52/02—Power saving arrangements
- H04W52/0209—Power saving arrangements in terminal devices
- H04W52/0212—Power saving arrangements in terminal devices managed by the network, e.g. network or access point is master and terminal is slave
- H04W52/0216—Power saving arrangements in terminal devices managed by the network, e.g. network or access point is master and terminal is slave using a pre-established activity schedule, e.g. traffic indication frame
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04W—WIRELESS COMMUNICATION NETWORKS
- H04W52/00—Power management, e.g. TPC [Transmission Power Control], power saving or power classes
- H04W52/02—Power saving arrangements
- H04W52/0209—Power saving arrangements in terminal devices
- H04W52/0261—Power saving arrangements in terminal devices managing power supply demand, e.g. depending on battery level
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- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02D—CLIMATE CHANGE MITIGATION TECHNOLOGIES IN INFORMATION AND COMMUNICATION TECHNOLOGIES [ICT], I.E. INFORMATION AND COMMUNICATION TECHNOLOGIES AIMING AT THE REDUCTION OF THEIR OWN ENERGY USE
- Y02D30/00—Reducing energy consumption in communication networks
- Y02D30/70—Reducing energy consumption in communication networks in wireless communication networks
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- Computer Networks & Wireless Communication (AREA)
- Signal Processing (AREA)
- Physics & Mathematics (AREA)
- General Physics & Mathematics (AREA)
- Health & Medical Sciences (AREA)
- Computing Systems (AREA)
- General Health & Medical Sciences (AREA)
- Medical Informatics (AREA)
- Data Exchanges In Wide-Area Networks (AREA)
- Selective Calling Equipment (AREA)
- Arrangements For Transmission Of Measured Signals (AREA)
Abstract
Present invention is disclosed a kind of smart city network node communication system, if including dry contact, at least one node is that host node, at least one node are for from node;Each node all includes that power supply and electric power management circuit, MCU, GPRS module are or/and BDS module, network communication bus, shaking sensor, ultra-low power consumption wireless data module;When shaking sensor electric circuit inspection to state changes, host node MCU encodes by GPRS module alarm or/and BDS module is sent to the big data platform of far-end, and MCU is per hour automatically to battery voltage detection, and assesses dump energy;Arriving when the periodic awakening time, system has first checked whether short-message instruction, first processes if had, and next is actively connected to teledata platform, as data platform has instruction to perform instruction, the most just submits periodic report.The smart city network node communication system that the present invention proposes, can realize each network node low-power consumption communication.
Description
Technical field
The invention belongs to technology of Internet of things field, relate to a kind of network node communication system, particularly relate to a kind of wisdom city
City's network node communication system.
Background technology
In order to develop smart city and underground Intelligent pipe net technology, bring convenient management to city, need to city portion
Administration's network sensor.Due to some sensor applied environment limit and signal transmission problem, need solve power consumption and
The problem that signal penetrates.But, current equipment cannot realize said process well.
In view of this, nowadays in the urgent need to designing a kind of new network node communication modes, in order to overcome existing communication side
The drawbacks described above that formula exists.
Summary of the invention
The technical problem to be solved is: provide a kind of smart city network node communication system, can realize each
Individual network node low-power consumption communication.
For solving above-mentioned technical problem, the present invention adopts the following technical scheme that
A kind of smart city network node communication system, if described network node communication system includes dry contact, at least one
Node is that host node, at least one node are for from node;
Each node all include power supply and electric power management circuit, MCU, GPRS module or/and BDS module, network communication bus,
Shaking sensor, ultra-low power consumption wireless data module, a holonomic system of composition, whole system is enclosed in plastic containers;
When shaking sensor electric circuit inspection to state changes when, host node MCU passes through GPRS alarm coding
Module is or/and BDS module is sent to the big data platform of far-end, and MCU is per hour automatically to battery voltage detection, and assesses residue electricity
Amount, if electricity is sufficient, that is sending period distances wakeup time transmission current electric quantity, otherwise timely turn-on data communication module
Inform that big data platform needs to change;
Arriving when the periodic awakening time, system has first checked whether short-message instruction, first processes if had, the most actively
It is connected to teledata platform, as data platform has instruction to perform instruction, the most just submits periodic report;
If node is with sensor network, node is automatically collected the sensing data of current time and is actively returned report;
Reading sensing data can be provided reference time benchmark and acquisition set of time to reach the side of plesiochronous collection by high in the clouds
Formula gathers;
When needing alarm from node, from node M CU by ultra-low power consumption wireless module and host node super low-power consumption module
Exchange data, host node be responsible for from node and teledata platform by self super low-power consumption module and GPRS module or/
Data Bridge is set up with BDS module;
Directly data are initiated to host node, host node by teledata platform when teledata platform needs to set up communication
Waken up up by super low-power consumption data module and set up data cube computation exchange data from node or be controlled;When also needing to bridge from node
The when of connecing other sensors, data turn receipts from network communication Bus repeater again;Products application passes in remote meter reading, remote alarms
Sensor, remote environment sensor and the monitoring of city manhole cover;
Power supply and electric power management circuit comprise battery, manostat LDO and controllable on and off switch;Wherein, battery
BAT3 is system groundwork power supply, for solaode, the 39th electric capacity C39, the 40th electric capacity C40, the 38th electricity
The power circuit holding C38 and the 6th chip U6 composition provides continual power supply to MCU;
The positive pole VCC of battery BAT3 connect the input port of the 6th chip U6, the positive pole of the 39th electric capacity C39, the 4th
The positive pole of ten electric capacity C40, the input port of the 6th chip U6 connects the positive pole of the 38th electric capacity C38, the 39th electric capacity C39
Negative pole, the negative pole of the 40th electric capacity C40, the negative pole of the 38th electric capacity C38, the minus earth of battery BAT3;
By the 43rd electric capacity C43, the 44th electric capacity C44, the 45th electric capacity C45, the 49th electric capacity C49,
42 electric capacity C42, the 48th electric capacity C48, the 46th electric capacity C46, the 47th electric capacity C47, the 37th resistance
R37, the 36th resistance R36, the 38th resistance R38, the second diode D2, the first inductance L1 and the 7th chip U7 composition
Controlled DCDC provides the power supply that can turn off to data communication module, and control signal passes through the 37th resistance from the GPS_S of MCU
R37 is given to the 3rd foot EN of the 7th chip U7 and controls port;
The positive pole of battery BAT3 connect the positive pole of the 43rd electric capacity C43, the positive pole of the 44th electric capacity C44, the 40th
The positive pole of five electric capacity C45, the VIN port of the 7th chip U7, the EN port of the 7th chip U7 is connected by the 37th resistance
The SS port ground connection of MCU, the 7th chip U7;7th port of the 7th chip U7 connects first end of the 42nd electric capacity C42, the
The SW port of seven chip U7 connect second end of the 42nd electric capacity C42, the negative pole of the second diode D2, the of the first inductance L1
One end;The GS port of the 7th chip U7, the plus earth of the second diode D2;Second end of the first inductance L1 connects the 48th
First end of electric capacity C48, first end of the 36th resistance R36, the positive pole of the 46th electric capacity C46, the 47th electric capacity C47
Positive pole;The FB port of the 7th chip U7 connect second end of the 48th electric capacity C48, second end of the 36th resistance R36,
First end of the 38th resistance R38, the second end ground connection of the 38th resistance R38;
Described MCU includes the first chip U1, the first low-and high-frequency crystal oscillator OSC1, the second low-and high-frequency crystal oscillator OSC2, down Monitor Unit
Chip U2, boosting battery BAT1, some resistance, some electric capacity;Main offer serial ports ISP synchronous serial interface and AD sampling, and
Battery voltage detection, burn out detection, mechanical movement detection action control ability;Wherein, the 17th resistance R17, the 21st electricity
Resistance R21, the 22nd resistance R22, the 23rd resistance R23, the circuit of the second metal-oxide-semiconductor M2 composition are used for gathering the electricity of main battery
Pressure situation, is used for assessing dump energy;Gather and turn off the second metal-oxide-semiconductor M2 after terminating and avoid the extra static current of lcd of circuit;Pass through
P1 mouth is used for debugging and filling program;
Described data communication module includes SIM circuit, communicating circuit;SIM circuit include the 3rd chip U3, the 20th
Electric capacity C20, the 16th electric capacity C16, the 21st electric capacity C21, the 23rd electric capacity C23, the 24th electric capacity C24, the 20th
Five electric capacity C25, the 26th electric capacity C26, the 22nd electric capacity C22;
Communicating circuit include fifth chip U5, the first diode D1, the first LED LED1, the 33rd electric capacity C33,
32 electric capacity C32, the 31st electric capacity C31, the 35th electric capacity C35, the 34th electric capacity C34, the 37th electric capacity
C37, the 36th electric capacity C36, the 41st electric capacity C41, the 29th electric capacity R29, the 30th electric capacity R30, the 31st electricity
Hold R31, the 32nd electric capacity R32, the 33rd electric capacity R33 and antenna ANT1BT-ANT;Main responsible MCU and the number in high in the clouds
According to communication, open the when of necessary, the complete closedown of communication;
The negative pole of the first diode D1 connect first end of the 33rd electric capacity C33, the first of the 32nd electric capacity C32
End, first end of the 31st electric capacity C31, the positive pole of the 35th electric capacity C35, the positive pole of the 34th electric capacity C34, the 5th core
Sheet U5, second end of the 33rd electric capacity C33, second end of the 32nd electric capacity C32, second end of the 31st electric capacity C31,
The negative pole of the 35th electric capacity C35, the minus earth of the 34th electric capacity C34;
Described network communication bus includes fourth chip U4, the 15th resistance R15, the 16th resistance R16, the 18th resistance
R18, the 20th resistance R20, the 19th resistance R19, the 24th resistance R24, the 28th resistance R28, the 27th electric capacity
C27, the 29th electric capacity C29, the 28th electric capacity C28, the 30th electric capacity C30, the 3rd metal-oxide-semiconductor M3 and network transformer
B2;The main conversion providing data signal mode, it is achieved low-power consumption high isolation, improves reliability and the IPI grade of product;Second
