Movatterモバイル変換


[0]ホーム

URL:


CN108267127A - Bathymetric surveying system and method - Google Patents

Bathymetric surveying system and method
Download PDF

Info

Publication number
CN108267127A
CN108267127ACN201810187403.XACN201810187403ACN108267127ACN 108267127 ACN108267127 ACN 108267127ACN 201810187403 ACN201810187403 ACN 201810187403ACN 108267127 ACN108267127 ACN 108267127A
Authority
CN
China
Prior art keywords
bathymetric surveying
depth
mechanical arm
fixed link
surveying system
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Granted
Application number
CN201810187403.XA
Other languages
Chinese (zh)
Other versions
CN108267127B (en
Inventor
黄万林
刘野
易家春
李梁
师国栋
薛连甫
林文斌
涂胜
王望红
田巨夫
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
China Gezhouba Group No 1 Engineering Co Ltd
Original Assignee
China Gezhouba Group No 1 Engineering Co Ltd
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by China Gezhouba Group No 1 Engineering Co LtdfiledCriticalChina Gezhouba Group No 1 Engineering Co Ltd
Priority to CN201810187403.XApriorityCriticalpatent/CN108267127B/en
Publication of CN108267127ApublicationCriticalpatent/CN108267127A/en
Application grantedgrantedCritical
Publication of CN108267127BpublicationCriticalpatent/CN108267127B/en
Activelegal-statusCriticalCurrent
Anticipated expirationlegal-statusCritical

Links

Classifications

Landscapes

Abstract

The present invention provides a kind of bathymetric surveying system and measuring method, including robot arm device and depth-measuring system, depth detection apparatus in depth-measuring system is mounted on the free end of mechanical arm in robot arm device, and depth detection apparatus is electrically connected with Water depth measuring instrument host by way of wirelessly or non-wirelessly;In the depth detection apparatus, fixed link is vertical to be fixedly connected with the free end of mechanical arm, and the bottom end of fixed link is equipped with energy converter.Robot arm device rests in the bank for needing measured zone;Mechanical arm is reached above the measured zone water surface, ensures that energy converter is in 0.5m below the water surface, and vertical with water surface holding, proceeds by the bathymetric surveying work of the point;Pass through the movement of the mobile realization measurement point position of mechanical arm;Bathymetric surveying is realized by above step.Bathymetric surveying point position can be moved according to the wish of survey crew, can be evenly distributed in bathymetric surveying region, improve the quality and efficiency of bathymetric surveying.

