CN206317986U - An unmanned ship for ocean early warning - Google Patents
An unmanned ship for ocean early warning Download PDFInfo
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Abstract
Description
技术领域technical field
本实用新型涉及海上船只领域,尤其涉及一种面向海洋预警的无人船。The utility model relates to the field of marine ships, in particular to an unmanned ship facing the ocean for early warning.
背景技术Background technique
现代航海业与海洋行业的发展受到自然界及海洋环境因素的影响和制约,复杂多变的海洋气象对船舶海上航行及海上工作者的安全构成了极大的威胁。为减少海上伤亡、消除潜在隐患,及时掌握海上第一时间海况气象信息,完善健全海上预警机制是必要的,也是当务之急的首要任务。The development of modern navigation and marine industries is affected and restricted by natural and marine environmental factors. The complex and changeable marine meteorology poses a great threat to the safety of ships sailing at sea and the safety of sea workers. In order to reduce casualties at sea, eliminate potential hidden dangers, and timely grasp the first-time sea state and meteorological information at sea, it is necessary and urgent to improve the early warning mechanism at sea.
现有技术中的海洋预警无人船存在能源供给不足的问题。The marine early warning unmanned ship in the prior art has the problem of insufficient energy supply.
发明内容Contents of the invention
本实用新型提供一种面向海洋预警的无人船,以克服上述技术问题。The utility model provides an ocean-facing early warning unmanned ship to overcome the above-mentioned technical problems.
本实用新型一种面向海洋预警的无人船,包括:The utility model is an unmanned ship for ocean early warning, comprising:
太阳能电池板、摩擦纳米发电机、船体、GPS定位导航单元、单片机、蓄电池以及数据采集单元;Solar panels, friction nanogenerators, hulls, GPS positioning and navigation units, single-chip microcomputers, batteries and data acquisition units;
所述船体内部设有两个腔体隔板,所述单片机和所述GPS定位导航单元设置于其中一个腔体内,所述蓄电池置于另一腔体内,所述蓄电池分别与太阳能转化电能单元、所述GPS定位导航单元以及所述单片机连接,所述数据采集单元与所述单片机连接;The inside of the hull is provided with two cavity partitions, the single-chip microcomputer and the GPS positioning and navigation unit are arranged in one of the cavities, and the storage battery is placed in the other cavity, and the storage battery is respectively connected with the solar energy conversion electric energy unit, The GPS positioning and navigation unit is connected to the single-chip microcomputer, and the data acquisition unit is connected to the single-chip microcomputer;
所述太阳能电池板固定于所述腔体隔板上端,所述摩擦纳米发电机为设置于船体外壳外部的摩擦纳米层,所述船体的外壳与所述摩擦纳米层采用螺杆固定,所述太阳能电池板、所述摩擦纳米发电机分别与所述蓄电池连接;The solar panel is fixed on the top of the cavity partition, the friction nanogenerator is a friction nanolayer arranged on the outside of the hull, the hull of the hull and the friction nanolayer are fixed by screws, and the solar energy The battery board and the triboelectric nanogenerator are respectively connected to the storage battery;
所述数据采集单元用于采集海面数据,包括:温度传感器、气压传感器、湿度传感器、摄像头以及风速仪。The data acquisition unit is used to collect sea surface data, including: a temperature sensor, an air pressure sensor, a humidity sensor, a camera and an anemometer.
进一步地,还包括:Further, it also includes:
用于将风能转化动能的风筒,所述风筒设置于船体上表面。An air cylinder for converting wind energy into kinetic energy, the air cylinder is arranged on the upper surface of the hull.
进一步地,所述波浪能转化动能单元,包括:Further, the wave energy conversion kinetic energy unit includes:
侧板、机翼片以及步进电动机;Side panels, airfoils and stepper motors;
所述侧板与螺杆垂直连接,前端采用半圆形,尾端采用丁字形,下方开设有槽口,所述槽口用于挂载所述机翼片,所述机翼片后端安装所述步进电动机。The side plate is vertically connected with the screw rod, the front end adopts a semicircle, the tail end adopts a T-shape, and a notch is opened at the bottom, and the notch is used to mount the wing piece, and the rear end of the wing piece is installed with a Described stepper motor.
进一步地,所述侧板可以为单片或者双片。Further, the side panels may be single-piece or double-piece.