Ten resistance R20 serve as terminal unit resistance, and the 18th resistance R18, the 19th resistance R19 are terminal resistances that can arrange,
Determined that bringing onto load resistance is still without load resistance by configuration;
Shaking sensor includes the 51st moving back even electric capacity C51, the 52nd moving back even electric capacity C52, the 43rd resistance
R43, the 42nd resistance R42 and sensor U1, Main Function is when product perceives big vibrations and product upset
Wake up MCU up by interruption in time, allow MCU process warning signal notice high in the clouds;Shaking sensor uses semiconductor acceleration inclination angle
Sensor;
Ultra-low power consumption wireless data module includes the tenth chip U10, the 9th chip U9, the 11st chip U11 and the 9th
Electric capacity C9, the 50th electric capacity C50, the 53rd electric capacity C53, the 54th electric capacity C54, the 55th electric capacity C55, the 56th
Electric capacity C56, the 57th electric capacity C57, the 58th electric capacity C58, the 59th electric capacity C59, the 60th electric capacity C60, the 60th
One electric capacity C61, the 62nd electric capacity C62, the 63rd electric capacity C63, the 64th electric capacity C64, the 65th electric capacity C65,
66 electric capacity C66, the 67th electric capacity C67, the 68th electric capacity C68, the 69th electric capacity C69, the 70th electric capacity C70,
71st electric capacity C71, the 72nd electric capacity C72, the 73rd electric capacity C73, the 74th electric capacity C74, the 75th electric capacity
C75, the 76th electric capacity C76, the 77th electric capacity C77, the 78th electric capacity C78, the 79th electric capacity C79, the 80th electricity
Hold C80, the 81st electric capacity C81, the 82nd electric capacity C82, the 83rd electric capacity C83, the 84th electric capacity C84, the 80th
Five electric capacity C85, the 86th electric capacity C86, the 87th electric capacity C87, the 88th electric capacity C88, the 89th electric capacity C89, the
Two inductance L2, the 3rd inductance L3, the 4th inductance L4, the 5th inductance L5, the 6th inductance L6, the 7th inductance L7, the 8th inductance L8,
Nine inductance L9, the tenth inductance L10, the 11st inductance L11, the 12nd inductance L12, the 13rd inductance L13, the 14th inductance L14,
15th inductance L15, the 3rd low-and high-frequency crystal oscillator OSC3, the second resistance R2, the 3rd resistance R3, the 39th resistance R39, the 40th
Resistance R40;
Tenth chip U10 connects first end of the 4th inductance L4, first end of the 3rd inductance L3, the second of the 4th inductance L4
End ground connection, second end of the 3rd inductance L3 connects first end of the 54th electric capacity C54, first end of the 50th electric capacity C50;The
The second end ground connection of 54 electric capacity C54, second end of the 50th electric capacity C50 passes through the second resistance R2, the 53rd electric capacity C53
Connect the 9th chip U9;
Tenth chip U10 connects first end of the 8th inductance L8, first end of the 64th electric capacity C64, the 60th electric capacity
First end of C60, the 8th inductance L8 second end connect first end of the tenth inductance L10, the first of the 65th electric capacity C65
End, first end of the 66th electric capacity C66, the second end ground connection of the 64th electric capacity C64, second end of the 60th electric capacity C60
Connect first end of the 5th inductance L5;Second end of the 5th inductance L5 connects first end of the 61st electric capacity C61, the 6th inductance
First end of L6, first end of the 57th electric capacity C57;The second end ground connection of the 61st electric capacity C61, the of the 6th inductance L6
Two ends, second end of the 57th electric capacity C57, first end of the 58th electric capacity C58, first end of the 7th inductance L7 connect the
First end of 62 electric capacity C62, the second end ground connection of the 62nd electric capacity C62;9th chip U9 connects the 58th electric capacity
Second end of C58, second end of the 7th inductance L7, first end of the 63rd electric capacity C63, the second of the 63rd electric capacity C63
End ground connection;
Tenth chip U10 connects first end of the 9th inductance L9, and second end of the 9th inductance L9 connects the 75th electric capacity
First end of C75, first end of the 70th electric capacity C70, the second end ground connection of the 75th electric capacity C75;70th electric capacity C70's
Second end connects first end of the 11st inductance L11;Second end of the 11st inductance L11 connects the of the 71st electric capacity C71
One end, first end of the 12nd inductance L12, first end of the 67th electric capacity C67, second termination of the 71st electric capacity C71
Ground;Second end of the 12nd inductance L12, second end of the 67th electric capacity C67, first end of the 13rd inductance L13, the 60th
First end of eight electric capacity C68 connects first end of the 72nd electric capacity C72, the second end ground connection of the 72nd electric capacity C72;Tenth
One chip U11 connects second end of the 13rd inductance L13, second end of the 68th electric capacity C68, the 78th electric capacity C78
First end, the second end ground connection of the 78th electric capacity C78;
Tenth chip U10 connects first end of the tenth inductance L10, second end of the 8th inductance L8, the 65th electric capacity C65
The first end, first end of the 66th electric capacity C66;Second end of the 65th electric capacity C65, the of the 66th electric capacity C66
Two end ground connection;
Tenth chip U10 connects first end of the 15th inductance L15, first end of the 84th electric capacity C84, the 15th electricity
Second end of sense L15 connects first end of the 85th electric capacity C85, first end of the 80th electric capacity C80;84th electric capacity
Second end of C84, the second end ground connection of the 85th electric capacity C85;Second end of the 80th electric capacity C80 is sequentially connected in series the 39th
Resistance R39, the 81st electric capacity C81 connect the 11st chip U11;
Tenth chip U10 connects first pin of the 3rd low-and high-frequency crystal oscillator OSC3, first end of the 78th electric capacity C78,
Second pin of the 3rd low-and high-frequency crystal oscillator OSC3 connects first end of the 79th electric capacity C79, the 3rd low-and high-frequency crystal oscillator OSC3's
Three-prong, second end of the 78th electric capacity C78, the second end ground connection of the 79th electric capacity C79;
9th chip U9 connects first end of the second inductance L2, first end of the 55th electric capacity C55, the second inductance L2's
Second end connects first end of the 56th electric capacity C56, second end of the 55th electric capacity C55, the of the 56th electric capacity C56
Two end ground connection;
11st chip U11 connection first end of the 14th inductance L14, first end of the 82nd electric capacity C82, the 14th
Second end of inductance L14 connects first end of the 83rd electric capacity C83, second end of the 82nd electric capacity C82, the 83rd electricity
Hold the second end ground connection of C83.
A kind of smart city network node communication system, if described network node communication system includes dry contact, at least one
Node is that host node, at least one node are for from node;
Each node all include power supply and electric power management circuit, MCU, GPRS module or/and BDS module, network communication bus,
Shaking sensor, ultra-low power consumption wireless data module;
When shaking sensor electric circuit inspection to state changes when, host node MCU passes through GPRS alarm coding
Module is or/and BDS module is sent to the big data platform of far-end, and MCU, and commented automatically to battery voltage detection at interval of the time of setting
Estimating dump energy, if electricity is sufficient, that is sending period distances wakeup time transmission current electric quantity, otherwise timely turn-on data
Communication module informs that big data platform needs to change;
Arriving when the periodic awakening time, system has first checked whether short-message instruction, first processes if had, the most actively
It is connected to teledata platform, as data platform has instruction to perform instruction, the most just submits periodic report.
As a preferred embodiment of the present invention, if node is with sensor network, node collects current time automatically
Sensing data actively return report;Read sensing data and can be provided reference time benchmark and the time of acquisition by high in the clouds
Arrange and reach the mode of plesiochronous collection and gather;
When needing alarm from node, from node M CU by ultra-low power consumption wireless module and host node super low-power consumption module
Exchange data, host node be responsible for from node and teledata platform by self super low-power consumption module and GPRS module or/
Data Bridge is set up with BDS module;
Directly data are initiated to host node, host node by teledata platform when teledata platform needs to set up communication
Waken up up by super low-power consumption data module and set up data cube computation exchange data from node or be controlled;When also needing to bridge from node
The when of connecing other sensors, data turn receipts from network communication Bus repeater again;Products application passes in remote meter reading, remote alarms
Sensor, remote environment sensor and the monitoring of city manhole cover.
Battery, manostat LDO and controlled is comprised as a preferred embodiment of the present invention, power supply and electric power management circuit
The on and off switch of system;Wherein, battery BAT3 is system groundwork power supply, for solaode, and the 39th electric capacity C39,
The power circuit that 40 electric capacity C40, the 38th electric capacity C38 and the 6th chip U6 are constituted provides continual power supply to MCU;
The positive pole VCC of battery BAT3 connect the input port of the 6th chip U6, the positive pole of the 39th electric capacity C39, the 4th
The positive pole of ten electric capacity C40, the input port of the 6th chip U6 connects the positive pole of the 38th electric capacity C38, the 39th electric capacity C39
Negative pole, the negative pole of the 40th electric capacity C40, the negative pole of the 38th electric capacity C38, the minus earth of battery BAT3;
By the 43rd electric capacity C43, the 44th electric capacity C44, the 45th electric capacity C45, the 49th electric capacity C49,
42 electric capacity C42, the 48th electric capacity C48, the 46th electric capacity C46, the 47th electric capacity C47, the 37th resistance
R37, the 36th resistance R36, the 38th resistance R38, the second diode D2, the first inductance L1 and the 7th chip U7 composition
Controlled DCDC provides the power supply that can turn off to data communication module, and control signal passes through the 37th resistance from the GPS_S of MCU
R37 is given to the 3rd foot EN of the 7th chip U7 and controls port;
The positive pole of battery BAT3 connect the positive pole of the 43rd electric capacity C43, the positive pole of the 44th electric capacity C44, the 40th
The positive pole of five electric capacity C45, the VIN port of the 7th chip U7, the EN port of the 7th chip U7 is connected by the 37th resistance
The SS port ground connection of MCU, the 7th chip U7;7th port of the 7th chip U7 connects first end of the 42nd electric capacity C42, the
The SW port of seven chip U7 connect second end of the 42nd electric capacity C42, the negative pole of the second diode D2, the of the first inductance L1
One end;The GS port of the 7th chip U7, the plus earth of the second diode D2;Second end of the first inductance L1 connects the 48th
First end of electric capacity C48, first end of the 36th resistance R36, the positive pole of the 46th electric capacity C46, the 47th electric capacity C47
Positive pole;The FB port of the 7th chip U7 connect second end of the 48th electric capacity C48, second end of the 36th resistance R36,
First end of the 38th resistance R38, the second end ground connection of the 38th resistance R38.