Description

Bathymetric surveying system and method
Technical field
The present invention relates to bathymetric surveying field, particularly a kind of bathymetric surveying system and measuring method.
Background technology
At present, general bathymetric surveying uses ship as measuring table, due to ship floating on the water, Wu FaguFixed, in measurement process, ship is moved with flow, even if for power boat, when measuring certain point position, ship can not also surveyedIt is fixed on amount point position.Bathymetric surveying instrument is to calculate the depth of water by the time difference of energy converter transmitted wave and back wave, and when measurement is sent outFor ejected wave after the reflection of underwater initial land form, ship is moved into other positions with energy converter, has to measurement accuracy largerIt influences.
Ship is in dynamic water, and especially certain fluidised forms are complicated, in flow velocity urgency dynamic water, and ship can not be according to survey crew'sWish is moved, and is unable to control the distribution of measurement point position, and possible regional area point position is overstocked after being measured, and regional area is notIt measures, measuring quality can not be guaranteed.
Invention content
The technical problems to be solved by the invention are to provide a kind of bathymetric surveying system and measuring method, Neng GouanEntirely, efficiently, accurately bathymetric surveying is carried out in dynamic water area.
In order to solve the above technical problems, the technical solution adopted in the present invention is:A kind of bathymetric surveying system, includingRobot arm device and depth-measuring system, the depth detection apparatus in depth-measuring system are mounted on mechanical arm in robot arm deviceFree end, depth detection apparatus is electrically connected with Water depth measuring instrument host by way of wirelessly or non-wirelessly;
In the depth detection apparatus, fixed link is vertical to be fixedly connected with the free end of mechanical arm, and the bottom end of fixed link is setThere is energy converter.
In preferred scheme, in the robot arm device, mechanical arm is connect with walking basal seat, and mechanical arm is equipped at leastRotatable joint at two.
In preferred scheme, claw is equipped in the free end of mechanical arm, mounting base is fixedly connected with claw, and mounting base is with erectingStraight tube body is fixedly connected, and is equipped with multiple trip bolts in the side wall of tube body, fixed link is penetrated into tube body, and by trip boltIt is fixed.
In preferred scheme, spatial position positioning device is additionally provided on the top of fixed link.
In preferred scheme, the spatial position positioning device is GPS positioning device or Big Dipper positioning device.
In preferred scheme, vertical sensor, the axis of the vertical sensor and fixation are fixedly provided in fixed linkThe axis of bar is parallel.
In preferred scheme, in the vertical sensor, the top of elastic rod is fixedly connected with the casing, and elastic rod is located atThe position of center line of vertical sensor housing, the bottom end of elastic rod are equipped with the induction sphere of metal material, and electricity is equipped in inner wallsHold film.
In preferred scheme, it is additionally provided with depth transducer on the top of fixed link, in the depth transducer, drawstring oneEnd is fixedly connected with the top of fixed link, and the other end is connect with floating ball, and pulling force sensor is equipped between drawstring and floating ball.
A kind of measuring method using above-mentioned bathymetric surveying system includes the following steps:
S1, robot arm device rest in the bank for needing measured zone;
S2, mechanical arm is reached above the measured zone water surface, ensures that energy converter is in 0.5m below the water surface, and is kept with the water surfaceVertically, the bathymetric surveying work of the point is proceeded by;
S3, the movement by the mobile realization measurement point position of mechanical arm;
S4, mechanical arm coverage area in be measured after, walking basal seat moves a distance, continues through mechanical arm and is surveyedAmount;
Bathymetric surveying is realized by above step.
Energy converter is kept to be located at underwater 0.5m and keeps horizontal with the water surface in measurement process in preferred scheme.
A kind of bathymetric surveying system and measuring method provided by the invention, are installed by using by depth detection apparatusMethod on the robotic arm by the action of big forearm, revolution and the walking of walking basal seat of mechanical arm, realizes depth detection apparatusThe accurate movement of measurement point position.Device and method using the present invention, bathymetric surveying point position can be according to survey crew'sWish is moved, and can be evenly distributed in bathymetric surveying region, greatly improves the matter of bathymetric surveyingAmount and efficiency.The measuring method of the present invention using mechanical arm as carrier is measured, realizes separate men from machines, survey crew can be in bankThe upper operation for carrying out measuring apparatus ensure that the life safety of survey crew.
Description of the drawings
The invention will be further described with reference to the accompanying drawings and examples:
Fig. 1 is the overall structure diagram of the present invention.
Fig. 2 is the structure diagram of fixed link in the present invention.
Fig. 3 is the attachment structure schematic diagram of depth detection apparatus in the present invention.
Fig. 4 is the preferred structure schematic diagram of depth detection apparatus in the present invention.
Fig. 5 is the structure diagram of vertical sensor in the present invention.
Fig. 6 is the structure diagram of depth transducer in the present invention.
In figure:Water depth measuring instrument host 1;Spatial position positioning device 2;Fixed link 3;Energy converter 4;Fixing device 5;FasteningScrew 51;Mounting base 52;Tube body 53;Signal wire 6;Mechanical arm 7;Claw 71;Walking basal seat 72;Excavate platform 8;Vertical sensor9;Elastic rod 91;Capactive film 92;Induction sphere 93;Depth transducer 10;Floating ball 101;Drawstring 102;Pulling force sensor 103.
Specific embodiment
Embodiment 1:
In Fig. 1, a kind of bathymetric surveying system, including robot arm device and depth-measuring system, in depth-measuring systemDepth detection apparatus be mounted on the free end of mechanical arm 7 in robot arm device, depth detection apparatus and Water depth measuring instrument host 1It is electrically connected by way of wirelessly or non-wirelessly;Water depth measuring instrument host 1 is set on the coast.
In the depth detection apparatus, fixed link 3 is vertical to be fixedly connected with the free end of mechanical arm 7, fixed link 3Bottom end is equipped with energy converter 4.Long-armed backhoe may be used in robot arm device in this example, can also use other long mechanical arm dressesIt puts.The energy converter 4 is ultrasonic transducer, and the depth of water is calculated by the time difference of transmitted wave and back wave.
In preferred scheme such as Fig. 1, in the robot arm device, mechanical arm 7 is with walking basal seat 72 with rotatable sideFormula connects, and mechanical arm 7 is equipped with rotatable joint at least two.Rotatable joint, respectively pawl at three are equipped in this examplePortion joint, small shoulder joint and large-arm joint.
In preferred scheme such as Fig. 1 ~ 4, claw 71 is equipped in the free end of mechanical arm 7, mounting base 52 is fixed with claw 71Connection, mounting base 52 are fixedly connected with vertical tube body 53, and multiple trip bolts 51, fixed link 3 are equipped in the side wall of tube body 53It penetrates into tube body 53, and is fixed by trip bolt 51.
In preferred scheme such as Fig. 2 ~ 4, spatial position positioning device 2 is additionally provided on the top of fixed link 3.
In preferred scheme, the spatial position positioning device 2 is GPS positioning device or Big Dipper positioning device.ThusStructure, depth of water numerical value is corresponding with spatial position.
In preferred scheme such as Fig. 4,5, vertical sensor 9 is fixedly provided in fixed link 3, the vertical sensor 9Axis is parallel with the axis of fixed link 3.
In preferred scheme such as Fig. 5, in the vertical sensor 9, the top of elastic rod 91 is fixedly connected with the casing, bulletProperty bar 91 be located at the position of center line of vertical 9 housing of sensor, the bottom end of elastic rod 91 is equipped with the induction sphere 93 of metal material,Inner walls are equipped with capactive film 92.Thus structure, when vertical sensor 9 keeps vertical, capactive film 92 is detected and is sensedThe position of ball 93 is consistent, when vertical sensor 9 tilts, induction sphere 93 close to side capactive film 92, and far from anotherThe capactive film 92 of side, so as to which the voltage per side is influenced to change, therefore obtain inclined by the induction sphere 93 of metal materialDirection and numerical value are modified posture in the operating personnel of walking basal seat 72 according to numerical value, so that it is guaranteed that fixed link 3 keeps perpendicularDirectly.
In preferred scheme such as Fig. 4,6, depth transducer 10, the depth sensing are additionally provided on the top of fixed link 3In device 10,102 one end of drawstring is fixedly connected with the top of fixed link 3, and the other end is connect with floating ball 101, in drawstring 102 and floating ballPulling force sensor 103 is equipped between 101.It is controlled from 101 bottom of floating ball to the height of energy converter 4 in 0.5m, when the pawl of mechanical arm 7Portion 71 when being put into appropriate location below the water surface, after floating ball 101 is by buoyancy, that is, stretches pulling force sensor 103, so as to controlDepth of the energy converter 4 below the water surface.
Embodiment 2:
In Fig. 1, a kind of measuring method using above-mentioned bathymetric surveying system includes the following steps:
Mounting base 52 is fixedly connected by s1, the claw 71 that depth detection apparatus is fixedly mounted on to mechanical arm 7 with claw 71, willFixed link 3 and 4 mutually perpendicular connection of energy converter, fixed link 3 is inserted into tube body 53, tightens trip bolt 51, and installation is perpendicularDirect transfer sensor 9, it is ensured that the axis of vertical sensor 9 is parallel with the axis of fixed link 3, is fixedly mounted on the top of fixed link 3 emptyBetween the drawstring 102 of location position device 2 and depth transducer 10.Robot arm device is rested in by walking basal seat 72 to be needed to measureThe bank in region;To ensure the safety of the equipment in measurement process, the crawler belt face of walking basal seat 72 when robot arm device is stoppedBank and crawler belt end stay the safe distance of 1.5 ~ 2m far from bank.By depth detection apparatus and the Water depth measuring instrument master positioned at bankMachine 1 is connected by signal wire 6, it is preferred that using wireless connection is also feasible.
S2, mechanical arm is reached above the measured zone water surface, ensures that energy converter is in 0.5m below the water surface, and and the water surfaceIt keeps vertical, proceeds by the bathymetric surveying work of the point;
S3, the movement by the mobile realization measurement point position of mechanical arm 7;
S4, it when measuring, behind the complete point position in a row of 72 crawler belt direction of walking basal seat sequence, by the movement of mechanical arm 7 or returnsRotate into the measurement of row next row point position;After being measured in the coverage area of mechanical arm 7, walking basal seat 72 moves a distance,Mechanical arm 7 is continued through to measure;
In preferred scheme, energy converter 4 is kept to be located at underwater 0.5m in measurement process and keeps horizontal with the water surface.
Bathymetric surveying is realized by above step.
The above embodiments are only the preferred technical solution of the present invention, and are not construed as the limitation for the present invention, this hairTechnical characteristic described in bright under the premise of not conflicting, can be combined with each other use, and protection scope of the present invention should be with rightIt is required that record technical solution, including claim record technical solution in technical characteristic equivalents for protection modelIt encloses.Equivalent replacement i.e. within this range is improved, also within protection scope of the present invention.