进一步地,所述槽口顶端还设置有孔洞,用于加固机翼片。Further, a hole is provided at the top of the notch for reinforcing the airfoil.
本实用新型利用平台能量自产自销的特性监测位置、天气状况、风压、风速、风向等信息,为海上安全保驾护航。并且通过新能源发电对机器鱼进行能源补给的方案,利用新能源发电技术不仅能够使无人船在海上执勤过程中给自身进行能源供给,而且在全球能源危机的时代为节约能源给予一定的帮助,充分地利用了太阳能、波浪能和风能这几种新能源解决了无人船水下续航的问题。The utility model utilizes the self-produced and self-sold characteristics of the platform energy to monitor information such as location, weather conditions, wind pressure, wind speed, and wind direction, so as to escort safety at sea. In addition, the scheme of energy supply for robotic fish through new energy power generation, the use of new energy power generation technology can not only enable unmanned ships to provide energy for themselves during the sea duty process, but also provide certain help for energy conservation in the era of global energy crisis , making full use of several new energy sources such as solar energy, wave energy and wind energy to solve the problem of underwater endurance of unmanned ships.
附图说明Description of drawings
为了更清楚地说明本实用新型实施例或现有技术中的技术方案,下面将对实施例或现有技术描述中所需要使用的附图作一简单地介绍,显而易见地,下面描述中的附图是本实用新型的一些实施例,对于本领域普通技术人员来讲,在不付出创造性劳动性的前提下,还可以根据这些附图获得其他的附图。In order to more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the following will briefly introduce the accompanying drawings that need to be used in the description of the embodiments or the prior art. Obviously, the appended drawings in the following description The drawings are some embodiments of the utility model, and those skilled in the art can also obtain other drawings according to these drawings on the premise of not paying creative labor.
图1为本实用新型面向海洋预警的无人船系统原理结构示意图;Fig. 1 is the schematic structural diagram of the principle structure of the unmanned ship system facing the ocean early warning of the utility model;
图2为本实用新型面向海洋预警的无人船船体上部结构示意图;Fig. 2 is a schematic diagram of the upper structure of the unmanned ship hull of the utility model facing the ocean early warning;
图3为本实用新型面向海洋预警的无人船船体下部结构示意图;Fig. 3 is a schematic diagram of the lower structure of the unmanned ship hull of the utility model facing the ocean early warning;
图4为本实用新型面向海洋预警的无人船舵及舵机部分结构示意图;Fig. 4 is a structural schematic diagram of the unmanned ship rudder and steering gear of the utility model facing the ocean early warning;
图5为本实用新型面向海洋预警的无人船纳米摩擦发电机结构示意图;Fig. 5 is the structural schematic diagram of the unmanned ship nano-friction generator facing the ocean early warning of the utility model;
图6为本实用新型面向海洋预警的无人船整体结构示意图。Fig. 6 is a schematic diagram of the overall structure of the unmanned ship for marine early warning of the utility model.
附图标号说明:Explanation of reference numbers:
1-螺杆;2-机翼片;3-侧板;4-连接圆轴;5-船壳;6-蓄电池;7-太阳能电池板1;8-风筒;9-单片机和GPS;10-摩擦电纳米发电机;11-步进电动机;12-舵片;13-导流罩;14-摩擦纳米层;15-绝缘层。1-screw; 2-airfoil; 3-side plate; 4-connecting shaft; 5-hull; 6-battery; 7-solar panel 1; Triboelectric nanogenerator; 11-stepping motor; 12-rudder plate; 13-shroud; 14-friction nano-layer; 15-insulation layer.
具体实施方式detailed description
为使本实用新型实施例的目的、技术方案和优点更加清楚,下面将结合本实用新型实施例中的附图,对本实用新型实施例中的技术方案进行清楚、完整地描述,显然,所描述的实施例是本实用新型一部分实施例,而不是全部的实施例。基于本实用新型中的实施例,本领域普通技术人员在没有作出创造性劳动前提下所获得的所有其他实施例,都属于本发明保护的范围。In order to make the purpose, technical solutions and advantages of the embodiments of the utility model more clear, the technical solutions in the embodiments of the utility model will be clearly and completely described below in conjunction with the accompanying drawings in the embodiments of the utility model. Obviously, the described The embodiments are some embodiments of the present utility model, but not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by persons of ordinary skill in the art without creative efforts fall within the protection scope of the present invention.
