JP2008195370A - Propulsion method of second vessel screw using wind force and solar electric generation - Google Patents
Propulsion method of second vessel screw using wind force and solar electric generation Download PDFInfo
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- JP2008195370A JP2008195370A JP2007065799A JP2007065799A JP2008195370A JP 2008195370 A JP2008195370 A JP 2008195370A JP 2007065799 A JP2007065799 A JP 2007065799A JP 2007065799 A JP2007065799 A JP 2007065799A JP 2008195370 A JP2008195370 A JP 2008195370A
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本案は、船舶の後尾に突起物を構成し、自然エネルギーを電力に変え、その電力を動力エネルギーに変えて突起物に取付けたスクリューを回転させて、推進を助けるために発明されたものである。 This plan was invented in order to assist propulsion by configuring a protrusion at the tail of the ship, turning natural energy into electric power, turning that power into motive energy, and rotating the screw attached to the protrusion. .
従来に於ては、船舶の推進方法は石油系燃料使用の船内機・船内外機・船外機型推進方法でしか無かった。 In the past, the ship propulsion method was only an inboard motor / inboard / outboard motor / outboard motor type propulsion method using petroleum-based fuel.
風力発電は縦方向の構築物に取付け、太陽光発電は船舶の面の部分を利用し、ソーラーパネルの面積を要するがそのままパネルを横にしておくと風の影響を受けるので、曇り日は平面パネルを縦面パネルに変えるが縦方向が許容範囲を越える場合は、正方型及び長方型の面積を前後左右多分割及び四分割とし、ある場合は前後二分割か左右二分割としある場合はその面積のまま縦てることとし、その作動後は風の方向をセンサーが捕え角度を変えるシステムとする。風力と太陽光とによって生じた電力をバッテリーに蓄電し又は補電して回転軸運動に変え、船尾に取付けられた船外機移動直線噛合い歯付きのステンレス棒を伝わって船外機を降下させ、スクリューを海面下に沈めて船外機スイッチをONにしてスクリューを回転し推進を補助する。バッテリーの蓄電減少によるバッテリーが上がる事が無いように自動ストップ装置を設置し、ストップすると船外機は自動装置で直線噛合い歯を伝わって上昇させる。再び蓄電されると自動的に船外機を降下させ推進を補助する。又操舵室での本船スクリューを停止し、急方向転換対応の船外機そのものを最大左と右90°推進角度を変えられる様にする。又風力発電は、円周方向回転羽根式を用いるが常に海上の設備であるので塩害が生じるので、回転軸スラスト接触部は錆や劣化しにくいステンレス材及び強化ゴムとで耐久を持たせる。又ソーラーパネルは直接潮風やしぶきが掛らない様に、製造時はまず最下部を透明を問わないアクリル樹脂板を用いたその上に、ソーラーパネルを敷いたその上に透明なアクリル樹脂板を敷いて適宜の面積と適宜の巾を持たせたソーラーパネル総合材とし、四面の高さ巾の三集合部から適宜のミリ巾接着剤を塗って、更に海水や雨水や汚水が入ったり滲み込む事が無い様にするために、樹脂類を塗って更に強度を持たせる。又ソーラーパネル総合材を支えるコの字型ステンレス材は、その奥行きの巾を持ってソーラーパネル総合材がしっくり入る様に造るが時々その上面アクリル透明樹脂板に乗って、付着した塩や塩水や汚れを放水又は直接汚れを拭き取る作業をして、光センサーを十分に働かせるようにする。尚コンテナー船や各種タンカーは面積が広いので、一角の面積を多数持つ造りと成すので当然コの字型ステンレス材と材を合せて溶接し大きな面積を型成するがあらかじめ、一角の面積で対角線上に右か左の一面はコの字型材を用いており、他の一面はL字型材として一面のパネルをコの字型材に挿し入れた後、L字型材の上に置いた後パネルが溶接の飛沫を浴びない様にシートを張ってL字型材をコの字型材にするために溶接する。何の船舶でもソーラーパネル総合材を設置する基本は、造船会社が船を造る際ソーラーパネル総合材昇降ステンレス柱が昇降に支障をきたさない程度の垂直度を求めるがそのために本船の完全平行度を出した上で必要本数船体の船枠に取付けねばならない。ソーラーパネル総合材の注文を受けて要求設計図通りに製造するが造船会社は、ソーラーパネル総合材を受けて支える上面図から見て正方形又は長方形の四本の柱から成る面積の型枠を、平平度バランスを用いて微調整をして完全平行度を求めた上で、ステンレスコの字型材を溶接し溶接熱で歪が生じた分は修正を加え、更に各面積枠を型造った上でソーラーパネル総合材の納入を待つ。造船会社は、船舶を縦方向から見て、外枠に垂直に立てた左右の直線を結ぶ柱の頂点の面に、ワイヤーを掛けるステンレスリングを溶接で取付けるが四本の垂直柱に差し入れるためにそのリングは、クレーン用ワイヤーフックと滑車用ワイヤーフックが同時掛けられる大きさの内径とする。その二つのリングをワイヤーで繋いだワイヤー中心線に滑車が取付けられていて、ワイヤーと接する内径入口を溶接し固定する。型枠に入れられたソーラーパネル総合材は両者にボルト孔が開けられていて、船上でナット締めをし固定するが滑車直下のその型枠中心線部にフック掛けリングを取付ける。型枠とソーラーパネル総合材には、垂直柱に入れる柱よりガタが生じる程の内径を開けていて、まずクレーンで垂直柱より高く完成した型枠を上げて慎重に四つの柱に潜らせて適宜の高さに吊り、別の作業員が四つの垂直柱の頂点部に固定したリングにワイヤーフックを掛け、二箇の滑車が取付けられる。次に吊った型枠にあるフック掛けリングに、ウインチのフックが掛けられ滑車を通してあるので、そのままウインチの作動で型枠は昇降する。当然クレーンで吊っていたフックは取除かれる。しかしそのままだと型枠だけで荷重を支えねばならないので、同じピッチの同径で平行度を持った適宜の外径の円柱との接合部をあらかじめ溶接で取付け固定しておき、後はリモートコントロールでウインチの回転を確かめるだけである。尚、内径には保護のための強化ゴムをあらかじめ装着し、接着剤で固定するが内径にガタが生じるのは強化ゴムを入れた後の事である。 