As a preferred embodiment of the present invention, described MCU include the first chip U1, the first low-and high-frequency crystal oscillator OSC1,
Two low-and high-frequency crystal oscillator OSC2, down Monitor Unit chip U2, boosting battery BAT1, some resistance, some electric capacity;Serial ports is mainly provided
ISP synchronous serial interface and AD sampling, and battery voltage detection, burn out detection, mechanical movement detection action control ability;Its
In, the 17th resistance R17, the 21st resistance R21, the 22nd resistance R22, the 23rd resistance R23, the second metal-oxide-semiconductor M2
The circuit of composition is used for gathering the voltage condition of main battery, is used for assessing dump energy;Collection turns off the second metal-oxide-semiconductor M2 after terminating
Avoid the static current of lcd that circuit is extra;It is used for debugging and filling program by P1 mouth.
As a preferred embodiment of the present invention, described data communication module includes SIM circuit, communicating circuit;SIM
Circuit includes the 3rd chip U3, the 20th electric capacity C20, the 16th electric capacity C16, the 21st electric capacity C21, the 23rd electric capacity
C23, the 24th electric capacity C24, the 25th electric capacity C25, the 26th electric capacity C26, the 22nd electric capacity C22;
Communicating circuit include fifth chip U5, the first diode D1, the first LED LED1, the 33rd electric capacity C33,
32 electric capacity C32, the 31st electric capacity C31, the 35th electric capacity C35, the 34th electric capacity C34, the 37th electric capacity
C37, the 36th electric capacity C36, the 41st electric capacity C41, the 29th electric capacity R29, the 30th electric capacity R30, the 31st electricity
Hold R31, the 32nd electric capacity R32, the 33rd electric capacity R33 and antenna ANT1BT-ANT;Main responsible MCU and the number in high in the clouds
According to communication, open the when of necessary, the complete closedown of communication;
The negative pole of the first diode D1 connect first end of the 33rd electric capacity C33, the first of the 32nd electric capacity C32
End, first end of the 31st electric capacity C31, the positive pole of the 35th electric capacity C35, the positive pole of the 34th electric capacity C34, the 5th core
Sheet U5, second end of the 33rd electric capacity C33, second end of the 32nd electric capacity C32, second end of the 31st electric capacity C31,
The negative pole of the 35th electric capacity C35, the minus earth of the 34th electric capacity C34.
As a preferred embodiment of the present invention, described network communication bus includes fourth chip U4, the 15th resistance
R15, the 16th resistance R16, the 18th resistance R18, the 20th resistance R20, the 19th resistance R19, the 24th resistance R24,
28th resistance R28, the 27th electric capacity C27, the 29th electric capacity C29, the 28th electric capacity C28, the 30th electric capacity
C30, the 3rd metal-oxide-semiconductor M3 and network transformer B2;The main conversion that data signal mode is provided, it is achieved low-power consumption high isolation,
Improve reliability and the IPI grade of product;20th resistance R20 serves as terminal unit resistance, the 18th resistance R18, the 19th
Resistance R19 is a terminal resistance that can arrange, configuration determine that bringing onto load resistance is still without load resistance.
As a preferred embodiment of the present invention, shaking sensor includes the 51st moving back even electric capacity C51, the 52nd moving back
Even electric capacity C52, the 43rd resistance R43, the 42nd resistance R42 and sensor U1, Main Function is to perceive at product
Wake up MCU up by interruption in time when big vibrations and product upset, allow MCU process warning signal notice high in the clouds;Vibration-sensing
Device uses semiconductor acceleration obliquity sensor.
As a preferred embodiment of the present invention, ultra-low power consumption wireless data module includes the tenth chip U10, the 9th chip
U9, the 11st chip U11 and the 9th electric capacity C9, the 50th electric capacity C50, the 53rd electric capacity C53, the 54th electric capacity C54,
55th electric capacity C55, the 56th electric capacity C56, the 57th electric capacity C57, the 58th electric capacity C58, the 59th electric capacity
C59, the 60th electric capacity C60, the 61st electric capacity C61, the 62nd electric capacity C62, the 63rd electric capacity C63, the 64th electricity
Hold C64, the 65th electric capacity C65, the 66th electric capacity C66, the 67th electric capacity C67, the 68th electric capacity C68, the 60th
Nine electric capacity C69, the 70th electric capacity C70, the 71st electric capacity C71, the 72nd electric capacity C72, the 73rd electric capacity C73, the 7th
14 electric capacity C74, the 75th electric capacity C75, the 76th electric capacity C76, the 77th electric capacity C77, the 78th electric capacity C78,
79th electric capacity C79, the 80th electric capacity C80, the 81st electric capacity C81, the 82nd electric capacity C82, the 83rd electric capacity
C83, the 84th electric capacity C84, the 85th electric capacity C85, the 86th electric capacity C86, the 87th electric capacity C87, the 88th
Electric capacity C88, the 89th electric capacity C89, the second inductance L2, the 3rd inductance L3, the 4th inductance L4, the 5th inductance L5, the 6th inductance
L6, the 7th inductance L7, the 8th inductance L8, the 9th inductance L9, the tenth inductance L10, the 11st inductance L11, the 12nd inductance L12,
13rd inductance L13, the 14th inductance L14, the 15th inductance L15, the 3rd low-and high-frequency crystal oscillator OSC3, the second resistance R2, the 3rd
Resistance R3, the 39th resistance R39, the 40th resistance R40;
Tenth chip U10 connects first end of the 4th inductance L4, first end of the 3rd inductance L3, the second of the 4th inductance L4
End ground connection, second end of the 3rd inductance L3 connects first end of the 54th electric capacity C54, first end of the 50th electric capacity C50;The
The second end ground connection of 54 electric capacity C54, second end of the 50th electric capacity C50 passes through the second resistance R2, the 53rd electric capacity C53
Connect the 9th chip U9;
Tenth chip U10 connects first end of the 8th inductance L8, first end of the 64th electric capacity C64, the 60th electric capacity
First end of C60, the 8th inductance L8 second end connect first end of the tenth inductance L10, the first of the 65th electric capacity C65
End, first end of the 66th electric capacity C66, the second end ground connection of the 64th electric capacity C64, second end of the 60th electric capacity C60
Connect first end of the 5th inductance L5;Second end of the 5th inductance L5 connects first end of the 61st electric capacity C61, the 6th inductance
First end of L6, first end of the 57th electric capacity C57;The second end ground connection of the 61st electric capacity C61, the of the 6th inductance L6
Two ends, second end of the 57th electric capacity C57, first end of the 58th electric capacity C58, first end of the 7th inductance L7 connect the
First end of 62 electric capacity C62, the second end ground connection of the 62nd electric capacity C62;9th chip U9 connects the 58th electric capacity
Second end of C58, second end of the 7th inductance L7, first end of the 63rd electric capacity C63, the second of the 63rd electric capacity C63
End ground connection;
Tenth chip U10 connects first end of the 9th inductance L9, and second end of the 9th inductance L9 connects the 75th electric capacity
First end of C75, first end of the 70th electric capacity C70, the second end ground connection of the 75th electric capacity C75;70th electric capacity C70's
Second end connects first end of the 11st inductance L11;Second end of the 11st inductance L11 connects the of the 71st electric capacity C71
One end, first end of the 12nd inductance L12, first end of the 67th electric capacity C67, second termination of the 71st electric capacity C71
Ground;Second end of the 12nd inductance L12, second end of the 67th electric capacity C67, first end of the 13rd inductance L13, the 60th
First end of eight electric capacity C68 connects first end of the 72nd electric capacity C72, the second end ground connection of the 72nd electric capacity C72;Tenth
One chip U11 connects second end of the 13rd inductance L13, second end of the 68th electric capacity C68, the 78th electric capacity C78
First end, the second end ground connection of the 78th electric capacity C78;
Tenth chip U10 connects first end of the tenth inductance L10, second end of the 8th inductance L8, the 65th electric capacity C65
The first end, first end of the 66th electric capacity C66;Second end of the 65th electric capacity C65, the of the 66th electric capacity C66
Two end ground connection;
Tenth chip U10 connects first end of the 15th inductance L15, first end of the 84th electric capacity C84, the 15th electricity
Second end of sense L15 connects first end of the 85th electric capacity C85, first end of the 80th electric capacity C80;84th electric capacity
Second end of C84, the second end ground connection of the 85th electric capacity C85;Second end of the 80th electric capacity C80 is sequentially connected in series the 39th
Resistance R39, the 81st electric capacity C81 connect the 11st chip U11;
Tenth chip U10 connects first pin of the 3rd low-and high-frequency crystal oscillator OSC3, first end of the 78th electric capacity C78,
Second pin of the 3rd low-and high-frequency crystal oscillator OSC3 connects first end of the 79th electric capacity C79, the 3rd low-and high-frequency crystal oscillator OSC3's
Three-prong, second end of the 78th electric capacity C78, the second end ground connection of the 79th electric capacity C79;
9th chip U9 connects first end of the second inductance L2, first end of the 55th electric capacity C55, the second inductance L2's
Second end connects first end of the 56th electric capacity C56, second end of the 55th electric capacity C55, the of the 56th electric capacity C56
Two end ground connection;
11st chip U11 connection first end of the 14th inductance L14, first end of the 82nd electric capacity C82, the 14th
Second end of inductance L14 connects first end of the 83rd electric capacity C83, second end of the 82nd electric capacity C82, the 83rd electricity
Hold the second end ground connection of C83.