图1为本实用新型面向海洋预警的无人船系统原理结构示意图,如图所示,本实施例的无人船系统可以包括:Fig. 1 is a schematic structural diagram of the principle structure of the unmanned ship system for marine early warning of the utility model. As shown in the figure, the unmanned ship system of this embodiment may include:
由摩擦纳米发电机和太阳能电池板组成的新能源系统,通过整流器将海洋能和太阳能转化为电能存储在蓄电池中,用于数据采集、方向控制等独立单元的能量供应。船底机翼片构成的主动力单元,将波浪动能转化为前进动能,提供无人船主要行驶动力。A new energy system consisting of triboelectric nanogenerators and solar panels converts ocean energy and solar energy into electrical energy through rectifiers and stores it in batteries for energy supply of independent units such as data acquisition and direction control. The active power unit composed of the bottom wings converts wave kinetic energy into forward kinetic energy and provides the main driving force of the unmanned ship.
图6为本实用新型面向海洋预警的无人船整体结构示意图,如图6所示,本实施例的无人船可以包括:Fig. 6 is a schematic diagram of the overall structure of an unmanned ship facing the ocean early warning of the utility model. As shown in Fig. 6, the unmanned ship of this embodiment may include:
船体包括船壳5、风筒8、单片机和GPS9、太阳能电池板(两块)7、蓄电池6。所述船体的内部设有两块腔体隔板(图中前后两部分),用于密封两块腔体隔板之间的区域;船体内部的两块腔体隔板之间的区域,装设有蓄电池6、单片机和GPS9,且单片机与蓄电池6连接,蓄电池6用于向单片机和GPS9提供电能;船体的上部还安装有密封盖(由于太阳能板的缘故图中未显示),用于将船体的内部密封。所述太阳能电池板设有两块,即第一太阳能电池板7和第二太阳能电池板,第一太阳能电池板7和第二太阳能电池板分别通过紧固螺钉固定连接在船体上部。船体上增加一个摩擦电纳米发电机装置10,当船体与海水冲击时,无人船会产生振动,摩擦电纳米发电机10中的聚合物薄片内表面由于摩擦电效应,从而产生一定量的交流电,将产生的电能存入蓄电池,为单片机和GPS9供电;GPS用于向单片机提供无人船的位置数据,船体整体的后方还安装有风筒8,用于提供无人船的动力并固定其前进方向。船体上部结构如图2所示。The hull includes a hull 5, an air duct 8, a single-chip microcomputer and a GPS 9, a solar panel (two pieces) 7, and a storage battery 6. The inside of the hull is provided with two cavity partitions (the front and rear parts in the figure), which are used to seal the area between the two cavity partitions; the area between the two cavity partitions inside the hull is installed Accumulator 6, single-chip microcomputer and GPS9 are provided, and single-chip microcomputer is connected with storage battery 6, and storage battery 6 is used for providing electric energy to single-chip microcomputer and GPS9; Internal sealing of the hull. Described solar battery panel is provided with two pieces, namely the first solar battery panel 7 and the second solar battery panel, and the first solar battery panel 7 and the second solar battery panel are respectively fixedly connected to the upper part of the hull by fastening screws. A triboelectric nanogenerator device 10 is added to the hull. When the hull collides with seawater, the unmanned ship will vibrate. The inner surface of the polymer sheet in the triboelectric nanogenerator 10 generates a certain amount of alternating current due to the triboelectric effect. , store the generated electric energy in the storage battery, and supply power for the single-chip microcomputer and GPS9; Forward direction. The superstructure of the hull is shown in Figure 2.
具体来说,在船体螺杆上方安装摄像监控系统,向岸端传送实时画面或照片,蓄电池供电,单片机控制器进行岸端控制;检测当前的水流矢量数据,并结合当前无人船的航行矢量数据进行矢量计算,计算得出水流实际流速和水流实际方向;可以在船壳底部安装水温传感器,蓄电池供电,监测当地水温;在船上适当增加气温传感器、气压传感器、湿度传感器和风速仪类似这类监测仪器,起到预警作用。Specifically, a camera monitoring system is installed above the hull screw to transmit real-time pictures or photos to the shore, powered by batteries, and the single-chip controller controls the shore; detect the current vector data of water flow, and combine the navigation vector data of the current unmanned ship Carry out vector calculations to calculate the actual velocity and direction of the water flow; a water temperature sensor can be installed at the bottom of the hull, powered by a battery, to monitor the local water temperature; appropriate temperature sensors, air pressure sensors, humidity sensors and anemometers can be added on board to monitor similar types The instrument plays an early warning role.