Claims (10)

CN201810187403.XA2018-03-072018-03-07Underwater topography measurement system and methodActiveCN108267127B (en)

Priority Applications (1)

Application NumberPriority DateFiling DateTitle
CN201810187403.XACN108267127B (en)2018-03-072018-03-07Underwater topography measurement system and method

Applications Claiming Priority (1)

Application NumberPriority DateFiling DateTitle
CN201810187403.XACN108267127B (en)2018-03-072018-03-07Underwater topography measurement system and method

Publications (2)

Publication NumberPublication Date
CN108267127Atrue CN108267127A (en)2018-07-10
CN108267127B CN108267127B (en)2024-05-03

Family

ID=62774750

Family Applications (1)

Application NumberTitlePriority DateFiling Date
CN201810187403.XAActiveCN108267127B (en)2018-03-072018-03-07Underwater topography measurement system and method

Country Status (1)

CountryLink
CN (1)CN108267127B (en)

Citations (25)

* Cited by examiner, † Cited by third party
Publication numberPriority datePublication dateAssigneeTitle
CA1080047A (en)*1978-04-251980-06-24Larry G. MikuleckyFoot propelled water vehicle
CA2067217A1 (en)*1989-10-101991-04-11Gerald M. EdelmanCategorization automata employing neuronal group selection with reentry
US5546362A (en)*1995-05-151996-08-13Vexilar, Inc.Depth finder transducer system
EP0918211A1 (en)*1997-11-211999-05-26Bierbaumer, Hans-Peter Dr. h.c.Capacitive film thickness probe with inductive probe for correction
KR20010001335U (en)*1999-06-282001-01-15이구택A bending-degree detector of caking chamber frame in a coke oven
AU2003902270A0 (en)*2003-05-092003-05-29Origin Energy Solar Pty LtdSeparating and assembling semiconductor strips
DE10310550A1 (en)*2003-03-022004-09-30Fred HockerSystem for investigating inshore water bodies comprises at least one unmanned floating element and at least one unmanned submerged element, and a base station with remote control and data processing means
CN1614441A (en)*2004-12-012005-05-11南京市长江河道管理处Automatic underwater object positioning method and system
CN101456341A (en)*2007-12-122009-06-17中国科学院自动化研究所Multimode bionic amphibious robot
CN101776452A (en)*2009-08-282010-07-14浙江工业大学Active three-dimensional omnidirectional vision-based river width measuring device
CN101867869A (en)*2010-06-012010-10-20上海海洋大学 Network water monitoring and early warning system of mobile robot on water and its realization method
EP2440448A2 (en)*2009-06-112012-04-18Raytheon Sarcos, LLCAmphibious robotic crawler
CN102788574A (en)*2012-07-102012-11-21西北工业大学Hydrographic survey device for small water area
CN103439971A (en)*2013-08-132013-12-11北京师范大学Robot for detecting underwater topography and water quality index in reservoir area
CN203502404U (en)*2013-09-132014-03-26山东省科学院海洋仪器仪表研究所 A marine water quality monitoring data acquisition system
CN104690952A (en)*2015-03-162015-06-10安徽国风塑业股份有限公司Transversely-pulling air bellow applied to biaxially oriented film production line
CN204714585U (en)*2015-04-302015-10-21宁波海晏环保工程有限公司River water device
CN105239545A (en)*2015-10-292016-01-13江龙船艇科技股份有限公司Multifunctional water clean-up and salvage ship
CN205819497U (en)*2016-07-052016-12-21武汉理工大学A kind of unmanned surveying vessel for underwater topography mapping
CN106284263A (en)*2016-11-092017-01-04长江水利委员会长江科学院A kind of rotary-arm type water body top layer waterpower suck-back is except algae degreasing unit and method
CN106769733A (en)*2017-01-102017-05-31中国计量大学Focusing ultrasonic wave formula river load concentration on-line measurement instrument
CN106781371A (en)*2016-12-062017-05-31北京臻迪科技股份有限公司A kind of communication system of unmanned boat under water
CN107255472A (en)*2017-06-152017-10-17中交航局第工程有限公司Jackstone device on a kind of high-accuracy water
KR101830550B1 (en)*2016-12-142018-02-20주식회사 포스코Underwater workload monitoring buoy, Underwater workload monitoring system and method for monitoring underwater workload using the same
CN207798087U (en)*2018-03-072018-08-31中国葛洲坝集团第一工程有限公司Bathymetric surveying system