The beneficial effects of the present invention is: the smart city network node communication system that the present invention proposes, can be realized each
Network node low-power consumption communication.Present device principal and subordinate one, divides main equipment and from equipment when of use, main equipment is responsible for logical
Cross GPRS/BDS data module and connect network data platform, carry out data friendship from node by low power consumption data passage and main equipment
Change.
Accompanying drawing explanation
Fig. 1 is the composition schematic diagram of smart city of the present invention network node communication system.
Fig. 2 is the circuit diagram of power supply and electric power management circuit.
Fig. 3 is the circuit diagram of MUC part.
Fig. 4 is the circuit diagram of data communication module.
Fig. 5 is the circuit diagram of network communication bus.
Fig. 6 is the circuit diagram of shaking sensor.
Fig. 7 is the circuit diagram of ultra-low power consumption wireless data module.
Detailed description of the invention
Describe the preferred embodiments of the present invention below in conjunction with the accompanying drawings in detail.
Embodiment one
Refer to Fig. 1, present invention is disclosed a kind of smart city network node communication system, described network node communication system
If system includes that dry contact, at least one node are that host node, at least one node are for from node.
Each node all includes power supply and electric power management circuit 1, MCU 2, data communication module 3, network communication bus 4, shake
Dynamic sensor 5, ultra-low power consumption wireless data module 6, a holonomic system of composition, whole system is enclosed in plastic containers.
Data communication module 3 includes GPRS module or/and BDS module.
When shaking sensor electric circuit inspection to state changes when, host node MCU passes through GPRS alarm coding
Module is or/and BDS module is sent to the big data platform of far-end, and MCU is per hour automatically to battery voltage detection, and assesses residue electricity
Amount, if electricity is sufficient, that is sending period distances wakeup time transmission current electric quantity, otherwise timely turn-on data communication module
Inform that big data platform needs to change.
Arriving when the periodic awakening time, system has first checked whether short-message instruction, first processes if had, the most actively
It is connected to teledata platform, as data platform has instruction to perform instruction, the most just submits periodic report;
If node is with sensor network, node is automatically collected the sensing data of current time and is actively returned report;
Reading sensing data can be provided reference time benchmark and acquisition set of time to reach the side of plesiochronous collection by high in the clouds
Formula gathers.
When needing alarm from node, from node M CU by ultra-low power consumption wireless module and host node super low-power consumption module
Exchange data, host node be responsible for from node and teledata platform by self super low-power consumption module and GPRS module or/
Data Bridge is set up with BDS module.
Directly data are initiated to host node, host node by teledata platform when teledata platform needs to set up communication
Waken up up by super low-power consumption data module and set up data cube computation exchange data from node or be controlled;When also needing to bridge from node
The when of connecing other sensors, data turn receipts from network communication Bus repeater again;Products application passes in remote meter reading, remote alarms
Sensor, remote environment sensor and the monitoring of city manhole cover.
Refer to Fig. 2, power supply and electric power management circuit and comprise battery, manostat LDO (including the 6th chip U6) and can
The on and off switch (including the 7th chip U7) controlled;Wherein, battery BAT3 is system groundwork power supply, for solaode,
The power circuit that 39th electric capacity C39, the 40th electric capacity C40, the 38th electric capacity C38 and the 6th chip U6 are constituted is to MCU
Continual power supply is provided.
The positive pole VCC of battery BAT3 connect the input port of the 6th chip U6, the positive pole of the 39th electric capacity C39, the 4th
The positive pole of ten electric capacity C40, the input port of the 6th chip U6 connects the positive pole of the 38th electric capacity C38, the 39th electric capacity C39
Negative pole, the negative pole of the 40th electric capacity C40, the negative pole of the 38th electric capacity C38, the minus earth of battery BAT3.
By the 43rd electric capacity C43, the 44th electric capacity C44, the 45th electric capacity C45, the 49th electric capacity C49,
42 electric capacity C42, the 48th electric capacity C48, the 46th electric capacity C46, the 47th electric capacity C47, the 37th resistance
R37, the 36th resistance R36, the 38th resistance R38, the second diode D2, the first inductance L1 and the 7th chip U7 composition
Controlled DCDC provides the power supply that can turn off to data communication module, and control signal passes through the 37th resistance from the GPS_S of MCU
R37 is given to the 3rd foot EN of the 7th chip U7 and controls port.
The positive pole of battery BAT3 connect the positive pole of the 43rd electric capacity C43, the positive pole of the 44th electric capacity C44, the 40th
The positive pole of five electric capacity C45, the VIN port of the 7th chip U7, the EN port of the 7th chip U7 is connected by the 37th resistance
The SS port ground connection of MCU, the 7th chip U7;7th port of the 7th chip U7 connects first end of the 42nd electric capacity C42, the
The SW port of seven chip U7 connect second end of the 42nd electric capacity C42, the negative pole of the second diode D2, the of the first inductance L1
One end;The GS port of the 7th chip U7, the plus earth of the second diode D2;Second end of the first inductance L1 connects the 48th
First end of electric capacity C48, first end of the 36th resistance R36, the positive pole of the 46th electric capacity C46, the 47th electric capacity C47
Positive pole;The FB port of the 7th chip U7 connect second end of the 48th electric capacity C48, second end of the 36th resistance R36,
First end of the 38th resistance R38, the second end ground connection of the 38th resistance R38.
Refer to Fig. 3, described MCU and include the first chip U1, the first low-and high-frequency crystal oscillator OSC1, the second low-and high-frequency crystal oscillator
OSC2, down Monitor Unit chip U2, boosting battery BAT1, some resistance, some electric capacity;Main provide serial ports ISP synchronous serial interface with
And AD sampling, and the action control ability such as battery voltage detection, burn out detection, mechanical movement detection;Wherein, the 17th resistance
R17, the 21st resistance R21, the 22nd resistance R22, the 23rd resistance R23, the circuit of the second metal-oxide-semiconductor M2 composition are used for
Gather the voltage condition of main battery, be used for assessing dump energy;Collection turns off the second metal-oxide-semiconductor M2 after terminating and avoids circuit extra
Static current of lcd;It is used for debugging and filling program (as shown in Figure 3) by P1 mouth.
Referring to Fig. 4, described data communication module includes SIM circuit, communicating circuit;SIM circuit includes the 3rd core
Sheet U3, the 20th electric capacity C20, the 16th electric capacity C16, the 21st electric capacity C21, the 23rd electric capacity C23, the 24th electric capacity
C24, the 25th electric capacity C25, the 26th electric capacity C26, the 22nd electric capacity C22;
Communicating circuit include fifth chip U5, the first diode D1, the first LED LED1, the 33rd electric capacity C33,
32 electric capacity C32, the 31st electric capacity C31, the 35th electric capacity C35, the 34th electric capacity C34, the 37th electric capacity
C37, the 36th electric capacity C36, the 41st electric capacity C41, the 29th electric capacity R29, the 30th electric capacity R30, the 31st electricity
Hold R31, the 32nd electric capacity R32, the 33rd electric capacity R33 and antenna ANT1 BT-ANT;Main MCU and the high in the clouds of being responsible for
Data communication, opens the when of necessary, the complete closedown of communication.
The negative pole of the first diode D1 connect first end of the 33rd electric capacity C33, the first of the 32nd electric capacity C32
End, first end of the 31st electric capacity C31, the positive pole of the 35th electric capacity C35, the positive pole of the 34th electric capacity C34, the 5th core
Sheet U5, second end of the 33rd electric capacity C33, second end of the 32nd electric capacity C32, second end of the 31st electric capacity C31,
The negative pole of the 35th electric capacity C35, the minus earth of the 34th electric capacity C34.
Refer to Fig. 5, described network communication bus include fourth chip U4, the 15th resistance R15, the 16th resistance R16,
18th resistance R18, the 20th resistance R20, the 19th resistance R19, the 24th resistance R24, the 28th resistance R28,
27 electric capacity C27, the 29th electric capacity C29, the 28th electric capacity C28, the 30th electric capacity C30, the 3rd metal-oxide-semiconductor M3 and net
Network transformator B2;The main conversion providing data signal mode, it is achieved low-power consumption high isolation, improves reliability and the IPI of product
Grade;20th resistance R20 serves as terminal unit resistance, and the 18th resistance R18, the 19th resistance R19 are one and can arrange
By configuration, terminal resistance, determines that bringing onto load resistance is still without load resistance.
Refer to Fig. 6, shaking sensor include the 51st move back even electric capacity C51, the 52nd move back even electric capacity C52, the 4th
13 resistance R43, the 42nd resistance R42 and sensor U1, Main Function is to perceive big vibrations and product at product
Wake up MCU up by interruption in time during product upset, allow MCU process warning signal notice high in the clouds;Shaking sensor uses quasiconductor to add
Speed obliquity sensor.
Referring to Fig. 7, ultra-low power consumption wireless data module includes the tenth chip U10, the 9th chip U9, the 11st chip
U11 and the 9th electric capacity C9, the 50th electric capacity C50, the 53rd electric capacity C53, the 54th electric capacity C54, the 55th electric capacity
C55, the 56th electric capacity C56, the 57th electric capacity C57, the 58th electric capacity C58, the 59th electric capacity C59, the 60th electricity
Hold C60, the 61st electric capacity C61, the 62nd electric capacity C62, the 63rd electric capacity C63, the 64th electric capacity C64, the 60th
Five electric capacity C65, the 66th electric capacity C66, the 67th electric capacity C67, the 68th electric capacity C68, the 69th electric capacity C69,
70 electric capacity C70, the 71st electric capacity C71, the 72nd electric capacity C72, the 73rd electric capacity C73, the 74th electric capacity C74,
75th electric capacity C75, the 76th electric capacity C76, the 77th electric capacity C77, the 78th electric capacity C78, the 79th electric capacity
C79, the 80th electric capacity C80, the 81st electric capacity C81, the 82nd electric capacity C82, the 83rd electric capacity C83, the 84th electricity
Hold C84, the 85th electric capacity C85, the 86th electric capacity C86, the 87th electric capacity C87, the 88th electric capacity C88, the 80th
Nine electric capacity C89, the second inductance L2, the 3rd inductance L3, the 4th inductance L4, the 5th inductance L5, the 6th inductance L6, the 7th inductance L7,
8th inductance L8, the 9th inductance L9, the tenth inductance L10, the 11st inductance L11, the 12nd inductance L12, the 13rd inductance L13,
14th inductance L14, the 15th inductance L15, the 3rd low-and high-frequency crystal oscillator OSC3, the second resistance R2, the 3rd resistance R3, the 39th
Resistance R39, the 40th resistance R40.