进一步地,所述波浪能转化动能单元,包括:Further, the wave energy conversion kinetic energy unit includes:
侧板、机翼片以及步进电动机;Side panels, airfoils and stepper motors;
所述侧板与螺杆垂直连接,前端采用半圆形,尾端采用丁字形,下方开设有槽口,所述槽口用于挂载所述机翼片,所述机翼片后端安装所述步进电动机。进一步地,所述侧板可以为单片或者双片。进一步地,所述槽口顶端还设置有孔洞,用于加固机翼片。The side plate is vertically connected with the screw rod, the front end adopts a semicircle, the tail end adopts a T-shape, and a notch is opened at the bottom, and the notch is used to mount the wing piece, and the rear end of the wing piece is installed with a Described stepper motor. Further, the side panels may be single-piece or double-piece. Further, a hole is provided at the top of the notch for reinforcing the airfoil.
具体来说,如图3至图4所示,波浪能转化动能单元包括侧板3、固定螺杆1、机翼片2。所述采用薄板,侧板3头部采用半圆形设计,尾部采用“丁”字形设计;侧板3的下方开有槽口,用于减少侧向阻力以及提供挂载空间,槽口后方采用半圆形设计,前方采用弧形设计,弧形半径与侧板3头部相同;侧板3的槽口上方设有孔洞,用于安装固定机翼片。侧板3设有单片或者双片(图中为单片),侧板采用四根固定螺杆对称连接固定。Specifically, as shown in FIG. 3 to FIG. 4 , the wave energy conversion kinetic energy unit includes a side plate 3 , a fixed screw 1 , and an airfoil 2 . The thin plate is used, the head of the side plate 3 adopts a semicircular design, and the tail adopts a "T"-shaped design; there is a notch under the side plate 3 to reduce lateral resistance and provide mounting space. Semi-circular design, the front adopts arc design, the arc radius is the same as the head of side plate 3; there is a hole above the notch of side plate 3, which is used to install and fix the wing. The side plate 3 is provided with a single piece or a double piece (single piece in the figure), and the side plate is connected and fixed symmetrically by four fixing screws.
本实施例所述机翼片共设有10片,均为外侧机翼片2;外侧机翼片2分别对称设置在侧板3的外侧,且机翼片采用机翼片组结构与侧板3垂直连接。如图2所示,所述机翼片组结构包括连接圆轴4、扭簧、轴承(图中未展现),两片外侧机翼片2的两端通过紧固螺钉各固定有两个连接圆轴4,两片外侧机翼片2分别通过紧固螺钉,利用连接圆轴4各自固定在侧板3的两端。带有扭簧的连接圆轴4穿过侧板3上相应位置的孔洞,利用固定在侧板3上的轴承与侧板3紧固在一起,使机翼片组结构与侧板3连接,保证机翼片的位置的相对固定。机翼后侧安装有步进电动机11和舵片12,步进电动机11由蓄电池6供电,带动舵片12进行工作,控制行驶方向,从而实现无人船的转向调整。整个过程,无外部能量供给,完全依靠机械结构将波浪能转换为向前的推力。The airfoils described in this embodiment are provided with 10 pieces in total, all of which are outer airfoils 2; 3 vertical connections. As shown in Figure 2, the structure of the wing set includes a connecting round shaft 4, a torsion spring, and a bearing (not shown in the figure). The circular shaft 4 and the two outer wing pieces 2 are respectively fixed on the two ends of the side plate 3 by means of the connecting circular shaft 4 through fastening screws. The connecting round shaft 4 with the torsion spring passes through the hole at the corresponding position on the side plate 3, and the bearing fixed on the side plate 3 is fastened together with the side plate 3, so that the wing piece structure is connected with the side plate 3, Ensure that the position of the wings is relatively fixed. A stepping motor 11 and a rudder plate 12 are installed on the rear side of the wing, and the stepping motor 11 is powered by the battery 6 to drive the rudder plate 12 to work and control the driving direction, thereby realizing the steering adjustment of the unmanned ship. In the whole process, there is no external energy supply, and the mechanical structure is completely relied on to convert wave energy into forward thrust.