Wind power generation is installed in a vertical structure, and solar power generation uses the surface of the ship, and the area of the solar panel is required. If the vertical direction exceeds the allowable range, the area of the square type and the rectangular type is divided into front, back, left and right multi-partitions and four parts, and in some cases, the front and rear parts are divided into two parts. The system will be vertical with the area, and after the operation, the sensor will change the angle of the wind direction. The electric power generated by wind power and sunlight is stored in a battery or supplemented to turn into rotary shaft movement, and the outboard motor descends through a stainless steel rod with a linear meshing tooth attached to the stern. Then, submerge the screw below the sea level and turn on the outboard motor switch to rotate the screw to assist propulsion. An automatic stop device is installed to prevent the battery from going up due to a decrease in the battery's power storage, and when it is stopped, the outboard motor is moved up through the linear meshing teeth by the automatic device. When power is stored again, the outboard motor is automatically lowered to assist propulsion. In addition, the ship's screw in the wheelhouse is stopped, and the outboard motor that supports rapid turning can change the maximum left and right 90 ° propulsion angle. In addition, wind power generation uses a circumferential rotating blade type, but since it is always a marine facility, salt damage occurs. Therefore, the rotating shaft thrust contact portion is made durable by stainless steel and reinforced rubber which are not easily rusted or deteriorated. In addition, the solar panel is made of an acrylic resin plate that is transparent regardless of whether it is transparent or not, and a transparent acrylic resin plate is placed on the solar panel. It is a solar panel composite with a suitable area and width, and is coated with a suitable millimeter-width adhesive from three gathered parts with a height of four sides, and then seawater, rainwater, and sewage enter or penetrate. In order to make sure there is nothing, apply resin to give it more strength. In addition, the U-shaped stainless steel material that supports the solar panel composite material is built so that the solar panel composite material fits in with the width of the depth, but sometimes it rides on the top surface acrylic transparent resin plate, and adheres salt, salt water, Work to drain the dirt or wipe off the dirt directly so that the light sensor works sufficiently. Since container ships and various tankers have a large area, they are built with a large number of corners, so naturally they are welded together with a U-shaped stainless steel material to form a large area. The left or right side is using a U-shaped material, and the other side is an L-shaped material. After inserting the panel on the U-shaped material, the panel is placed on the L-shaped material. The sheet is stretched so as not to be exposed to the splash of welding, and the L-shaped material is welded to make a U-shaped material. The basic principle of installing solar panel composites for any ship is that when a shipbuilding company builds a ship, it requires a vertical degree that does not interfere with