Tenth chip U10 connects first end of the 4th inductance L4, first end of the 3rd inductance L3, the second of the 4th inductance L4
End ground connection, second end of the 3rd inductance L3 connects first end of the 54th electric capacity C54, first end of the 50th electric capacity C50;The
The second end ground connection of 54 electric capacity C54, second end of the 50th electric capacity C50 passes through the second resistance R2, the 53rd electric capacity C53
Connect the 9th chip U9.
Tenth chip U10 connects first end of the 8th inductance L8, first end of the 64th electric capacity C64, the 60th electric capacity
First end of C60, the 8th inductance L8 second end connect first end of the tenth inductance L10, the first of the 65th electric capacity C65
End, first end of the 66th electric capacity C66, the second end ground connection of the 64th electric capacity C64, second end of the 60th electric capacity C60
Connect first end of the 5th inductance L5;Second end of the 5th inductance L5 connects first end of the 61st electric capacity C61, the 6th inductance
First end of L6, first end of the 57th electric capacity C57;The second end ground connection of the 61st electric capacity C61, the of the 6th inductance L6
Two ends, second end of the 57th electric capacity C57, first end of the 58th electric capacity C58, first end of the 7th inductance L7 connect the
First end of 62 electric capacity C62, the second end ground connection of the 62nd electric capacity C62;9th chip U9 connects the 58th electric capacity
Second end of C58, second end of the 7th inductance L7, first end of the 63rd electric capacity C63, the second of the 63rd electric capacity C63
End ground connection.
Tenth chip U10 connects first end of the 9th inductance L9, and second end of the 9th inductance L9 connects the 75th electric capacity
First end of C75, first end of the 70th electric capacity C70, the second end ground connection of the 75th electric capacity C75;70th electric capacity C70's
Second end connects first end of the 11st inductance L11;Second end of the 11st inductance L11 connects the of the 71st electric capacity C71
One end, first end of the 12nd inductance L12, first end of the 67th electric capacity C67, second termination of the 71st electric capacity C71
Ground;Second end of the 12nd inductance L12, second end of the 67th electric capacity C67, first end of the 13rd inductance L13, the 60th
First end of eight electric capacity C68 connects first end of the 72nd electric capacity C72, the second end ground connection of the 72nd electric capacity C72;Tenth
One chip U11 connects second end of the 13rd inductance L13, second end of the 68th electric capacity C68, the 78th electric capacity C78
First end, the second end ground connection of the 78th electric capacity C78.
Tenth chip U10 connects first end of the tenth inductance L10, second end of the 8th inductance L8, the 65th electric capacity C65
The first end, first end of the 66th electric capacity C66;Second end of the 65th electric capacity C65, the of the 66th electric capacity C66
Two end ground connection.
Tenth chip U10 connects first end of the 15th inductance L15, first end of the 84th electric capacity C84, the 15th electricity
Second end of sense L15 connects first end of the 85th electric capacity C85, first end of the 80th electric capacity C80;84th electric capacity
Second end of C84, the second end ground connection of the 85th electric capacity C85;Second end of the 80th electric capacity C80 is sequentially connected in series the 39th
Resistance R39, the 81st electric capacity C81 connect the 11st chip U11.
Tenth chip U10 connects first pin of the 3rd low-and high-frequency crystal oscillator OSC3, first end of the 78th electric capacity C78,
Second pin of the 3rd low-and high-frequency crystal oscillator OSC3 connects first end of the 79th electric capacity C79, the 3rd low-and high-frequency crystal oscillator OSC3's
Three-prong, second end of the 78th electric capacity C78, the second end ground connection of the 79th electric capacity C79.
9th chip U9 connects first end of the second inductance L2, first end of the 55th electric capacity C55, the second inductance L2's
Second end connects first end of the 56th electric capacity C56, second end of the 55th electric capacity C55, the of the 56th electric capacity C56
Two end ground connection;
11st chip U11 connection first end of the 14th inductance L14, first end of the 82nd electric capacity C82, the 14th
Second end of inductance L14 connects first end of the 83rd electric capacity C83, second end of the 82nd electric capacity C82, the 83rd electricity
Hold the second end ground connection of C83.
Embodiment two
A kind of smart city network node communication system, if described network node communication system includes dry contact, at least one
Node is that host node, at least one node are for from node;
Each node all include power supply and electric power management circuit, MCU, GPRS module or/and BDS module, network communication bus,
Shaking sensor, ultra-low power consumption wireless data module;
When shaking sensor electric circuit inspection to state changes when, host node MCU passes through GPRS alarm coding
Module is or/and BDS module is sent to the big data platform of far-end, and MCU, and commented automatically to battery voltage detection at interval of the time of setting
Estimating dump energy, if electricity is sufficient, that is sending period distances wakeup time transmission current electric quantity, otherwise timely turn-on data
Communication module informs that big data platform needs to change;
Arriving when the periodic awakening time, system has first checked whether short-message instruction, first processes if had, the most actively
It is connected to teledata platform, as data platform has instruction to perform instruction, the most just submits periodic report.
As a preferred embodiment of the present invention, if node is with sensor network, node collects current time automatically
Sensing data actively return report;Read sensing data and can be provided reference time benchmark and the time of acquisition by high in the clouds
Arrange and reach the mode of plesiochronous collection and gather;
When needing alarm from node, from node M CU by ultra-low power consumption wireless module and host node super low-power consumption module
Exchange data, host node be responsible for from node and teledata platform by self super low-power consumption module and GPRS module or/
Data Bridge is set up with BDS module;
Directly data are initiated to host node, host node by teledata platform when teledata platform needs to set up communication
Waken up up by super low-power consumption data module and set up data cube computation exchange data from node or be controlled;When also needing to bridge from node
The when of connecing other sensors, data turn receipts from network communication Bus repeater again;Products application passes in remote meter reading, remote alarms
Sensor, remote environment sensor and the monitoring of city manhole cover.
Network communication bus passes through isolating transformer communication;Network communication bus provides the structure of externally local networking, and
And the junction sensor on network can exchange data by the data communication module of Intelligent well cover and the biggest data platform.
The structure of shaking sensor, be used for realizing vibrations detection and installation direction carry when changing actively be sent to remote
Journey big data platform warning information.Shaking sensor can use semiconductor acceleration obliquity sensor.
Native system includes a photovoltaic cell, it is possible to sharing electric power to battery increases battery life.Ultra-low power consumption wireless module
The IC of SX1276 series can be used.
Smart city of the present invention network node communication system can serve as remote meter reading, remote alarms sensor, remote loop
The method of the data communications such as border sensor and city manhole cover monitoring.
Embodiment three
As it is shown in figure 1, in the smart city network node communication system of present invention announcement, node divides host node and from joint
Point, and principal and subordinate's one, from node by super low-power consumption module and host node exchange data, host node by GPRS/BDS module and
The mode of remote switch data.And remotely can pass through the network number from node by host node after communicating from node foundation
Ability and the method for the data of sensor in bus is obtained according to bus.
Smart city network node communication system includes 6 funtion parts.It is 1 respectively: power supply and electric power management circuit, 2:
Main control MCU, 3:GPRS/BDS data module, 4: network communication bus, 5: shaking sensor, 6: ultra-low power consumption wireless data mould
Block, a holonomic system of composition, whole system is enclosed in plastic containers.
When shaking sensor circuit 5 detects that state changes when, host node MCU passes through alarm coding
GPRS/BDS module is sent to the big data platform of far-end, and MCU is per hour automatically to battery voltage detection, and assesses dump energy,
If electricity is sufficient, that is sending period distances wakeup time transmission current electric quantity, and otherwise turn-on data communication module is accused in time
Know that big data platform needs to change.Arriving when the periodic awakening time, system has first checked whether short-message instruction, if had first
Processing, next is actively connected to teledata platform, as data platform has instruction to perform instruction, the most just submits periodic report.
If node is with sensor network, node is automatically collected the sensing data of current time and is actively returned report.Read sensing
The mode that device data can be provided reference time benchmark and acquisition set of time to reach plesiochronous collection by high in the clouds gathers.When
When node needs alarm, from node M CU by ultra-low power consumption wireless module and host node super low-power consumption module exchange data, main
Node is responsible for setting up data bridge from node and teledata platform by self super low-power consumption module and GPRS/BDS module
Connect.Directly initiated data by teledata platform when teledata platform needs to set up communication to pass through to host node, host node
Super low-power consumption data module wakes up up to be set up data cube computation exchange data from node or is controlled.When also needing to bridge it from node
The when of his sensor, data turn receipts from network communication Bus repeater again.Product can apply to remote meter reading, and remote alarms passes
Sensor, remote environment sensor and city manhole cover monitoring etc..
Power supply and electric power management circuit contain battery, LDO and the on and off switch that can control.Wherein battery BAT2 is
System groundwork power supply, the power circuit that electric capacity C39 C40 C38 and U6 is constituted provides continual power supply to MCU.By electricity
Hold the controlled of C43 C44 C45 C49 C42 C48 C46 C47 resistance R37 R36 R38 diode D2 inductance L1 and U7 composition
DCDC provides the electricity that can turn off former to GPRS data module, and control signal is given to the 3 foot EN of U7 from the GPS_S of MCU by R37
Control port.Circuit carries optional BAT3 (solaode), provides longer stand-by time.
MCU is by the U1 and low-and high-frequency crystal oscillator OSC1 OSC2 down Monitor Unit U2 boosting battery BAT1 of Fig. 3 and some other
The adnexa compositions such as resistance capacitance, main offer serial ports ISP synchronous serial interface and AD sampling, and the inspection of battery voltage detection, broken string
Survey, mechanical movement detects action control ability.Wherein the circuit of R17 R21 R22R23 M2 composition is used for gathering the electricity of main battery
Pressure situation, is used for assessing dump energy.Gather and turn off M2 after terminating and avoid the extra static current of lcd of circuit.It is used for adjusting by P1 mouth
Examination and the program of filling.
