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CN208705494U - A kind of satellite transmission marine magnetism detection device - Google Patents

A kind of satellite transmission marine magnetism detection device Download PDF

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Publication number
CN208705494U
CN208705494U CN201821489377.8U CN201821489377U CN208705494U CN 208705494 U CN208705494 U CN 208705494U CN 201821489377 U CN201821489377 U CN 201821489377U CN 208705494 U CN208705494 U CN 208705494U
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CN
China
Prior art keywords
sea surface
sea
marine
seabed
magnetic
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CN201821489377.8U
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Chinese (zh)
Inventor
华清峰
李正光
李先锋
郑彦鹏
刘保华
裴彦良
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First Institute of Oceanography SOA
National Deep Sea Center
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First Institute of Oceanography SOA
National Deep Sea Center
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Priority to CN201821489377.8U priority Critical patent/CN208705494U/en
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    • YGENERAL 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
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02ATECHNOLOGIES FOR ADAPTATION TO CLIMATE CHANGE
    • Y02A90/00Technologies having an indirect contribution to adaptation to climate change
    • Y02A90/30Assessment of water resources

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  • Measuring Magnetic Variables (AREA)
  • Geophysics And Detection Of Objects (AREA)

Abstract

本实用新型公开一种卫星传输海洋磁力探测装置。该探测装置中,海底设备与海面设备通过锚系连接;海面设备包括海面卫星收发装置和海面数传装置;锚系包括铠装缆、水中浮体、海面连接件和海底连接件;海底设备包括海底地震仪、海底数传装置、无磁底锚重块和声学释放器;海底磁力仪和总场磁力仪分别实时采集海中不同深度的磁力信号和海底的磁力信号,并将磁力信号依次通过铠装缆、海面数传装置和海面卫星收发装置发送到岸基实验室实现海底振动信号的实时探测。本实用新型的卫星传输海洋磁力探测装置,能提升调查船远海海洋磁测数据精度。

The utility model discloses a satellite transmission ocean magnetic detection device. In the detection device, the seabed equipment and the sea surface equipment are connected by mooring systems; the sea surface equipment includes a sea surface satellite transceiver device and a sea surface data transmission device; the mooring system includes armored cables, underwater floating bodies, sea surface connectors and seabed connectors; the seabed equipment includes seabed Seismographs, submarine data transmission devices, non-magnetic bottom anchor weights and acoustic releasers; submarine magnetometers and total field magnetometers collect real-time magnetic signals at different depths in the sea and the seabed, respectively, and pass the magnetic signals through the armored The cable, sea surface data transmission device and sea surface satellite transceiver device are sent to the shore-based laboratory to realize real-time detection of seabed vibration signals. The satellite transmission marine magnetic detection device of the utility model can improve the accuracy of the marine magnetic survey data in the far sea of the survey ship.

Description

A kind of satellite transmission marine magnetism detection device
Technical field
The utility model relates to marine geophysical survey fields, more particularly to a kind of transmission marine magnetism detection of satellite Device.
Background technique
Marine magnetism detection is a kind of essential detection means of marine geophysical survey, is ground in subbottom structure science Study carefully, the fields such as Marine oil and gas resource is reconnoitred, ocean engineering, military target tracking and monitoring are used widely.
Current marine magnetism detection is mainly carried out using research vessel towing mode, due to the interference of sun diurnal variation, is made Research vessel marine magnetic survey data have to pass through diurnal correction and could use.But become the observation station rareness marine geomagnetic day, this leads Cause off-lying sea marine magnetism detection data accuracy decline.
Further, since seawater is conductor, seawater, ocean current etc. have great influence to Distribution of Magnetic Field, and seabed geomagnetic diurnal change is seen Becoming observation data the day that scaffold tower station obtains will receive the influence of sea water layer and is distorted, and causes far-reaching extra large mgnetic observations day to become and changes Just not exclusively, the precision of marine magnetic survey is reduced.
Utility model content
The purpose of the utility model is to provide a kind of satellites to transmit marine magnetism detection device, promotes research vessel off-lying sea ocean Magnetic data precision.
To achieve the above object, the utility model provides following scheme:
A kind of satellite transmission marine magnetism detection device, comprising: undersea device and offshore installations, the undersea device are laid In seabed;The offshore installations float on sea;The undersea device is connect with the offshore installations by anchor system;
The offshore installations include that sea satellite R-T unit and sea number pass device;The anchor system includes armoured cable, water Middle floating body, resultant field magnetometer, sea connector and seabed connector;The undersea device include sea bottom magnetometer, without magnetic without magnetic Bottom anchor pouring weight and acoustic releaser;
The sea satellite R-T unit and the sea number pass device communication connection, the sea number pass device with it is described Armoured cable connection;The sea satellite R-T unit is used to communicate by satellite with bank base laboratory;The sea number passes device Data for sending over sea satellite R-T unit are encoded and are sent to the undersea device and resultant field magnetometer, Also the data sent by the undersea device and resultant field magnetometer are decoded and are sent to the sea satellite transmitting-receiving Device;
The sea bottom magnetometer is connect with the armoured cable, and the acoustic releaser is by the anchor system and the no magnetic bottom anchor Pouring weight mechanical connection;The no magnetic bottom anchor pouring weight is sunken to seabed, and the sea bottom magnetometer is for detecting seabed magnetic data;
The sea connector and the seabed connector are connected respectively to the both ends of the armoured cable, floating body in the water Positioned at the side close to the seabed connector of the armoured cable;The sea connector is by the armoured cable and the sea The acoustic releaser and the armoured cable are mechanically connected by plant machinery connection, the seabed connector;The resultant field magnetic force Instrument be it is multiple, be separately mounted at the different depth of the armoured cable;The resultant field magnetometer is for detecting at different depth Marine magnetism data.