Patent Citations (25)

* Cited by examiner, † Cited by third party
Publication numberPriority datePublication dateAssigneeTitle
CA1080047A (en)*1978-04-251980-06-24Larry G. MikuleckyFoot propelled water vehicle
CA2067217A1 (en)*1989-10-101991-04-11Gerald M. EdelmanCategorization automata employing neuronal group selection with reentry
US5546362A (en)*1995-05-151996-08-13Vexilar, Inc.Depth finder transducer system
EP0918211A1 (en)*1997-11-211999-05-26Bierbaumer, Hans-Peter Dr. h.c.Capacitive film thickness probe with inductive probe for correction
KR20010001335U (en)*1999-06-282001-01-15이구택A bending-degree detector of caking chamber frame in a coke oven
DE10310550A1 (en)*2003-03-022004-09-30Fred HockerSystem for investigating inshore water bodies comprises at least one unmanned floating element and at least one unmanned submerged element, and a base station with remote control and data processing means
AU2003902270A0 (en)*2003-05-092003-05-29Origin Energy Solar Pty LtdSeparating and assembling semiconductor strips
CN1614441A (en)*2004-12-012005-05-11南京市长江河道管理处Automatic underwater object positioning method and system
CN101456341A (en)*2007-12-122009-06-17中国科学院自动化研究所Multimode bionic amphibious robot
EP2440448A2 (en)*2009-06-112012-04-18Raytheon Sarcos, LLCAmphibious robotic crawler
CN101776452A (en)*2009-08-282010-07-14浙江工业大学Active three-dimensional omnidirectional vision-based river width measuring device
CN101867869A (en)*2010-06-012010-10-20上海海洋大学 Network water monitoring and early warning system of mobile robot on water and its realization method
CN102788574A (en)*2012-07-102012-11-21西北工业大学Hydrographic survey device for small water area
CN103439971A (en)*2013-08-132013-12-11北京师范大学Robot for detecting underwater topography and water quality index in reservoir area
CN203502404U (en)*2013-09-132014-03-26山东省科学院海洋仪器仪表研究所 A marine water quality monitoring data acquisition system
CN104690952A (en)*2015-03-162015-06-10安徽国风塑业股份有限公司Transversely-pulling air bellow applied to biaxially oriented film production line
CN204714585U (en)*2015-04-302015-10-21宁波海晏环保工程有限公司River water device
CN105239545A (en)*2015-10-292016-01-13江龙船艇科技股份有限公司Multifunctional water clean-up and salvage ship
CN205819497U (en)*2016-07-052016-12-21武汉理工大学A kind of unmanned surveying vessel for underwater topography mapping
CN106284263A (en)*2016-11-092017-01-04长江水利委员会长江科学院A kind of rotary-arm type water body top layer waterpower suck-back is except algae degreasing unit and method
CN106781371A (en)*2016-12-062017-05-31北京臻迪科技股份有限公司A kind of communication system of unmanned boat under water
KR101830550B1 (en)*2016-12-142018-02-20주식회사 포스코Underwater workload monitoring buoy, Underwater workload monitoring system and method for monitoring underwater workload using the same
CN106769733A (en)*2017-01-102017-05-31中国计量大学Focusing ultrasonic wave formula river load concentration on-line measurement instrument
CN107255472A (en)*2017-06-152017-10-17中交航局第工程有限公司Jackstone device on a kind of high-accuracy water
CN207798087U (en)*2018-03-072018-08-31中国葛洲坝集团第一工程有限公司Bathymetric surveying system