SIM circuit that GPRS data module is made up of C20 C16 C21 C23 C24 C25 C26 C22 U3 and by
D1 LED1 C33 C32 C31 C35 C34 C37 C36 C41 R29 R30 R31 R32 R33 and antenna ANT1 BT-
ANT and module U5 composition own.Main MCU and the data communication in high in the clouds be responsible for, opens the when of necessary, the complete closedown of communication.
Network communication bus is by chip U4 resistance R15 R16 R18 R20 R19 R24 R28 electric capacity C27 C29 C28
C30 MOS M3 and network transformer B2 composition.The main conversion providing data signal mode, is mainly characterized by low-power consumption high
Isolation, can improve reliability and the IPI grade of product.R20 act as terminal unit resistance, and R18 R19 is one and can arrange
Terminal resistance, can by configuration determine bringing onto load resistance still without load resistance.
Shaking sensor is formed by moving back even electric capacity C51 C52 resistance R43 R42 and sensor U1, and Main Function is to produce
Product wake up MCU up by interruption when perceiving big vibrations and product upset in time, allow MCU process warning signal notice high in the clouds.
Ultra-low power consumption wireless data module, by U1 U9 U11 and C9 C50 C53 C54 C55 C56 C57 C58
C59 C60 C61 C62 C63 C64 C65 C66 C67 C68 C69 C70 C71 C72 C73 C74 C75 C76 C77
C78 C79 C80 C81 C82 C83 C84 C85 C86 C87 C88 C89, L2 L3 L4 L5 L6 L7 L8 L9 L10
L11 L12 L13 L14 L15 R2 R3 R39 R40 forms.
In sum, the smart city network node communication system that the present invention proposes, the low merit of each network node can be realized
Consumption communication.Present device principal and subordinate one, divides main equipment and from equipment when of use, main equipment is responsible for by GPRS/BDS number
Connect network data platform according to module, carry out data exchange from node by low power consumption data passage and main equipment.
Here description of the invention and application is illustrative, is not wishing to limit the scope of the invention to above-described embodiment
In.The deformation of embodiments disclosed herein and change are possible, real for those skilled in the art
The various parts with equivalence of replacing executing example are known.It should be appreciated by the person skilled in the art that without departing from the present invention
Spirit or essential characteristics in the case of, the present invention can in other forms, structure, layout, ratio, and with other assembly,
Material and parts realize.In the case of without departing from scope and spirit of the present invention, embodiments disclosed herein can be entered
Other deformation of row and change.
Claims (9)
1. a smart city network node communication system, it is characterised in that described network node communication system includes some joints
Point, at least one node is that host node, at least one node are for from node;
Each node all include power supply and electric power management circuit, MCU, data communication module, network communication bus, shaking sensor,
Ultra-low power consumption wireless data module, a holonomic system of composition, whole system is enclosed in plastic containers;Data communication module
Including GPRS module or/and BDS module;
When shaking sensor electric circuit inspection to state changes when, host node MCU passes through GPRS module alarm coding
Or/and BDS module is sent to the big data platform of far-end, MCU is per hour automatically to battery voltage detection, and assesses dump energy,
If electricity is sufficient, that send period distances wakeup time send current electric quantity, the most in time open GPRS module or/and
BDS module informs that big data platform needs to change;
Arriving when the periodic awakening time, system has first checked whether short-message instruction, first processes if had, and the most actively connects
There is instruction to perform instruction to teledata platform, such as data platform, the most just submit periodic report;
If node is with sensor network, node is automatically collected the sensing data of current time and is actively returned report;Read
The mode that sensing data can be provided reference time benchmark and acquisition set of time to reach plesiochronous collection by high in the clouds is adopted
Collection;
When needing alarm from node, exchanged by ultra-low power consumption wireless module and host node super low-power consumption module from node M CU
Data, host node be responsible for from node and teledata platform by self super low-power consumption module and GPRS module or/and BDS
Module sets up Data Bridge;
Directly initiated data by teledata platform when teledata platform needs to set up communication to pass through to host node, host node
Super low-power consumption data module wakes up up to be set up data cube computation exchange data from node or is controlled;When also needing to bridge it from node
The when of his sensor, data turn receipts from network communication Bus repeater again;Products application in remote meter reading, remote alarms sensor,
Remote environment sensor and the monitoring of city manhole cover;
Power supply and electric power management circuit comprise battery, manostat LDO and controllable on and off switch;Wherein, battery BAT3 is
System groundwork power supply, for solaode, the 39th electric capacity C39, the 40th electric capacity C40, the 38th electric capacity C38 and
The power circuit that 6th chip U6 is constituted provides continual power supply to MCU;
The positive pole VCC of battery BAT3 connects the input port of the 6th chip U6, the positive pole of the 39th electric capacity C39, the 40th electricity
Holding the positive pole of C40, the input port of the 6th chip U6 connects the positive pole of the 38th electric capacity C38, and the 39th electric capacity C39's is negative
Pole, the negative pole of the 40th electric capacity C40, the negative pole of the 38th electric capacity C38, the minus earth of battery BAT3;
By the 43rd electric capacity C43, the 44th electric capacity C44, the 45th electric capacity C45, the 49th electric capacity C49, the 40th
Two electric capacity C42, the 48th electric capacity C48, the 46th electric capacity C46, the 47th electric capacity C47, the 37th resistance R37,
It is controlled that 36 resistance R36, the 38th resistance R38, the second diode D2, the first inductance L1 and the 7th chip U7 form
DCDC provides the power supply that can turn off to data communication module, and control signal passes through the 37th resistance R37 from the GPS_S of MCU
The 3rd foot EN being given to the 7th chip U7 controls port;
The positive pole of battery BAT3 connects the positive pole of the 43rd electric capacity C43, the positive pole of the 44th electric capacity C44, the 45th electricity
Holding the positive pole of C45, the VIN port of the 7th chip U7, the EN port of the 7th chip U7 connects MCU by the 37th resistance, the
The SS port ground connection of seven chip U7;7th port of the 7th chip U7 connects first end of the 42nd electric capacity C42, the 7th chip
The SW port of U7 connects second end of the 42nd electric capacity C42, the negative pole of the second diode D2, first end of the first inductance L1;
The GS port of the 7th chip U7, the plus earth of the second diode D2;Second end of the first inductance L1 connects the 48th electric capacity
First end of C48, first end of the 36th resistance R36, the positive pole of the 46th electric capacity C46, the 47th electric capacity C47 are just
Pole;The FB port of the 7th chip U7 connect second end of the 48th electric capacity C48, second end of the 36th resistance R36, the 3rd
First end of 18 resistance R38, the second end ground connection of the 38th resistance R38;
Described MCU includes the first chip U1, the first low-and high-frequency crystal oscillator OSC1, the second low-and high-frequency crystal oscillator OSC2, down Monitor Unit chip
U2, boosting battery BAT1, some resistance, some electric capacity;Main offer serial ports ISP synchronous serial interface and AD sampling, and battery
Voltage detecting, burn out detection, mechanical movement detection action control ability;Wherein, the 17th resistance R17, the 21st resistance
R21, the 22nd resistance R22, the 23rd resistance R23, the circuit of the second metal-oxide-semiconductor M2 composition are used for gathering the voltage of main battery
Situation, is used for assessing dump energy;Gather and turn off the second metal-oxide-semiconductor M2 after terminating and avoid the extra static current of lcd of circuit;Pass through P1
Mouth is used for debugging and filling program;
Described data communication module includes SIM circuit, communicating circuit;SIM circuit includes the 3rd chip U3, the 20th electric capacity
C20, the 16th electric capacity C16, the 21st electric capacity C21, the 23rd electric capacity C23, the 24th electric capacity C24, the 25th electricity
Hold C25, the 26th electric capacity C26, the 22nd electric capacity C22;
Communicating circuit include fifth chip U5, the first diode D1, the first LED LED1, the 33rd electric capacity C33, the 30th
Two electric capacity C32, the 31st electric capacity C31, the 35th electric capacity C35, the 34th electric capacity C34, the 37th electric capacity C37,
36 electric capacity C36, the 41st electric capacity C41, the 29th electric capacity R29, the 30th electric capacity R30, the 31st electric capacity R31,
32nd electric capacity R32, the 33rd electric capacity R33 and antenna ANT1BT-ANT;The data in the main MCU of being responsible for and high in the clouds are led to
News, open the when of necessary, the complete closedown of communication;
The negative pole of the first diode D1 connect first end of the 33rd electric capacity C33, first end of the 32nd electric capacity C32, the
First end of 31 electric capacity C31, the positive pole of the 35th electric capacity C35, the positive pole of the 34th electric capacity C34, fifth chip U5,
Second end of the 33rd electric capacity C33, second end of the 32nd electric capacity C32, second end of the 31st electric capacity C31, the 3rd
The negative pole of 15 electric capacity C35, the minus earth of the 34th electric capacity C34;
Described network communication bus include fourth chip U4, the 15th resistance R15, the 16th resistance R16, the 18th resistance R18,
20th resistance R20, the 19th resistance R19, the 24th resistance R24, the 28th resistance R28, the 27th electric capacity C27,
29th electric capacity C29, the 28th electric capacity C28, the 30th electric capacity C30, the 3rd metal-oxide-semiconductor M3 and network transformer B2;Main
The conversion of data signal mode to be provided, it is achieved low-power consumption high isolation, improves reliability and the IPI grade of product;20th electricity
Resistance R20 serves as terminal unit resistance, and the 18th resistance R18, the 19th resistance R19 are terminal resistances that can arrange, by joining
Put decision bringing onto load resistance still without load resistance;
Shaking sensor include the 51st move back even electric capacity C51, the 52nd move back even electric capacity C52, the 43rd resistance R43, the
42 resistance R42 and sensor U1, Main Function is to lead in time when product perceives big vibrations and product upset
Cross interruption and wake up MCU up, allow MCU process warning signal notice high in the clouds;Shaking sensor uses semiconductor acceleration obliquity sensor;
Ultra-low power consumption wireless data module includes the tenth chip U10, the 9th chip U9, the 11st chip U11 and the 9th electric capacity