Optionally, the offshore installations further include photovoltaic power supply device, floating body and pylon;
The sea number passes device and the pylon is arranged on the floating body, the photovoltaic power supply device and the sea Face satellite R-T unit is arranged on the pylon;
The photovoltaic power supply device passes device with the sea number and connect;The sea number passes device and is also used to the light The electric energy that volt power supply device provides boosts, and the sea bottom magnetometer is also used to drop the electric energy that the armoured cable transmits Pressure.
Optionally, it includes that sea electric pressure converter, sea data conversion device, sea data are deposited that the sea number, which passes device, Reservoir and sea number pass sealed compartment;
The sea electric pressure converter, the sea data conversion device and the sea data storage are arranged at institute Sea number is stated to pass in sealed compartment;
The low voltage power supply that the sea electric pressure converter is used to generate photovoltaic power supply device passes through DC/DC booster liter Pressure;
The sea data conversion device is for being encoded the data that sea satellite R-T unit sends over and being led to The armoured cable is crossed to be sent to the undersea device and will be carried out by the undersea device by the data that armoured cable is sent It decodes and is sent to the sea satellite R-T unit;
The sea data storage is for storing the data for being sent to sea by sea bottom magnetometer and resultant field magnetometer.
Optionally, the resultant field magnetometer includes marine magnetic probe, marine central controller, marine number biography device, sea Middle rechargeable battery pack and marine compressive cabin;
The marine magnetic probe, the marine central controller, the marine number pass devices and described marine chargeable Battery pack is arranged in the marine compressive cabin;
The marine magnetic probe and the marine number pass device and are bi-directionally connected with the marine central controller;It is described Marine magnetic probe is used for the magnetic force signal for detecting marine magnetism signal, the marine central controller Reason;The marine number passes devices and is used for that treated that magnetic force signal carries out encodes and by described by the marine central controller Armoured cable is sent to the offshore installations and is decoded the data sended over by the offshore installations and is sent to described Marine central controller;The marine number passes device and is also used to be depressured the electric energy that the armoured cable transmits;
The marine rechargeable battery pack is connect by the armoured cable with the photovoltaic power supply device, and the photovoltaic is received The electric energy that power supply device provides;The marine rechargeable battery pack is used for as the marine magnetic probe, the marine center control Device processed and the marine number pass device power supply.
Optionally, the sea bottom magnetometer includes seabed compressive cabin, seabed magnetic probe, seabed central controller, sea The truth of a matter passes device, attitude transducer, north finder, seabed rechargeable battery pack and nonmagnetic sinking frame;
The seabed magnetic probe, the seabed central controller, the seabed number pass device, the attitude transducer, The north finder and the seabed uniformly rechargeable battery set are arranged in the seabed compressive cabin;The nonmagnetic sinking frame is used In the support seabed compressive cabin;
The seabed magnetic probe, the seabed number pass device, the attitude transducer and the north finder with it is described Seabed central controller is bi-directionally connected;The seabed magnetic probe is for receiving magnetic force signal;The attitude transducer is for surveying Measure posture information;The north finder is for measuring azimuth information;The seabed central controller be used for according to the magnetic force signal, The posture information and the azimuth information resolve magnetic force;The seabed number passes device and is used to control in the seabed center Treated that magnetic force signal carries out encodes and be sent to the offshore installations by the armoured cable and will be by the sea for device processed The data that equipment sends over are decoded and are sent to the seabed central controller;The seabed number passes device and is also used to pair The electric energy of the armoured cable transmission is depressured;
The seabed rechargeable battery pack is connect by the armoured cable with the photovoltaic power supply device, and the photovoltaic is received The electric energy that power supply device provides;The seabed rechargeable battery pack is used for as the magnetic probe, the central controller and institute It states seabed number and passes device power supply.
Optionally, the sea connector includes sea universal joint, load-bearing electric slip ring and sea load-bearing reinforcer;
The sea universal joint, the load-bearing electric slip ring and the sea load-bearing reinforcer are set gradually from top to bottom;Institute Sea universal joint is stated to be mechanically connected the floating body and the load-bearing electric slip ring;The load-bearing electric slip ring is for guaranteeing the sea Number passes the transmission of device and the armoured cable electric energy and signal in relative rotation state;The sea load-bearing reinforcer for pair The armoured cable is reinforced.
Optionally, the seabed connector includes seabed universal joint and seabed load-bearing reinforcer;The seabed universal joint will The armoured cable and the acoustic releaser are mechanically connected, and the seabed load-bearing reinforcer is for adding the armoured cable By force.
Optionally, the armoured cable includes cable core, sheath, armor and outer jacket;
The sheath is coated on outside the cable core;The armor is coated on outside the sheath;The outer jacket packet It is overlying on outside the armor;The armor is aramid fiber material, and the outer jacket is Waterproof structural course.
Optionally, the photovoltaic power supply device includes solar panel, battery, electric power controller and cell sealing Cabin;
The solar panel, the battery and the electric power controller are arranged at the cell sealing cabin It is interior;
The solar panel converts the solar into electric energy on daytime and stores into the battery;The power supply Managing device is connect with the battery, is controlled for the charging and discharging to the battery.
Optionally, the surface of the floating body is coated with anti-biological attachment material.
According to specific embodiment provided by the utility model, the utility model discloses following technical effects: this is practical new It is close that the marine geomagnetic day change observation station can be improved after any wide-area deployment of ocean in the satellite transmission marine magnetism detection device of type Degree promotes research vessel off-lying sea marine magnetic survey data precision, and arranges multiple resultant field magnetometers, detection ground in anchor system different depth Magnetic day bank data with the depth of water variation, further promoted research vessel off-lying sea marine magnetic survey data precision.
Detailed description of the invention
In order to illustrate the embodiment of the utility model or the technical proposal in the existing technology more clearly, below will be to embodiment Needed in attached drawing be briefly described, it should be apparent that, the accompanying drawings in the following description is only the utility model Some embodiments for those of ordinary skill in the art without any creative labor, can also basis These attached drawings obtain other attached drawings.