the vertical movement of the solar panel composite stainless steel pillars. It must be installed on the hull of the required number of hulls. Orders for solar panel composite materials are manufactured according to the required design drawings, but the shipbuilding company has a formwork with an area consisting of four pillars, square or rectangular, as seen from the top view receiving and supporting the solar panel composite materials. After making fine adjustments using the flatness balance to obtain perfect parallelism, the stainless steel U-shaped material was welded, and the distortion caused by welding heat was corrected, and each area frame was molded. And wait for delivery of solar panel materials. The shipbuilding company installs a stainless steel ring that hangs the wire on the top of the pillar that connects the left and right straight lines standing vertically to the outer frame when the ship is viewed from the vertical direction, but it is inserted into the four vertical pillars. In addition, the ring has an inner diameter large enough to hook the wire hook for crane and the wire hook for pulley. A pulley is attached to the wire center line connecting the two rings with a wire, and the inner diameter inlet contacting the wire is welded and fixed. The solar panel integrated material placed in the mold has bolt holes on both sides, and is fastened with nuts on the ship, but a hook ring is attached to the center line of the mold just below the pulley. The formwork and solar panel composite material has an inner diameter that is more loose than the vertical pillars. First, lift the finished formwork higher than the vertical pillars with a crane and carefully divide it into the four pillars. Two pulleys are attached by hanging wire hooks on a ring suspended at an appropriate height and fixed by another worker at the apex of four vertical columns. Next, since the hook of the winch is hung on the hook hanging ring in the suspended formwork and passes through the pulley, the formwork is moved up and down by the operation of the winch as it is. Of course, the hooks hung by the crane are removed. However, since the load must be supported only by the formwork as it is, the joint with the appropriate outer diameter cylinder with the same diameter and parallelism with the same pitch is fixed by welding in advance, and then the remote control Just check the rotation of the winch. In addition, a reinforcing rubber for protection is attached to the inner diameter in advance and fixed with an adhesive, but the inner diameter is loose after the reinforcing rubber is added.
従来の船外機は、石油系燃料であるが電気で推進する船外機の開発をまずやらねばならない。 Conventional outboard motors are petroleum-based fuels, but we must first develop outboard motors that are propelled by electricity.
以下、発明の実施形態について説明する。
(イ)図1の如く、造船所で設置された船外機移動ステンレス棒2に、図2の如く直線噛合い歯9を切削研磨して造り、その棒を船尾の適宜の上下の位置に取付けリング12と船体の接合部を全周溶接13とする。その棒の設置の後に、組付け分解した船外機を船尾で取付け、移動式のバッテリーで正常作動を確認して納入を完了する。
(ロ)造船所から受注した図面通りの型枠にすっぽりと入る寸法の図3のように、上部アクリル透明樹脂板16とソーラーパネル17と下部アクリル樹脂板18とを接着剤で固定し、更に塩水や雨水や汚れが滲まない様に樹脂類をそのまま適宜の巾塗って強度も強める。後は造船所のステンレス柱図3の28の垂直度やコの字型ステンレス材の一つの面積枠ごとの平行度や、パネルを挿入した型枠を支えるステンレスリングとの溶接に対して平行度が出ていれば、造船所側が納入を受けて組立てればよいだけである。Embodiments of the invention will be described below.