C9, the 50th electric capacity C50, the 53rd electric capacity C53, the 54th electric capacity C54, the 55th electric capacity C55, the 56th electric capacity
C56, the 57th electric capacity C57, the 58th electric capacity C58, the 59th electric capacity C59, the 60th electric capacity C60, the 61st electricity
Hold C61, the 62nd electric capacity C62, the 63rd electric capacity C63, the 64th electric capacity C64, the 65th electric capacity C65, the 60th
Six electric capacity C66, the 67th electric capacity C67, the 68th electric capacity C68, the 69th electric capacity C69, the 70th electric capacity C70, the 7th
11 electric capacity C71, the 72nd electric capacity C72, the 73rd electric capacity C73, the 74th electric capacity C74, the 75th electric capacity C75,
76th electric capacity C76, the 77th electric capacity C77, the 78th electric capacity C78, the 79th electric capacity C79, the 80th electric capacity
C80, the 81st electric capacity C81, the 82nd electric capacity C82, the 83rd electric capacity C83, the 84th electric capacity C84, the 85th
Electric capacity C85, the 86th electric capacity C86, the 87th electric capacity C87, the 88th electric capacity C88, the 89th electric capacity C89, second
Inductance L2, the 3rd inductance L3, the 4th inductance L4, the 5th inductance L5, the 6th inductance L6, the 7th inductance L7, the 8th inductance L8, the 9th
Inductance L9, the tenth inductance L10, the 11st inductance L11, the 12nd inductance L12, the 13rd inductance L13, the 14th inductance L14,
15 inductance L15, the 3rd low-and high-frequency crystal oscillator OSC3, the second resistance R2, the 3rd resistance R3, the 39th resistance R39, the 40th electricity
Resistance R40;
Tenth chip U10 connects first end of the 4th inductance L4, first end of the 3rd inductance L3, second termination of the 4th inductance L4
Ground, second end of the 3rd inductance L3 connects first end of the 54th electric capacity C54, first end of the 50th electric capacity C50;50th
The second end ground connection of four electric capacity C54, second end of the 50th electric capacity C50 is connected by the second resistance R2, the 53rd electric capacity C53
9th chip U9;
Tenth chip U10 connects first end of the 8th inductance L8, first end of the 64th electric capacity C64, the 60th electric capacity C60
First end, the 8th inductance L8 second end connect first end of the tenth inductance L10, first end of the 65th electric capacity C65, the 6th
First end of 16 electric capacity C66, the second end ground connection of the 64th electric capacity C64, second end of the 60th electric capacity C60 connects the 5th
First end of inductance L5;5th inductance L5 second end connect first end of the 61st electric capacity C61, the first of the 6th inductance L6
End, first end of the 57th electric capacity C57;The second end ground connection of the 61st electric capacity C61, second end of the 6th inductance L6,
Second end of 57 electric capacity C57, first end of the 58th electric capacity C58, first end of the 7th inductance L7 connect the 62nd
First end of electric capacity C62, the second end ground connection of the 62nd electric capacity C62;9th chip U9 connects the of the 58th electric capacity C58
Two ends, second end of the 7th inductance L7, first end of the 63rd electric capacity C63, the second end ground connection of the 63rd electric capacity C63;
Tenth chip U10 connects first end of the 9th inductance L9, and second end of the 9th inductance L9 connects the 75th electric capacity C75's
First end, first end of the 70th electric capacity C70, the second end ground connection of the 75th electric capacity C75;The second of 70th electric capacity C70
End connects first end of the 11st inductance L11;11st inductance L11 second end connect the 71st electric capacity C71 the first end,
First end of the 12nd inductance L12, first end of the 67th electric capacity C67, the second end ground connection of the 71st electric capacity C71;The
Second end of 12 inductance L12, second end of the 67th electric capacity C67, first end of the 13rd inductance L13, the 68th electricity
The first end holding C68 connects first end of the 72nd electric capacity C72, the second end ground connection of the 72nd electric capacity C72;11st core
Sheet U11 connect second end of the 13rd inductance L13, second end of the 68th electric capacity C68, the first of the 78th electric capacity C78
End, the second end ground connection of the 78th electric capacity C78;
Tenth chip U10 connect first end of the tenth inductance L10, second end of the 8th inductance L8, the of the 65th electric capacity C65
One end, first end of the 66th electric capacity C66;Second end of the 65th electric capacity C65, second end of the 66th electric capacity C66
Ground connection;
Tenth chip U10 connects first end of the 15th inductance L15, first end of the 84th electric capacity C84, the 15th inductance
Second end of L15 connects first end of the 85th electric capacity C85, first end of the 80th electric capacity C80;84th electric capacity C84
The second end, the second end ground connection of the 85th electric capacity C85;Second end of the 80th electric capacity C80 is sequentially connected in series the 39th electricity
Resistance R39, the 81st electric capacity C81 connect the 11st chip U11;
Tenth chip U10 connection first pin of the 3rd low-and high-frequency crystal oscillator OSC3, first end of the 78th electric capacity C78, the 3rd
Second pin of low-and high-frequency crystal oscillator OSC3 connects first end of the 79th electric capacity C79, the 3rd of the 3rd low-and high-frequency crystal oscillator OSC3
Pin, second end of the 78th electric capacity C78, the second end ground connection of the 79th electric capacity C79;
9th chip U9 connects first end of the second inductance L2, first end of the 55th electric capacity C55, the second of the second inductance L2
End connects first end of the 56th electric capacity C56, second end of the 55th electric capacity C55, second end of the 56th electric capacity C56
Ground connection;
11st chip U11 connects first end of the 14th inductance L14, first end of the 82nd electric capacity C82, the 14th inductance
Second end of L14 connects first end of the 83rd electric capacity C83, second end of the 82nd electric capacity C82, the 83rd electric capacity
The second end ground connection of C83.
2. a smart city network node communication system, it is characterised in that described network node communication system includes some joints
Point, at least one node is that host node, at least one node are for from node;
Each node all include power supply and electric power management circuit, MCU, data communication module, network communication bus, shaking sensor,
Ultra-low power consumption wireless data module;Data communication module includes GPRS module or/and BDS module;
When shaking sensor electric circuit inspection to state changes when, host node MCU passes through GPRS module alarm coding
Or/and BDS module is sent to the big data platform of far-end, MCU automatically to battery voltage detection, and assesses surplus at interval of the time of setting
Remaining electricity, if electricity is sufficient, that is sending period distances wakeup time transmission current electric quantity, otherwise turn-on data communication in time
Module informs that big data platform needs to change;
Arriving when the periodic awakening time, system has first checked whether short-message instruction, first processes if had, and the most actively connects
There is instruction to perform instruction to teledata platform, such as data platform, the most just submit periodic report.
Smart city the most according to claim 2 network node communication system, it is characterised in that:
If node is with sensor network, node is automatically collected the sensing data of current time and is actively returned report;Read
The mode that sensing data can be provided reference time benchmark and acquisition set of time to reach plesiochronous collection by high in the clouds is adopted
Collection;
When needing alarm from node, exchanged by ultra-low power consumption wireless module and host node super low-power consumption module from node M CU
Data, host node be responsible for from node and teledata platform by self super low-power consumption module and GPRS module or/and BDS
Module sets up Data Bridge;
Directly initiated data by teledata platform when teledata platform needs to set up communication to pass through to host node, host node
Super low-power consumption data module wakes up up to be set up data cube computation exchange data from node or is controlled;When also needing to bridge it from node
The when of his sensor, data turn receipts from network communication Bus repeater again;Products application in remote meter reading, remote alarms sensor,
Remote environment sensor and the monitoring of city manhole cover.
Smart city the most according to claim 2 network node communication system, it is characterised in that:
Power supply and electric power management circuit comprise battery, manostat LDO and controllable on and off switch;Wherein, battery BAT3 is
System groundwork power supply, for solaode, the 39th electric capacity C39, the 40th electric capacity C40, the 38th electric capacity C38 and
The power circuit that 6th chip U6 is constituted provides continual power supply to MCU;
The positive pole VCC of battery BAT3 connects the input port of the 6th chip U6, the positive pole of the 39th electric capacity C39, the 40th electricity
Holding the positive pole of C40, the input port of the 6th chip U6 connects the positive pole of the 38th electric capacity C38, and the 39th electric capacity C39's is negative
Pole, the negative pole of the 40th electric capacity C40, the negative pole of the 38th electric capacity C38, the minus earth of battery BAT3;
By the 43rd electric capacity C43, the 44th electric capacity C44, the 45th electric capacity C45, the 49th electric capacity C49, the 40th
Two electric capacity C42, the 48th electric capacity C48, the 46th electric capacity C46, the 47th electric capacity C47, the 37th resistance R37,
It is controlled that 36 resistance R36, the 38th resistance R38, the second diode D2, the first inductance L1 and the 7th chip U7 form
DCDC provides the power supply that can turn off to data communication module, and control signal passes through the 37th resistance R37 from the GPS_S of MCU
The 3rd foot EN being given to the 7th chip U7 controls port;
The positive pole of battery BAT3 connects the positive pole of the 43rd electric capacity C43, the positive pole of the 44th electric capacity C44, the 45th electricity
Holding the positive pole of C45, the VIN port of the 7th chip U7, the EN port of the 7th chip U7 connects MCU by the 37th resistance, the
The SS port ground connection of seven chip U7;7th port of the 7th chip U7 connects first end of the 42nd electric capacity C42, the 7th chip
The SW port of U7 connects second end of the 42nd electric capacity C42, the negative pole of the second diode D2, first end of the first inductance L1;
The GS port of the 7th chip U7, the plus earth of the second diode D2;Second end of the first inductance L1 connects the 48th electric capacity
First end of C48, first end of the 36th resistance R36, the positive pole of the 46th electric capacity C46, the 47th electric capacity C47 are just
Pole;The FB port of the 7th chip U7 connect second end of the 48th electric capacity C48, second end of the 36th resistance R36, the 3rd
First end of 18 resistance R38, the second end ground connection of the 38th resistance R38.