Fig. 1 is the structure drawing of device that the utility model satellite transmits marine magnetism detection device embodiment;
Fig. 2 is the overall structure block diagram that the utility model satellite transmits marine magnetism detection device embodiment;
Fig. 3 is sea satellite R-T unit, the photovoltaic that the utility model satellite transmits marine magnetism detection device embodiment The structural block diagram of power supply device, floating body and pylon;
Fig. 4 is the connection block diagram for the data transmission that the utility model satellite transmits marine magnetism detection device embodiment;
Fig. 5 is the structural block diagram for the sea bottom magnetometer that the utility model satellite transmits marine magnetism detection device embodiment;
Fig. 6 is the structural block diagram for the resultant field magnetometer that the utility model satellite transmits marine magnetism detection device embodiment;
Fig. 7 is the structure chart for the sea connector that the utility model satellite transmits marine magnetism detection device embodiment.
Specific embodiment
The following will be combined with the drawings in the embodiments of the present invention, carries out the technical scheme in the embodiment of the utility model Clearly and completely describe, it is clear that the described embodiments are only a part of the embodiments of the utility model, rather than whole Embodiment.Based on the embodiments of the present invention, those of ordinary skill in the art are without making creative work Every other embodiment obtained, fall within the protection scope of the utility model.
To keep the above objects, features, and advantages of the utility model more obvious and easy to understand, with reference to the accompanying drawing and have Body embodiment is described in further detail the utility model.
Fig. 1 is the structure drawing of device that the utility model satellite transmits marine magnetism detection device embodiment.
Fig. 2 is the overall structure block diagram that the utility model satellite transmits marine magnetism detection device embodiment.
Fig. 3 is sea satellite R-T unit, the photovoltaic that the utility model satellite transmits marine magnetism detection device embodiment The structural block diagram of power supply device, floating body and pylon.
Fig. 4 is the connection block diagram for the data transmission that the utility model satellite transmits marine magnetism detection device embodiment.
Fig. 5 is the structural block diagram for the sea bottom magnetometer that the utility model satellite transmits marine magnetism detection device embodiment.
Fig. 6 is the structural block diagram for the resultant field magnetometer that the utility model satellite transmits marine magnetism detection device embodiment.
Fig. 7 is the structure chart for the sea connector that the utility model satellite transmits marine magnetism detection device embodiment.
Referring to Fig. 1 to Fig. 7, which transmits marine magnetism detection device, comprising: undersea device 2 and offshore installations 1, institute It states undersea device 2 and is laid on seabed;The offshore installations 1 float on sea;The undersea device 2 and the offshore installations 1 are logical Cross 3 connection of anchor system.
The offshore installations 1 include that sea satellite R-T unit 101 and sea number pass device 102;The anchor system 3 includes armour Floating body 304, resultant field magnetometer 305, sea connector 302 and seabed connector 303 in dress cable 301, water;The undersea device 2 Including sea bottom magnetometer 201, without magnetic bottom anchor pouring weight 202 and acoustic releaser 203.
Offshore installations 1:
The sea satellite R-T unit 101 passes device 102 with the sea number and communicates to connect, and the sea number passes device 102 connect with the armoured cable 301;The sea satellite R-T unit 101 is used to communicate by satellite with bank base laboratory;Institute Sea satellite R-T unit 101 is stated, seismic data, 201 status data of submarine seismograph that submarine seismograph 201 can be acquired Bank base laboratory is sent to by satellite.The sea number passes device 102 for sending over sea satellite R-T unit 101 Data encoded and be sent to the undersea device 2 and resultant field magnetometer 305, will also be by the undersea device 2 and resultant field The data that magnetometer 305 is sent are decoded and are sent to the sea satellite R-T unit 101.
The sea satellite R-T unit 101, including satellite antenna 1011, satellite data transceiver 1012, transceiver are close Batten down 1013.
The satellite antenna 1011, satellite data transceiver 1012 can be the mesh such as iridium satellite, big-dipper satellite, the Silk Road satellite The combination of one or more of preceding Utility Satellite data transmitting/receiving equipment.
Transceiver sealed compartment 1013 described in the utility model, for carrying satellite transceiver, from sea water intrusion.
As an alternative embodiment, the offshore installations 1 further include photovoltaic power supply device 103, floating body 104 and tower Frame 105.
The sea number passes device 102 and the pylon 105 is arranged on the floating body 104, the photovoltaic energy supply dress Set 103 and the sea satellite R-T unit 101 be arranged on the pylon 105.
The photovoltaic power supply device 103 passes device 102 with the sea number and connect;The sea number passes device 102 and also uses It boosts in the electric energy provided the photovoltaic power supply device 103, the sea bottom magnetometer 201 is also used to the armoured cable The electric energy of 301 transmission is depressured.
As an alternative embodiment, it includes sea electric pressure converter 1021, sea that the sea number, which passes device 102, Data conversion device 1022, sea data storage 1023 and sea number pass sealed compartment 1024.
The sea electric pressure converter 1021, the sea data conversion device 1022 and the sea data storage 1023, which are arranged at the sea number, passes in sealed compartment 1024.The sea number, which passes sealed compartment 1024, can make the sea voltage Converter 1021, the sea data conversion device 1022 and the sea data storage 1023 are from sea water intrusion.
The low voltage power supply or low-voltage that the sea electric pressure converter 1021 is used to generate photovoltaic power supply device 103 are straight It is boosted by DC/DC booster in galvanic electricity source.The loss of cable long distance transmission can be reduced by boosting.Photovoltaic power supply device 103 The voltage of the low-voltage dc power supply of offer be 12VDC, after sea electric pressure converter 1021, voltage increase to 48VDC or Person is higher.