如图5所示,进一步地,还包括:与所述蓄电池连接的摩擦纳米发电机;所述摩擦纳米发电机为设置于船体外壳外部的摩擦纳米层,所述船体的外壳与所述摩擦纳米层采用螺杆固定。As shown in Figure 5, further, it also includes: a frictional nanogenerator connected to the storage battery; the frictional nanogenerator is a frictional nanolayer arranged outside the hull shell, Layers are fixed with screws.
具体来说,在船壳14上加一层外壳15,使其与船壳14间在无压力的条件下保留自由存在的间隙,在船壳双层壳内部增加摩擦纳米层,船的外壳设为发电机的绝缘层,这两种聚合物材料在俘获电子能力方面有着较大的差异。船的内外壳都由底部的固定螺杆1固定,通过波浪的不定向撞击,双层壳会因为碰撞产生摩擦,从而与船壳内表面的摩擦纳米层进行紧密接触并发生电荷转移,使得两个聚合物薄片内表面由于摩擦电效应通过周期性的接触—分离而带有电性相反的摩擦电荷。当由于波浪的不定向运动使得形变被释放的时候,两个带相反电荷的表面就会自动分开,相反的摩擦电荷将会在两个面之间产生一个电场,从而在两个电极间形成一个电势差,为了屏蔽这个电势差,电子就会被驱动着经过外电路从一个电极流到另一个电极。在这个过程中产生的电流将持续,直到两个电极的电势再次达到相等。随后,当外壳再次向船壳外部的摩擦纳米层压缩时,摩擦电荷诱导的电势差开始降低到零,转移的电荷将通过外电路流回,从而产生另一个方向相反的电流脉冲。当波浪使得这种周期性的机械形变持续时,交变电流信号将会持续产生,从而诱导出周期性的电势差变化。两层薄板之间有纳米材料支撑,如果用连杆将它与船体固定住,加上上面与船壳扣上一层套,可以将外壳固定住。波浪起伏引起水面摇荡船的垂荡运动,该垂荡运动通过连杆引起水下牵引机的升降运动,转动关节水翼将升降运动转换为水下牵引机的前向运动,该前向运动通过连杆引起水面摇荡船的前向移动。所以,在波浪起伏的海面上,水下牵引机一直处在水面摇荡船前下方。Specifically, add a layer of shell 15 on the hull 14, keep the gap that exists freely with the hull 14 under the condition of no pressure, increase the friction nano layer inside the double shell of the hull, and the shell of the ship is designed As the insulating layer of the generator, the two polymer materials have a large difference in the ability to capture electrons. The inner shell of the ship is fixed by the fixed screw 1 at the bottom. Through the non-directional impact of the waves, the double shell will generate friction due to the impact, so that it will be in close contact with the friction nano-layer on the inner surface of the shell and undergo charge transfer, so that the two The inner surface of the polymer sheet is electrically opposite to the triboelectric charge through periodic contact-separation due to the triboelectric effect. When the deformation is released due to the undirectional motion of the wave, the two oppositely charged surfaces will automatically separate, and the opposite frictional charge will generate an electric field between the two surfaces, thereby forming an electric field between the two electrodes. Potential difference, in order to shield this potential difference, electrons will be driven to flow from one electrode to the other through an external circuit. The current generated during this process will continue until the potentials of the two electrodes are equalized again. Subsequently, when the outer shell is compressed again towards the tribo-nanolayer on the outside of the hull, the potential difference induced by the triboelectric charge starts to decrease to zero, and the transferred charge will flow back through the external circuit, generating another current pulse in the opposite direction. When the waves sustain this periodic mechanical deformation, an alternating current signal will continue to be generated, inducing a periodic change in potential difference. There is nanomaterial support between the two layers of thin plates. If it is fixed with the hull with connecting rods, and a layer of cover is buckled on the top and the hull, the shell can be fixed. Wave undulations cause the heave motion of the ship on the water surface, and the heave motion causes the lifting motion of the underwater tractor through the connecting rod, and the rotating joint hydrofoil converts the lifting motion into the forward motion of the underwater tractor, and the forward motion is passed through The connecting rod causes the forward movement of the water rocking boat. Therefore, on the undulating sea surface, the underwater tractor is always under the front and bottom of the swaying ship on the water surface.