Smart city the most according to claim 2 network node communication system, it is characterised in that:
Described MCU includes the first chip U1, the first low-and high-frequency crystal oscillator OSC1, the second low-and high-frequency crystal oscillator OSC2, down Monitor Unit chip
U2, boosting battery BAT1, some resistance, some electric capacity;Main offer serial ports ISP synchronous serial interface and AD sampling, and battery
Voltage detecting, burn out detection, mechanical movement detection action control ability;Wherein, the 17th resistance R17, the 21st resistance
R21, the 22nd resistance R22, the 23rd resistance R23, the circuit of the second metal-oxide-semiconductor M2 composition are used for gathering the voltage of main battery
Situation, is used for assessing dump energy;Gather and turn off the second metal-oxide-semiconductor M2 after terminating and avoid the extra static current of lcd of circuit;Pass through P1
Mouth is used for debugging and filling program.
Smart city the most according to claim 2 network node communication system, it is characterised in that:
Described data communication module includes SIM circuit, communicating circuit;SIM circuit includes the 3rd chip U3, the 20th electric capacity
C20, the 16th electric capacity C16, the 21st electric capacity C21, the 23rd electric capacity C23, the 24th electric capacity C24, the 25th electricity
Hold C25, the 26th electric capacity C26, the 22nd electric capacity C22;
Communicating circuit include fifth chip U5, the first diode D1, the first LED LED1, the 33rd electric capacity C33, the 30th
Two electric capacity C32, the 31st electric capacity C31, the 35th electric capacity C35, the 34th electric capacity C34, the 37th electric capacity C37,
36 electric capacity C36, the 41st electric capacity C41, the 29th electric capacity R29, the 30th electric capacity R30, the 31st electric capacity R31,
32nd electric capacity R32, the 33rd electric capacity R33 and antenna ANT1BT-ANT;The data in the main MCU of being responsible for and high in the clouds are led to
News, open the when of necessary, the complete closedown of communication;
The negative pole of the first diode D1 connect first end of the 33rd electric capacity C33, first end of the 32nd electric capacity C32, the
First end of 31 electric capacity C31, the positive pole of the 35th electric capacity C35, the positive pole of the 34th electric capacity C34, fifth chip U5,
Second end of the 33rd electric capacity C33, second end of the 32nd electric capacity C32, second end of the 31st electric capacity C31, the 3rd
The negative pole of 15 electric capacity C35, the minus earth of the 34th electric capacity C34.
Smart city the most according to claim 2 network node communication system, it is characterised in that:
Described network communication bus include fourth chip U4, the 15th resistance R15, the 16th resistance R16, the 18th resistance R18,
20th resistance R20, the 19th resistance R19, the 24th resistance R24, the 28th resistance R28, the 27th electric capacity C27,
29th electric capacity C29, the 28th electric capacity C28, the 30th electric capacity C30, the 3rd metal-oxide-semiconductor M3 and network transformer B2;Main
The conversion of data signal mode to be provided, it is achieved low-power consumption high isolation, improves reliability and the IPI grade of product;20th electricity
Resistance R20 serves as terminal unit resistance, and the 18th resistance R18, the 19th resistance R19 are terminal resistances that can arrange, by joining
Put decision bringing onto load resistance still without load resistance.
Smart city the most according to claim 2 network node communication system, it is characterised in that:
Shaking sensor include the 51st move back even electric capacity C51, the 52nd move back even electric capacity C52, the 43rd resistance R43, the
42 resistance R42 and sensor U1, Main Function is to lead in time when product perceives big vibrations and product upset
Cross interruption and wake up MCU up, allow MCU process warning signal notice high in the clouds;Shaking sensor uses semiconductor acceleration obliquity sensor.
Smart city the most according to claim 2 network node communication system, it is characterised in that:
Ultra-low power consumption wireless data module includes the tenth chip U10, the 9th chip U9, the 11st chip U11 and the 9th electric capacity
C9, the 50th electric capacity C50, the 53rd electric capacity C53, the 54th electric capacity C54, the 55th electric capacity C55, the 56th electric capacity
C56, the 57th electric capacity C57, the 58th electric capacity C58, the 59th electric capacity C59, the 60th electric capacity C60, the 61st electricity
Hold C61, the 62nd electric capacity C62, the 63rd electric capacity C63, the 64th electric capacity C64, the 65th electric capacity C65, the 60th
Six electric capacity C66, the 67th electric capacity C67, the 68th electric capacity C68, the 69th electric capacity C69, the 70th electric capacity C70, the 7th
11 electric capacity C71, the 72nd electric capacity C72, the 73rd electric capacity C73, the 74th electric capacity C74, the 75th electric capacity C75,
76th electric capacity C76, the 77th electric capacity C77, the 78th electric capacity C78, the 79th electric capacity C79, the 80th electric capacity
C80, the 81st electric capacity C81, the 82nd electric capacity C82, the 83rd electric capacity C83, the 84th electric capacity C84, the 85th
Electric capacity C85, the 86th electric capacity C86, the 87th electric capacity C87, the 88th electric capacity C88, the 89th electric capacity C89, second
Inductance L2, the 3rd inductance L3, the 4th inductance L4, the 5th inductance L5, the 6th inductance L6, the 7th inductance L7, the 8th inductance L8, the 9th
Inductance L9, the tenth inductance L10, the 11st inductance L11, the 12nd inductance L12, the 13rd inductance L13, the 14th inductance L14,
15 inductance L15, the 3rd low-and high-frequency crystal oscillator OSC3, the second resistance R2, the 3rd resistance R3, the 39th resistance R39, the 40th electricity
Resistance R40;
Tenth chip U10 connects first end of the 4th inductance L4, first end of the 3rd inductance L3, second termination of the 4th inductance L4
Ground, second end of the 3rd inductance L3 connects first end of the 54th electric capacity C54, first end of the 50th electric capacity C50;50th
The second end ground connection of four electric capacity C54, second end of the 50th electric capacity C50 is connected by the second resistance R2, the 53rd electric capacity C53
9th chip U9;
Tenth chip U10 connects first end of the 8th inductance L8, first end of the 64th electric capacity C64, the 60th electric capacity C60
First end, the 8th inductance L8 second end connect first end of the tenth inductance L10, first end of the 65th electric capacity C65, the 6th
First end of 16 electric capacity C66, the second end ground connection of the 64th electric capacity C64, second end of the 60th electric capacity C60 connects the 5th
First end of inductance L5;5th inductance L5 second end connect first end of the 61st electric capacity C61, the first of the 6th inductance L6
End, first end of the 57th electric capacity C57;The second end ground connection of the 61st electric capacity C61, second end of the 6th inductance L6,
Second end of 57 electric capacity C57, first end of the 58th electric capacity C58, first end of the 7th inductance L7 connect the 62nd
First end of electric capacity C62, the second end ground connection of the 62nd electric capacity C62;9th chip U9 connects the of the 58th electric capacity C58
Two ends, second end of the 7th inductance L7, first end of the 63rd electric capacity C63, the second end ground connection of the 63rd electric capacity C63;
Tenth chip U10 connects first end of the 9th inductance L9, and second end of the 9th inductance L9 connects the 75th electric capacity C75's
First end, first end of the 70th electric capacity C70, the second end ground connection of the 75th electric capacity C75;The second of 70th electric capacity C70
End connects first end of the 11st inductance L11;11st inductance L11 second end connect the 71st electric capacity C71 the first end,
First end of the 12nd inductance L12, first end of the 67th electric capacity C67, the second end ground connection of the 71st electric capacity C71;The
Second end of 12 inductance L12, second end of the 67th electric capacity C67, first end of the 13rd inductance L13, the 68th electricity
The first end holding C68 connects first end of the 72nd electric capacity C72, the second end ground connection of the 72nd electric capacity C72;11st core
Sheet U11 connect second end of the 13rd inductance L13, second end of the 68th electric capacity C68, the first of the 78th electric capacity C78
End, the second end ground connection of the 78th electric capacity C78;
Tenth chip U10 connect first end of the tenth inductance L10, second end of the 8th inductance L8, the of the 65th electric capacity C65
One end, first end of the 66th electric capacity C66;Second end of the 65th electric capacity C65, second end of the 66th electric capacity C66
Ground connection;
Tenth chip U10 connects first end of the 15th inductance L15, first end of the 84th electric capacity C84, the 15th inductance
Second end of L15 connects first end of the 85th electric capacity C85, first end of the 80th electric capacity C80;84th electric capacity C84
The second end, the second end ground connection of the 85th electric capacity C85;Second end of the 80th electric capacity C80 is sequentially connected in series the 39th electricity
Resistance R39, the 81st electric capacity C81 connect the 11st chip U11;
Tenth chip U10 connection first pin of the 3rd low-and high-frequency crystal oscillator OSC3, first end of the 78th electric capacity C78, the 3rd
Second pin of low-and high-frequency crystal oscillator OSC3 connects first end of the 79th electric capacity C79, the 3rd of the 3rd low-and high-frequency crystal oscillator OSC3
Pin, second end of the 78th electric capacity C78, the second end ground connection of the 79th electric capacity C79;
9th chip U9 connects first end of the second inductance L2, first end of the 55th electric capacity C55, the second of the second inductance L2
End connects first end of the 56th electric capacity C56, second end of the 55th electric capacity C55, second end of the 56th electric capacity C56
Ground connection;
11st chip U11 connects first end of the 14th inductance L14, first end of the 82nd electric capacity C82, the 14th inductance
Second end of L14 connects first end of the 83rd electric capacity C83, second end of the 82nd electric capacity C82, the 83rd electric capacity
The second end ground connection of C83.
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Cited By (2)
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CN108615103A (en) * | 2016-12-13 | 2018-10-02 | 上海仪电(集团)有限公司中央研究院 | Smart city application based on container technique increases method and device |
CN109842849A (en) * | 2018-07-20 | 2019-06-04 | 上海赋锦信息技术有限公司 | A kind of airport catch and personnel location system |
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