The sea data conversion device 1022 is for compiling the data that sea satellite R-T unit 101 sends over Code is simultaneously sent to the undersea device 2 by the armoured cable 301 and will be transmitted by the undersea device 2 by armoured cable 301 The data to come over are decoded and are sent to the sea satellite R-T unit 101.
The sea data storage 1023 is sent to sea by sea bottom magnetometer 201 and resultant field magnetometer 305 for storing The data in face.
As an alternative embodiment, the photovoltaic power supply device 103 includes solar panel 1031, battery 1032, electric power controller 1033 and cell sealing cabin 1034.
The solar panel 1031, the battery 1032 and the electric power controller 1033 are arranged at described In cell sealing cabin 1034.The cell sealing cabin 1034 is for making the solar panel 1031, the battery 1032 With the electric power controller 1033 from the erosion of seawater.
Solar panel 1031 can be one piece or muti-piece combination.The solar panel 1031 will too on daytime Sun can be converted to electric energy and store into the battery 1032.The battery 1032 can be one piece or muti-piece combination, Battery 1032 is that offshore installations 1 and undersea device 2 are powered.The electric power controller 1033 connects with the battery 1032 It connects, is controlled for the charging and discharging to the battery 1032, avoid the overshoot of battery 1032 and over-discharge, improve battery Service life.
As an alternative embodiment, the surface of the floating body 104 is coated with anti-biological attachment material.The floating body 104 total displacements are greater than or equal to 4 tons.
Anchor system 3:
The sea connector 302 and the seabed connector 303 are connected respectively to the both ends of the armoured cable 301, institute State the side close to the seabed connector 303 that floating body 304 in water is located at the armoured cable 301;Floating body 304 exists in the water Moiety by weight can be offset for the armoured cable 301 in water, to prevent too long armoured cable 301 from landing.Floating body in the water 304 are made of polymeric foamed material, and specific gravity is small, and water absorption rate is low, corrosion-resistant, impact resistant.The sea connector 302 will be described Armoured cable 301 and the offshore installations 1 are mechanically connected, and the seabed connector 303 is by the acoustic releaser 203 and the armour Cable 301 is filled to be mechanically connected;The resultant field magnetometer 305 be it is multiple, be separately mounted at the different depth of the armoured cable 301; The resultant field magnetometer 305 is used to detect the marine magnetism data at different depth.
As an alternative embodiment, the resultant field magnetometer 305 includes marine magnetic probe 3051, marine center Controller 3052, marine number pass device 3053, marine rechargeable battery pack 3054 and marine compressive cabin 3055.The marine magnetic Power probe 3051 is Overhauser magnetic probe.
The marine magnetic probe 3051, the marine central controller 3052, the marine number pass device 3053 and institute Marine rechargeable battery pack 3054 is stated to be arranged in the marine compressive cabin 3055.The marine compressive cabin 3055 uses Non-magnetic material is made, and can bear sea water static pressure power.
The marine magnetic probe 3051 and it is described it is marine number pass devices 3053 with the marine central controller 3052 It is bi-directionally connected;For detecting marine magnetism signal, the marine central controller 3052 is used for the marine magnetic probe 3051 The magnetic force signal is handled;The marine number passes that devices 3053 are used for will be after marine central controller 3052 processing Magnetic force signal carry out encode and the offshore installations are sent to by the armoured cable and will be transmitted across by the offshore installations The data come are decoded and are sent to the marine central controller 3052;The marine number passes device 3053 and is also used to institute The electric energy for stating armoured cable transmission is depressured.
The marine rechargeable battery pack 3054 is connect by the armoured cable with the photovoltaic power supply device, described in reception The electric energy that photovoltaic power supply device provides;The marine rechargeable battery pack 3054 is used for as the marine magnetic probe 3051, institute It states marine central controller 3052 and the marine number passes device 3053 and powers.
As an alternative embodiment, the sea connector 302 includes sea universal joint 3021, load-bearing electric slip ring 3022 and sea load-bearing reinforcer 3023.
The sea universal joint 3021, the load-bearing electric slip ring 3022 and the sea load-bearing reinforcer 3023 are from top to bottom It sets gradually;The floating body 104 and the load-bearing electric slip ring 3022 are mechanically connected by the sea universal joint 3021;The load-bearing Electric slip ring 3022 is for guaranteeing that the sea number passes device 102 and the armoured cable 301 electric energy and letter in relative rotation state Number transmission;The sea load-bearing reinforcer 3023 for reinforcing the armoured cable 301, avoid due to bending repeatedly, The damage of armoured cable 301 caused by overbending.
As an alternative embodiment, the seabed connector 303 includes that seabed universal joint and seabed load-bearing are reinforced Part;The armoured cable 301 and the acoustic releaser 203 are mechanically connected by the seabed universal joint, and the seabed load-bearing is reinforced Part is for reinforcing the armoured cable 301.
As an alternative embodiment, the armoured cable 301 includes cable core, sheath, armor and outer jacket.Institute State the optoelectronic composite cable that cable core is multicore cable or multicore cable and multifiber cable composition.
The sheath is coated on outside the cable core;The armor is coated on outside the sheath;The outer jacket packet It is overlying on outside the armor;The armor is non-magnetic aramid fiber material, and tensile property can be improved.The outer jacket Can also it protect armor from seawater to make outer jacket that there is abrasion resistance for the Waterproof structural course with abrasion resistance It corrodes.
As an alternative embodiment, 301 safe-working load of armoured cable is greater than or equal to 2 tons, maximum work Make load more than or equal to 4 tons, Fracture Force is greater than or equal to pulling force caused by 8 tons of weights.
Undersea device 2:
The sea bottom magnetometer 201 is connect with the armoured cable 301, and the acoustic releaser 203 is by the anchor system 3 and institute No magnetic bottom anchor pouring weight 202 is stated to be mechanically connected;The no magnetic bottom anchor pouring weight 202 is sunken to seabed, and the sea bottom magnetometer 201 is for visiting Survey seabed magnetic data.The no magnetic bottom anchor pouring weight 202 is used to the sea bottom magnetometer 201 being bonded to seabed, no magnetic bottom anchor Weight should be not less than 104 maximum displacement of sea floating body to pouring weight 202 in water.