当波浪凸起时,水面摇荡船在浮力作用下发生竖直向上的垂荡运动,由于受到连杆的向前向下的拉力作用,产生了前向速度,即波起时,船一定前向运动。当波浪凸起时,水下牵引机受到连杆向上向后的拉力作用,水翼产生向下向前的升力作用,此时难以确定水下牵引机是否前向运动。但是,此时有一个判定水下牵引机前后运动的临界角度,当绳缆与垂线构成的夹角小于临界角度,水下牵引机向前运动,当大于临界角度时,水下牵引机向后运动(波浪凸起时,水面摇荡船一定前进,所以夹角逐渐减小,促使夹角小于临界角度,水下牵引机开始向前运动)。当波浪凹落时,水面摇荡船在自身重力作用下发生竖直向下的垂荡运动,此时水面摇荡船是否前向运动仍未确定。但是,此时有一个判断水面摇荡船是否前向运动的临界距离(连杆的长度),即当连杆绷紧时,水面摇荡船一定前向运动,当连杆松弛时,水面摇荡船保持原位不动。该过程中,水面摇荡船在波浪作用下发生向下垂荡,其速度符合正弦规律,即在平衡位置具有较高的下行速度,对水下牵引机来说,其在自身重力作用下向下滑行,具有恒定的滑行速度,所以最可能的松弛过程发生在波浪凹落的中间时段,此时,水面摇荡船静止不前,水下牵引机前向滑行。在波浪凹落的前端时段,水面摇荡船前行,水下牵引机亦前行;后端时段,水面摇荡船前行,水下牵引机前行。When the waves are raised, the ship swings vertically upward under the action of buoyancy, and due to the forward and downward pulling force of the connecting rod, a forward speed is generated, that is, when the wave rises, the ship must move forward. sports. When the waves are raised, the underwater tractor is subjected to the upward and backward pulling force of the connecting rod, and the hydrofoil produces a downward and forward lift force. At this time, it is difficult to determine whether the underwater tractor is moving forward. However, at this time, there is a critical angle for judging the forward and backward movement of the underwater tractor. When the angle formed by the cable and the vertical line is less than the critical angle, the underwater tractor moves forward. When it is greater than the critical angle, the underwater tractor moves forward. Backward movement (when the waves are raised, the ship must move forward when the water surface is swaying, so the included angle gradually decreases, so that the included angle is smaller than the critical angle, and the underwater tractor starts to move forward). When the wave sinks, the rocking ship undergoes a vertical downward heaving motion under its own gravity. At this time, whether the rocking ship is moving forward is still undetermined. However, at this time there is a critical distance (the length of the connecting rod) for judging whether the rocking boat moves forward, that is, when the connecting rod is tight, the rocking boat must move forward; when the connecting rod is loose, the rocking boat keeps Stay in place. During this process, the surface swaying ship heaves downward under the action of waves, and its speed conforms to the sinusoidal law, that is, it has a high downward speed at the equilibrium position. For the underwater tractor, it slides downward under its own gravity , has a constant taxiing speed, so the most likely relaxation process occurs in the middle of the wave sag, when the water surface is swaying and the ship is stationary and the underwater tractor is sliding forward. In the front period of wave sag, when the water surface shakes the ship, the underwater tractor also moves forward; during the rear end period, when the water surface shakes the ship moves forward, and the underwater tractor moves forward.