Non-Patent Citations (3)

* Cited by examiner, † Cited by third party
Title
ZHANG FAJUN ET AL: "The Impact Analysis of Revolute Pair Clearance to the End Pose Accuracy of Welding Robot", 《APPLIED MECHANICS AND MATERIALS》, vol. 778, 19 November 2015 (2015-11-19), pages 259 - 63*
李梁等: "一种基于频域分析的柔性空间机械臂振动抑制方法", 《航天器工程》, vol. 23, no. 5, 15 October 2014 (2014-10-15), pages 41 - 46*
涂胜: "砼拱坝高边坡开挖切槽爆破施工技术", 《四川水泥》, no. 9, 15 September 2016 (2016-09-15), pages 205*

Also Published As

Publication numberPublication date
CN108267127B (en)2024-05-03

Similar Documents

PublicationPublication DateTitle
CN109991669B (en) An underwater magnetic detection system towed by an unmanned ship
CN107631720B (en)Seabed sand waves original position real-time observation device and method
AU2019202090A1 (en)A multistage penetrating in-situ device and method to observe sand waves on the seabed based on resistivity probe
CN101652679A (en)Localization system for an earth moving machine
CN103213657B (en) A ship draft detection system and its detection method
CN107063196B (en) Pressure gauge-based seabed sand wave migration observation device and method
CN109959953A (en)A kind of water-system control system of list buoy towing cable form monitoring
CN103412198A (en)Measuring device and measuring method of three-dimensional space distribution characteristic of ship protective electric field
CN207164267U (en)A kind of neritic area seabed High-Precision Gravimeter Survey system
US3552204A (en)Means for detecting and recording water wave direction
CN109990913B (en)Tail wing adjustable type submarine sediment temperature detection device
CN103105158B (en)Marine riprapping, flatness-tamping and positioning system
CN112162290A (en) An acoustic positioning monitoring method for an offshore floating platform
CN207798087U (en)Bathymetric surveying system
CN114910037B (en)Device and method for detecting pile foundation flushing pit form
KR101180331B1 (en)Apparatus for measuring position of underwater robot
CN108267127A (en)Bathymetric surveying system and method
CN107289905A (en)A kind of surface subsidence observation device
CN209197722U (en)The flat elevation TT&C system of bedding vibro-rammer
CN216049921U (en)High-precision large-water-depth underwater engineering positioning system
CN113654529B (en)Intelligent monitoring device for tidal water level monitoring and working method thereof
CN215639587U (en)Deep foundation pit monitoring device
CN215261757U (en)Tidal level measuring instrument device
CN211731771U (en)Nuclear power plant water taking tunnel inner wall inspection device
CN113465723A (en)Vibration source detection method, storage medium, vibration detection device and vibration detection system

Legal Events

DateCodeTitleDescription
PB01Publication
PB01Publication
SE01Entry into force of request for substantive examination
GR01Patent grant
GR01Patent grant

[8]ページ先頭

©2009-2025 Movatter.jp