When undersea device 2 recycles, sea research vessel sends acoustics release order, and acoustic releaser 203 discharges, armoured cable 301 separate with no magnetic bottom anchor pouring weight 202.
As an alternative embodiment, the acoustic releaser 203 is the OCEANO 5000 of French IXSEA Corp. Type acoustic releaser 203, tests 10 tons of load by 5 tons of service load.
As an alternative embodiment, the no magnetic bottom anchor pouring weight 202 is hollow round table structure, the seabed number is passed Device 202 is located at the inside of the no magnetic bottom anchor pouring weight 202, and submarine seismograph 201 can be in no magnetic bottom anchor pouring weight 202 Portion may be located on outside.The weight of the no magnetic bottom anchor pouring weight 202 is not less than 4 tons.
As an alternative embodiment, it includes seabed electric pressure converter 2021, seabed that the seabed number, which passes device 202, Data conversion device 2022, seabed satellite time transfer pulse per second (PPS) conversion equipment 2023 and seabed number pass sealed compartment 2024.
The seabed electric pressure converter 2021, the seafloor data conversion equipment 2022 and the seabed satellite time transfer second arteries and veins Red switch changing device 2023 is arranged at the seabed number and passes in sealed compartment 2024.
The seabed electric pressure converter 2021 is for passing through the DC power supply for being transported to seabed by the armoured cable 301 The decompression of DC/DC reducing transformer.The direct current power source voltage that armoured cable 301 conveys is 48VDC or higher, by seabed electric pressure converter After 2021 conversions, voltage is down to 12VDC.
The seafloor data conversion equipment 2022 is for encoding the data that the submarine seismograph 201 sends over And the offshore installations 1 are sent to by the armoured cable 301 and will be transmitted by the offshore installations 1 by armoured cable 301 The data come are decoded and are sent to the submarine seismograph 201.
The seabed satellite time transfer pulse per second (PPS) conversion equipment 2023 is for will be transmitted to defending for seabed by the armoured cable 301 Star time service pulse per second (PPS) is sent to the submarine seismograph 201 after transformation.
As an alternative embodiment, the sea bottom magnetometer 201 includes seabed compressive cabin 2018, seabed magnetic force Probe 2011, seabed central controller 2012, seabed number pass device 2013, attitude transducer 2014, north finder 2015, seabed can Rechargeable battery set 2016 and nonmagnetic sinking frame 2017.
The seabed magnetic probe 2011, the seabed central controller 2012, the seabed number pass device 2013, described Attitude transducer 2014, the north finder 2015 and the seabed rechargeable battery pack 2016 are arranged at the seabed pressure-resistant cabin In body 2018;The nonmagnetic sinking frame 2017 is used to support the seabed compressive cabin 2018.The seabed compressive cabin 2018 are made of non-magnetic material, can bear the sea water static pressure power of 6000m.
The seabed magnetic probe 2011, the seabed number pass device 2013, the attitude transducer 2014 and described seek Northern instrument 2015 is bi-directionally connected with the seabed central controller 2012;The seabed magnetic probe 2011 is for receiving magnetic force letter Number;The attitude transducer 2014 is for measuring posture information;The north finder 2015 is for measuring azimuth information;The seabed Central controller 2012 is for resolving magnetic force according to the magnetic force signal, the posture information and the azimuth information; The seabed number passes device 2013 and is used for that treated that magnetic force signal encoded and led to by the seabed central controller 2012 The armoured cable is crossed to be sent to the offshore installations and the data sended over by the offshore installations are decoded and are sent To the seabed central controller 2012;The seabed number passes device 2013 and is also used to carry out the electric energy that the armoured cable transmits Decompression.
The seabed rechargeable battery pack 2016 is connect by the armoured cable with the photovoltaic power supply device, described in reception The electric energy that photovoltaic power supply device provides;The seabed rechargeable battery pack 2016 is used for as the magnetic probe, the center control Device processed and the seabed number pass device 2013 and power.
The seabed magnetic probe 2011 is that three-component fluxgate magnetic probe or full tensor magnetic gradient are popped one's head in.
2014 real-time measurement sea bottom magnetometer of north finder 2015 and attitude transducer inside the sea bottom magnetometer 201 201 orientation and inclination angle, the inclination angle of measurement are sent to seabed central controller 2012.Seabed central controller 2012 is first to sea The data of bottom magnetic probe 2011 are improved, are amplified and digitized processing, then according to the orientation of sea bottom magnetometer and inclination angle, Convert to probe data, provide Bei Nan, thing, vertical three directions component.The north finder 2015 is a kind of autonomous The high-precision inertial instruments of indicating position, can in the case where not inputting latitude value, round-the-clock automatic rapid survey carrier with The angle of geographical north orientation provides azimuth information for sea bottom magnetometer.
The satellite transmission marine magnetism detection device working method of the utility model is as follows:
Offshore installations 1 are used for the magnetic data of real-time reception resultant field magnetometer and 305 sea bottom magnetometers 201, and will receive To magnetic data satellite transmit by way of be sent to bank base satellite receiving terminal;Photovoltaic power supply device 103 passes through the sun Energy plate is that sea satellite R-T unit 101 and sea number pass device 102 and provide power supply, and pass through armoured cable 301 to resultant field magnetic force Instrument and 305 sea bottom magnetometers 201 transmit electric energy.
Bank base satellite receiving terminal receives the magnetic data that satellite is sent, by magnetic data with file mode storage, to scheme Shape mode is shown.