本实用新型通过结合机械动力传输技术、光生伏特效应太阳能板、波浪能转化动能装置、转子风筒风力推进系统及无线传输和海上预警技术。光生伏特效应即采用光—电直接转换方式,该方式是利用光电效应,将太阳辐射能直接转换成电能;风能的利用,运用转筒帆工作时运用的空气动力学原理为马格纳斯效应,旋转的圆柱体向前运动,将会受到垂直于运动方向的侧向力作用;波浪能利用,主要由框架组成,框架内设有可上下浮动的飘浮板,特点是漂浮板上设有曲柄及连杆,曲柄通过轴承座设置在框架上,连杆与飘浮板活动相连,曲柄还外接一个动力输出。并在船体外表面增加纳米摩擦薄膜层,使船体在与海水冲击时,使船壳内外层产生相对位移,引起内外层摩擦产生电能,并存入蓄电池,达到充分利用波浪能的目的;信息传输,依托现有的船岸无线传输技术,在船身上装配摄像头等,配备无线通讯装置,获取它的位置、天气状况、风压、风速、风向等,以此来实现预警功能。The utility model combines mechanical power transmission technology, photovoltaic effect solar panel, wave energy conversion kinetic energy device, rotor blower wind propulsion system, wireless transmission and maritime early warning technology. The photovoltaic effect adopts the direct conversion method of light and electricity, which uses the photoelectric effect to directly convert solar radiation energy into electrical energy; the utilization of wind energy, the aerodynamic principle used when using the rotary sail is the Magnus effect , the rotating cylinder moves forward and will be subjected to a lateral force perpendicular to the direction of motion; the wave energy utilization is mainly composed of a frame, and a floating board that can float up and down is installed in the frame, and the characteristic is that the floating board is equipped with a crank And the connecting rod, the crank is arranged on the frame through the bearing seat, the connecting rod is movably connected with the floating plate, and the crank is also externally connected with a power output. And add a nano-friction film layer on the outer surface of the hull, so that when the hull impacts with seawater, the inner and outer layers of the hull will undergo relative displacement, causing friction between the inner and outer layers to generate electrical energy, which will be stored in the battery to achieve the purpose of making full use of wave energy; information transmission , Relying on the existing ship-to-shore wireless transmission technology, a camera is installed on the ship, and a wireless communication device is equipped to obtain its position, weather conditions, wind pressure, wind speed, wind direction, etc., so as to realize the early warning function.
最后应说明的是:以上各实施例仅用以说明本实用新型的技术方案,而非对其限制;尽管参照前述各实施例对本实用新型进行了详细的说明,本领域的普通技术人员应当理解:其依然可以对前述各实施例所记载的技术方案进行修改,或者对其中部分或者全部技术特征进行等同替换;而这些修改或者替换,并不使相应技术方案的本质脱离本实用新型各实施例技术方案的范围。Finally, it should be noted that: the above embodiments are only used to illustrate the technical solutions of the present utility model, and are not intended to limit it; although the present utility model has been described in detail with reference to the foregoing embodiments, those of ordinary skill in the art should understand : It can still modify the technical solutions described in the foregoing embodiments, or perform equivalent replacements to some or all of the technical features; and these modifications or replacements do not make the essence of the corresponding technical solutions depart from the embodiments of the present utility model Scope of technical solutions.
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Cited By (5)
Publication number | Priority date | Publication date | Assignee | Title |
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CN106628020A (en) * | 2016-12-08 | 2017-05-10 | 大连海事大学 | An unmanned ship for ocean early warning |
CN108082399A (en) * | 2017-12-14 | 2018-05-29 | 河北淳博航空科技有限公司 | A kind of unmanned boat |
CN108544501A (en) * | 2018-04-11 | 2018-09-18 | 惠安县圆周率智能科技有限公司 | A kind of flatbed ship sea inspection station arrangement of the sea police containing robot |
CN109239296A (en) * | 2018-10-17 | 2019-01-18 | 大连海事大学 | Self-powered water quality online monitoring device and method |
CN109693613A (en) * | 2017-10-23 | 2019-04-30 | 通用汽车环球科技运作有限责任公司 | Generate the method and apparatus that can draw the alignment indicator of object |
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Cited By (6)
Publication number | Priority date | Publication date | Assignee | Title |
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CN106628020A (en) * | 2016-12-08 | 2017-05-10 | 大连海事大学 | An unmanned ship for ocean early warning |
CN109693613A (en) * | 2017-10-23 | 2019-04-30 | 通用汽车环球科技运作有限责任公司 | Generate the method and apparatus that can draw the alignment indicator of object |
CN109693613B (en) * | 2017-10-23 | 2022-05-17 | 通用汽车环球科技运作有限责任公司 | Method and apparatus for generating a location indicator for a towable object |
CN108082399A (en) * | 2017-12-14 | 2018-05-29 | 河北淳博航空科技有限公司 | A kind of unmanned boat |
CN108544501A (en) * | 2018-04-11 | 2018-09-18 | 惠安县圆周率智能科技有限公司 | A kind of flatbed ship sea inspection station arrangement of the sea police containing robot |
CN109239296A (en) * | 2018-10-17 | 2019-01-18 | 大连海事大学 | Self-powered water quality online monitoring device and method |
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