(A) As shown in FIG. 1, the outboard motor moving
(B) The upper acrylic transparent resin plate 16, the solar panel 17, and the lower acrylic resin plate 18 are fixed with an adhesive as shown in FIG. 3 which fits into the formwork as received from the shipyard. In order to prevent salt water, rainwater and dirt from spreading, the resin is applied as it is to increase the strength. After that, the shipyard's stainless steel pillars Figure 28's verticality of 28, parallelism for each area frame of U-shaped stainless steel, parallelism to the welding with the stainless steel ring that supports the formwork with the panel inserted If it is, the shipyard only needs to receive and assemble it.
(イ)風力と太陽光発電の二つのクリーンエネルギーを本船の補助推進エネルギーに転換し、運航の油代金を減少でき又一酸化炭素排出を減少させて、地球温暖化防止に貢献できる。
(ロ)船舶は、自動車の様にハンドル操作で即回転即減速とは行かないある必要距離の惰航が発生していたが船外機の特色である推進機の角度を左と右90°変えられるので、急な事態の発生にも対応できる様になる。(B) Two clean energy sources, wind and solar power, can be converted into auxiliary propulsion energy for the ship, reducing the oil price for operation and reducing carbon monoxide emissions, thereby contributing to the prevention of global warming.
(B) The ship had a towing of a certain required distance that did not go through immediate rotation and immediate deceleration by operating the steering wheel like a car, but the propulsion unit, which is a feature of an outboard motor, has an angle of 90 ° left and right Because it can be changed, it will be able to cope with sudden occurrences.
[図1] 1 船外機下降ストッパースイッチ 2 船外機移動軸ステンレス棒 3 船外機上昇ストッパースイッチ 4 船外機 5 船外機下降ストッパー凸部 37 ジョイント
[図2] 8 船外機上昇ストッパー凸部 9 直線噛合い歯 10 配線コード 11 船外機上昇ストッパースイッチ 12 船外機移動軸ステンレス丸棒取付カップリング 13 全周溶接 14 配線滑車A 15 配線滑車B 16 配線
[図4] 17 上部アクリル透明樹脂板 18 ソーラーパネル 19 下部アクリル樹脂板 20 コの字型ステンレス材下部 21 強化ゴム保護栓 22 コの字型ステンレス材上部 23 上昇ストッパー凸部 24 溶接 25 上昇ストッパースイッチ 26 下降ストッパースイッチ 27 溶接 28 ソーラーパネル総合材支えステンレスリング 29 ソーラーパネル総合材昇 降ステンレス柱 30 下降ストッパー凸部
[図5] 31 ソーラーパネル総合材昇降滑車 32 ワイヤー取付けフックリング 33 コンテナー積荷作業考慮凸耳部 34 ウインチ 35 船体 36 ワイヤーフックリング[Fig. 1] 1 Outboard motor
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JP2007065799A JP2008195370A (en) | 2007-02-15 | 2007-02-15 | Propulsion method of second vessel screw using wind force and solar electric generation |
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Cited By (4)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
JP2008283842A (en) * | 2007-05-09 | 2008-11-20 | Tomooki Kametani | Car solar power-generation/wind-power generation applying power system loading |
JP2009126508A (en) * | 2007-11-26 | 2009-06-11 | Tomooki Kametani | Outboard motor both-side surface stern setting abrupt direction-changing system using both marine vessel solar power generation and wind power generation energy |
CN102582810A (en) * | 2011-01-11 | 2012-07-18 | 别道平 | Ship energy regenerating technical method |
KR101824590B1 (en) * | 2016-08-16 | 2018-02-01 | 삼성중공업 주식회사 | Auxillary thrust apparatus for ship |
-
2007
- 2007-02-15 JP JP2007065799A patent/JP2008195370A/en active Pending
Cited By (4)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
JP2008283842A (en) * | 2007-05-09 | 2008-11-20 | Tomooki Kametani | Car solar power-generation/wind-power generation applying power system loading |
JP2009126508A (en) * | 2007-11-26 | 2009-06-11 | Tomooki Kametani | Outboard motor both-side surface stern setting abrupt direction-changing system using both marine vessel solar power generation and wind power generation energy |
CN102582810A (en) * | 2011-01-11 | 2012-07-18 | 别道平 | Ship energy regenerating technical method |
KR101824590B1 (en) * | 2016-08-16 | 2018-02-01 | 삼성중공업 주식회사 | Auxillary thrust apparatus for ship |
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