For the transmission of power supply and signal, resultant field magnetometer 305 and sea bottom magnetometer 201 between offshore installations 1 with There is cable mode to connect.The magnetic data that resultant field magnetometer 305 and sea bottom magnetometer 201 detect is sent data to by armoured cable Sea number passes device 102, and sea number passes device 102 and sends the data to sea satellite R-T unit 101, sea satellite transmitting-receiving dress Set 101 receive magnetic data after start satellite data transmission automatically, bank base laboratory can quasi real time receive magnetic data.
It will be used as a protective cover without magnetic bottom anchor pouring weight 202, protective cover is hollow structure, and sea bottom magnetometer 201 is placed in Within protective cover.Seabed is carried out when laying, it will be without magnetic bottom anchor pouring weight 202 and sea bottom magnetometer 201 cloth simultaneously as a whole It is put in seabed.
Equipment starts normal, operator-less work.
When equipment recycles, acoustic releaser acts (unhook), and no magnetic bottom anchor pouring weight 202 is mechanical de- with sea bottom magnetometer 201 From sea bottom magnetometer 201 is recycled, seabed will be left without magnetic bottom anchor pouring weight 202 and do not recycled.
Sea bottom magnetometer 201 and without be between magnetic bottom anchor pouring weight 202 by high duty metal silk (such as beryllium copper silk) connect , the pulling force that wire can be born is greater than the gravity of sea bottom magnetometer 201 and much smaller than the gravity of no magnetic bottom anchor pouring weight 202. When laying, wire can bear the weight of sea bottom magnetometer 201 completely;When recycling, due to needing to carry a few tons of weight, gold Belong to silk to be more than the pulling force limit and break, sea bottom magnetometer 201 is separated with no magnetic bottom anchor pouring weight 202.
According to specific embodiment provided by the utility model, the utility model discloses following technical effects: this is practical new The satellite of type transmits marine magnetism detection device, and after any wide-area deployment of ocean, it is close that the marine geomagnetic day change observation station can be improved Degree promotes research vessel off-lying sea marine magnetic survey data precision.Multiple resultant field magnetometers are arranged in anchor system different depth, detect earth magnetism day Bank data further promote research vessel off-lying sea marine magnetic survey data precision with the variation of the depth of water.And it can independently energize, grow Timing, operator-less work, so as to carry out round-the-clock implementation observation in plate tectonice zone of action.
Specific case used herein is expounded the principles of the present invention and embodiment, above embodiments Explanation be merely used to help understand the method and its core concept of the utility model;Meanwhile for the general technology of this field Personnel, based on the idea of the present invention, there will be changes in the specific implementation manner and application range.In conclusion The content of the present specification should not be construed as a limitation of the present invention.

Claims (10)

1.一种卫星传输海洋磁力探测装置,其特征在于,包括:海底设备和海面设备,所述海底设备布放于海底;所述海面设备漂浮于海面;所述海底设备与所述海面设备通过锚系连接;1. a satellite transmission marine magnetic detection device, is characterized in that, comprises: seabed equipment and sea surface equipment, described seabed equipment is arranged on the seabed; described sea surface equipment floats on the sea surface; described seabed equipment and described sea surface equipment pass through Anchor connection; 所述海面设备包括海面卫星收发装置和海面数传装置;所述锚系包括铠装缆、水中浮体、总场磁力仪、海面连接件和海底连接件;所述海底设备包括海底磁力仪、无磁无磁底锚重块和声学释放器;The sea surface equipment includes a sea surface satellite transceiver device and a sea surface data transmission device; the mooring system includes an armored cable, a floating body in the water, a total field magnetometer, a sea surface connection piece and a submarine connection piece; Magnetic non-magnetic bottom anchor weights and acoustic releasers; 所述海面卫星收发装置与所述海面数传装置通信连接,所述海面数传装置与所述铠装缆连接;所述海面卫星收发装置用于通过卫星与岸基实验室通信;所述海面数传装置用于将海面卫星收发装置发送过来的数据进行编码并发送给所述海底设备和总场磁力仪,还将由所述海底设备和总场磁力仪传送过来的数据进行解码并发送给所述海面卫星收发装置;The sea-surface satellite transceiver is connected in communication with the sea-surface data transmission device, and the sea-surface data-transmission device is connected with the armored cable; the sea-surface satellite transceiver device is used for communicating with the shore-based laboratory through satellite; The data transmission device is used to encode the data sent by the sea surface satellite transceiver and send it to the seabed equipment and the total field magnetometer, and also to decode and send the data sent by the seabed equipment and the total field magnetometer to the seabed equipment. Said sea surface satellite transceiver; 所述海底磁力仪与所述铠装缆连接,所述声学释放器将所述锚系与所述无磁底锚重块机械连接;所述无磁底锚重块沉于海底,所述海底磁力仪用于探测海底磁力数据;The submarine magnetometer is connected with the armored cable, and the acoustic releaser mechanically connects the mooring system with the non-magnetic bottom anchor weight; Magnetometers are used to detect seabed magnetic data; 所述海面连接件和所述海底连接件分别连接到所述铠装缆的两端,所述水中浮体位于所述铠装缆的靠近所述海底连接件的一侧;所述海面连接件将所述铠装缆与所述海面设备机械连接,所述海底连接件将所述声学释放器与所述铠装缆机械连接;所述总场磁力仪为多个,分别安装在所述铠装缆的不同深度处;所述总场磁力仪用于探测不同深度处的海洋磁力数据。The sea surface connector and the subsea connector are respectively connected to two ends of the armored cable, and the floating body in water is located on the side of the armored cable close to the seabed connector; the sea surface connector will The armored cable is mechanically connected with the sea surface equipment, and the submarine connector mechanically connects the acoustic releaser with the armored cable; the total field magnetometers are multiple, respectively installed on the armored cable. at different depths of the cable; the total field magnetometer is used to detect marine magnetic data at different depths. 2.根据权利要求1所述的一种卫星传输海洋磁力探测装置,其特征在于,所述海面设备还包括光伏供能装置、浮体和塔架;2. A satellite transmission marine magnetic detection device according to claim 1, wherein the sea surface equipment further comprises a photovoltaic energy supply device, a floating body and a tower; 所述海面数传装置和所述塔架均设置在所述浮体上,所述光伏供能装置和所述海面卫星收发装置均设置在所述塔架上;The sea surface data transmission device and the tower frame are both arranged on the floating body, and the photovoltaic energy supply device and the sea surface satellite transceiver device are both arranged on the tower frame; 所述光伏供能装置与所述海面数传装置连接;所述海面数传装置还用于对所述光伏供能装置提供的电能进行升压,所述海底磁力仪还用于对所述铠装缆传输的电能进行降压。The photovoltaic energy supply device is connected with the sea surface data transmission device; the sea surface data transmission device is also used for boosting the electric energy provided by the photovoltaic energy supply device, and the submarine magnetometer is also used for the armored The power transmitted by the cable is depressurized. 3.根据权利要求2所述的一种卫星传输海洋磁力探测装置,其特征在于,所述海面数传装置包括海面电压转换器、海面数据转换装置、海面数据存储器和海面数传密封舱;3. a kind of satellite transmission marine magnetic detection device according to claim 2, is characterized in that, described sea surface data transmission device comprises sea surface voltage converter, sea surface data conversion device, sea surface data storage and sea surface data transmission sealed cabin; 所述海面电压转换器、所述海面数据转换装置和所述海面数据存储器均设置在所述海面数传密封舱内;The sea surface voltage converter, the sea surface data conversion device and the sea surface data storage are all arranged in the sea surface data transmission capsule; 所述海面电压转换器用于将光伏供能装置产生的低电压电源通过DC/DC升压器升压;The sea surface voltage converter is used for boosting the low-voltage power supply generated by the photovoltaic energy supply device through the DC/DC booster; 所述海面数据转换装置用于将海面卫星收发装置发送过来的数据进行编码并通过所述铠装缆发送给所述海底设备和将由所述海底设备通过铠装缆传送过来的数据进行解码并发送给所述海面卫星收发装置;The sea surface data conversion device is used for encoding the data sent by the sea surface satellite transceiver and sending it to the submarine equipment through the armored cable, and decoding and sending the data transmitted by the submarine equipment through the armored cable. to the sea surface satellite transceiver; 所述海面数据存储器用于存储由海底磁力仪和总场磁力仪传送至海面的数据。The sea surface data storage is used to store data transmitted to the sea surface by the seabed magnetometer and the total field magnetometer. 4.根据权利要求2所述的一种卫星传输海洋磁力探测装置,其特征在于,所述总场磁力仪包括海中磁力探头、海中中央控制器、海中数传装置、海中可充电电池组和海中耐压舱体;4. A kind of satellite transmission marine magnetic detection device according to claim 2, is characterized in that, described total field magnetometer comprises marine magnetic probe, marine central controller, marine data transmission device, marine rechargeable battery pack and marine pressure chamber; 所述海中磁力探头、所述海中中央控制器、所述海中数传装置和所述海中可充电电池组均设置在所述海中耐压舱体内;The sea magnetic probe, the sea central controller, the sea data transmission device and the sea rechargeable battery pack are all arranged in the sea pressure chamber; 所述海中磁力探头和所述海中数传装置均与所述海中中央控制器双向连接;所述海中磁力探头用于探测海洋磁力信号,所述海中中央控制器用于对所述磁力信号进行处理;所述海中数传装置用于将所述海中中央控制器处理后的磁力信号进行编码并通过所述铠装缆发送到所述海面设备和将由所述海面设备发送过来的数据进行解码并发送到所述海中中央控制器;所述海中数传装置还用于对所述铠装缆传输的电能进行降压;The subsea magnetic probe and the subsea data transmission device are both bidirectionally connected to the subsea central controller; the subsea magnetic probe is used to detect marine magnetic signals, and the subsea central controller is used to process the magnetic signals; The marine data transmission device is used to encode the magnetic signal processed by the marine central controller and send it to the sea surface equipment through the armored cable, and to decode and send the data sent by the sea surface device to the sea surface device. the marine central controller; the marine data transmission device is also used to depressurize the electric energy transmitted by the armored cable; 所述海中可充电电池组通过所述铠装缆与所述光伏供能装置连接,接收所述光伏供能装置提供的电能;所述海中可充电电池组用于为所述海中磁力探头、所述海中中央控制器和所述海中数传装置供电。The marine rechargeable battery pack is connected to the photovoltaic energy supply device through the armored cable, and receives the electric energy provided by the photovoltaic energy supply device; the marine rechargeable battery pack is used for the marine magnetic probe, the The in-sea central controller and the in-sea data transmission device are powered. 5.根据权利要求2所述的一种卫星传输海洋磁力探测装置,其特征在于,所述海底磁力仪包括海底耐压舱体、海底磁力探头、海底中央控制器、海底数传装置、姿态传感器、寻北仪、海底可充电电池组和无磁性沉放架;5. a kind of satellite transmission marine magnetic detection device according to claim 2, is characterized in that, described seabed magnetometer comprises seabed pressure chamber, seabed magnetic probe, seabed central controller, seabed data transmission device, attitude sensor , North finder, submarine rechargeable battery pack and non-magnetic sinking rack; 所述海底磁力探头、所述海底中央控制器、所述海底数传装置、所述姿态传感器、所述寻北仪和所述海底可充电电池组均设置在所述海底耐压舱体内;所述无磁性沉放架用于支撑所述海底耐压舱体;The subsea magnetic probe, the subsea central controller, the subsea data transmission device, the attitude sensor, the north seeker and the subsea rechargeable battery pack are all arranged in the subsea pressure tank; The non-magnetic sinking rack is used to support the submarine pressure tank; 所述海底磁力探头、所述海底数传装置、所述姿态传感器和所述寻北仪均与所述海底中央控制器双向连接;所述海底磁力探头用于接收磁力信号;所述姿态传感器用于测量姿态信息;所述寻北仪用于测量方位信息;所述海底中央控制器用于根据所述磁力信号、所述姿态信息和所述方位信息对磁力进行解算;所述海底数传装置用于将所述海底中央控制器处理后的磁力信号进行编码并通过所述铠装缆发送到所述海面设备和将由所述海面设备发送过来的数据进行解码并发送到所述海底中央控制器;所述海底数传装置还用于对所述铠装缆传输的电能进行降压;The submarine magnetic probe, the submarine data transmission device, the attitude sensor and the north finder are all bidirectionally connected to the submarine central controller; the submarine magnetic probe is used to receive magnetic signals; the attitude sensor is used for used to measure attitude information; the north finder is used to measure azimuth information; the submarine central controller is used to solve the magnetic force according to the magnetic force signal, the attitude information and the azimuth information; the submarine data transmission device for encoding the magnetic signal processed by the subsea central controller and sending it to the sea surface equipment through the armored cable and decoding the data sent by the sea surface device and sending it to the subsea central controller ; The submarine data transmission device is also used to depressurize the electric energy transmitted by the armored cable; 所述海底可充电电池组通过所述铠装缆与所述光伏供能装置连接,接收所述光伏供能装置提供的电能;所述海底可充电电池组用于为所述磁力探头、所述中央控制器和所述海底数传装置供电。The subsea rechargeable battery pack is connected to the photovoltaic energy supply device through the armored cable, and receives electrical energy provided by the photovoltaic energy supply device; the subsea rechargeable battery pack is used for the magnetic probe, the The central controller and the submarine data transmission device are powered. 6.根据权利要求2所述的一种卫星传输海洋磁力探测装置,其特征在于,所述海面连接件包括海面万向节、承重电滑环和海面承重加强件;6. A satellite transmission marine magnetic detection device according to claim 2, wherein the sea surface connector comprises a sea surface universal joint, a load-bearing electric slip ring and a sea surface load-bearing reinforcement; 所述海面万向节、所述承重电滑环和所述海面承重加强件从上至下依次设置;所述海面万向节将所述浮体与所述承重电滑环机械连接;所述承重电滑环用于保证所述海面数传装置与所述铠装缆在相对旋转状态时电能和信号的传输;所述海面承重加强件用于对所述铠装缆进行加强。The sea surface universal joint, the load-bearing electric slip ring and the sea surface load-bearing reinforcement are arranged in order from top to bottom; the sea surface universal joint mechanically connects the floating body and the load-bearing electric slip ring; the load-bearing electric slip ring The electric slip ring is used to ensure the transmission of electric energy and signals when the sea surface data transmission device and the armored cable are in a state of relative rotation; the sea surface load-bearing reinforcement is used to strengthen the armored cable. 7.根据权利要求2所述的一种卫星传输海洋磁力探测装置,其特征在于,所述海底连接件包括海底万向节和海底承重加强件;所述海底万向节将所述铠装缆与所述声学释放器机械连接,所述海底承重加强件用于对所述铠装缆进行加强。7. A satellite transmission marine magnetic detection device according to claim 2, characterized in that, the submarine connector comprises a submarine universal joint and a submarine load-bearing reinforcement; the submarine universal joint connects the armored cable Mechanically connected to the acoustic release, the subsea load-bearing reinforcement is used to reinforce the armored cable. 8.根据权利要求1所述的一种卫星传输海洋磁力探测装置,其特征在于,所述铠装缆包括缆芯、内护层、铠装层和外护层;8. A satellite transmission marine magnetic detection device according to claim 1, wherein the armored cable comprises a cable core, an inner sheath, an armor layer and an outer sheath; 所述内护层包覆于所述缆芯外;所述铠装层包覆于所述内护层外;所述外护层包覆于所述铠装层外;所述铠装层为芳纶纤维材料,所述外护层为防水结构层。The inner sheath is wrapped outside the cable core; the armor layer is wrapped outside the inner sheath; the outer sheath is wrapped outside the armor layer; the armor layer is Aramid fiber material, the outer sheath is a waterproof structural layer. 9.根据权利要求2所述的一种卫星传输海洋磁力探测装置,其特征在于,所述光伏供能装置包括太阳能电池板、蓄电池、电源管理装置和电池密封舱;9. A satellite transmission marine magnetic detection device according to claim 2, wherein the photovoltaic energy supply device comprises a solar panel, a storage battery, a power management device and a battery sealing compartment; 所述太阳能电池板、所述蓄电池和所述电源管理装置均设置在所述电池密封舱内;The solar panel, the storage battery and the power management device are all arranged in the battery sealed compartment; 所述太阳能电池板在白天将太阳能转换为电能并存储到所述蓄电池内;所述电源管理装置与所述蓄电池连接,用于对所述蓄电池的充电和放电进行控制。The solar panel converts solar energy into electrical energy during the day and stores it in the storage battery; the power management device is connected to the storage battery for controlling the charging and discharging of the storage battery. 10.根据权利要求1所述的一种卫星传输海洋磁力探测装置,其特征在于,所述浮体的表面喷涂有抗生物附着材料。10 . The satellite transmission marine magnetic detection device according to claim 1 , wherein the surface of the floating body is sprayed with anti-biological adhesion material. 11 .
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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN109061746A (en) * 2018-09-12 2018-12-21 国家海洋局第海洋研究所 A kind of satellite transmission marine magnetism detection device

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN109061746A (en) * 2018-09-12 2018-12-21 国家海洋局第海洋研究所 A kind of satellite transmission marine magnetism detection device
CN109061746B (en) * 2018-09-12 2023-08-22 国家海洋局第一海洋研究所 Satellite transmission ocean magnetic force detection device

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