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<TITLE>Notes on Roil class ship</TITLE>
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Note: this is a shortened comprehensive version.<br><br>

<p>
<h3>Size</h3><br>
In Bots-I several scene in several episodes show that the Basroil has two visible shuttle bays.<br>
<img src="res/Roil_bays_e.gif" border="0"><img src="res/Roil_bays1a_e.gif" border="0"><img src="res/Roil_bays1b_e.gif" border="0"><br>
Based on these we get a rought size of 475 m for the ship.  This is reasonable in combination with crew room sizes and arrangement, which suggest a living area of at least 20 m in width. (without hull, curves, etc.)<br>
Crew room : 5 m long and 2 m wide living space (table, chairs, bed), 2 m for bathroom further at the end, 1 m at sides for personal storage.<br>
Corridor/Passage ways: 1.2+ m wide; double as wide with stairs connecting decks.<br>
In Bots-II the bay takes the place of the bottom RCS thrusters (Reaction Control System).  This should be ignored as a bad attempt to fix sizes as we will see later.<br>

<p>
<h3>Weight</h3><br>
At 475 m the volume of the ship is roughly 2.5-3 times a Nimitz-class nuclear aircraft carrier.  The Nimitz-class is a simple single hull design based on various steel such as HSLA-100 steel whose thickness varies around 25.4 mm.<br>
The steel has a density of 7.842 which is exactly 3 times that of carbon crystal composite.  Only 47000 tons are used in the newest carrier.  Since our space craft has double hull with additional protections as well as more thickness due to stress requirements it is reasonable to have a bare weight of 95000 tons.<br>
Additionally a Faraday-cage mesh is nessecary to protect the ship internals from latent vacuum electric fields, solar storms, emp, etc. which will make up some kilo tons in the least.<br>
The armor is thick compared to normal hull or structural thickness and covers a much bigger area hence it is estimated to be as much as half the structural mass.<br>

<p>
<h3>Water</h3><br>
Based on the volume we can get the volume for the water layer under the armor at 1 m thickness.  Unlike on a planet in space there is no gravity or air which would help pumping a tank.  Therefore, pipes are used for ease of pumping.<br>
<img src="res/Abh-Waterpipe.gif" border="0"><br>
This gives about 87650 tons no less but not much more either (structural free spaces included).<br>
Also note that water is a hazardous liquid in space.  It can corrode material or freeze-expand and hence destroy materials.<br>

<p>
<h3>Propulsion</h3><br>
Antimatter-water propulsion is pretty straight forward.  We can ignore the complicated antimatter-matter propulsion system commonly used in acient earth days for this system.  By using a hydromagneto system combined with the released energy from the animatter-matter reaction with a generous efficiency of 90%.<br>
From here we play a bit with numbers to get the best solution.<br>
<ul>
  <li>For a realistic exhaust at 0.5 c this gives 13.8 kg of water for thrust per 1 kg antimatter and 1 kg matter.  This gives a specific fuel consumption of 14.8 kg water and 1 kg antimatter.<br>
        With a reasonable acceleration performance of 30 g and 350000 tons the propulsion system has to provide 700 kg water as thrust per second.  This equals 50.724 kg of antimatter per second needed.
  </li>
  <li>For a realistic exhaust at 0.2 c this gives 97.8 kg of water for thrust.  At 30 g the system has to provide 1750 kg water as thrust per second.  This equals 17.8937 kg of antimatter per second needed.
  </li>
  <li>For a realistic exhaust at 0.1 c this gives 397.9 kg of water for thrust.  At 30 g the system has to provide 3500 kg water as thrust per second.  This equals 9.212 kg of antimatter per second needed.
  </li>
  <li>For a realistic exhaust at 0.1 c this gives 397.9 kg of water for thrust.  At 20 g the system has to provide 2333.3 kg water as thrust per second.  This equals 5.864 kg of antimatter per second needed.
  </li>
  <li>For a realistic exhaust at 0.1 c this gives 397.9 kg of water for thrust.  At 10 g the system has to provide 1166.6 kg water as thrust per second.  This equals 2.932 kg of antimatter per second needed.
  </li>
  <li>For a realistic exhaust at 0.1 c this gives 397.9 kg of water for thrust.  At 4 g the system has to provide 466.6 kg water as thrust per second.  This equals 1.1728 kg of antimatter per second needed.
  </li>
</ul>
From the novels we know that ships do cruise around 30 km/s in normal space.  At 30 g a 100 second burn is necessary to achieve such velocities.<br>
Note: Exhaust velocity cannot be less than 0.1 c or it will become an ion-drive!<br>
Note that the propulsion system is independent from the ship's reactor except for keeping magnetic confinement.<br>

<p>
<h3>Reactor</h3><br>
The reactor's purpose is to provide energy for ship systems and weapons.  Given specifics for the various systems a rating of at least 230+ TW is necessary.  80% of this is purely for powering the anti proton cannon at a charging rate of 10 seconds.<br>

<p>
<h3>Weapons</h3><br>
Refer to the various pages in the database.<br>

<p>
<h3>Waste Heat</h3><br>
As a rule of thumb on Earth to get rid of waste heat one has to spend 10 times as much energy.  To cool down, one tries to transfer heat from the body to the outside.  On a planet the outside is air that will take away the excess heat.  In the vacuum of space one can only radiate the heat or dump it temporary into a heat sink and radiate it away later.<br>
One consequence is that the heat sink limits how much heat can be generated.  If more are generated than the heat sink can cover then the ship becomes a molten clump and all your worries are no more.<br>
Idealy the heat sink should be at the lowest possible temperature in the beginnin so that its capacity can be maxed out.  However, that's not always viable.  If water is in solid (ice) form it's more trouble some than worth it.  Ice can damage the pipes and also hinders heat transfere throughout the system.<br>
Hence, water will be kept at 277 K or 4 degree Celcius that's the most naural coldest state it can be found. (Lower temperature water tends to freeze) For safety the water will be allowed to vaporize to a certain degree.<br>
<ul>
  <li>Heat sink allowed to be used to the boiling point gives a capacity of 4.184 MJ/t K * 87650 t * 96 K = 35205849.6 MJ = 35205.8496 GJ
  </li>
  <li>Heat sink allowed to barely vaporize gives a capacity of 35205.8496 GJ + 2257 MJ/t * 87650 t  = 35205.8496 GJ + 197826050 MJ = 233031.8996 GJ
  </li>
</ul>
<br>
Waste heats:  (We ignore the propulsion system and expect it to dump its heat into the exhaust most of the time)<br>
<ul>
  <li>Reactor 90% eff. = 23TW
  </li>
  <li>Antiproton cannon 90% eff. = 204124.145 GJ at max. power
  </li>
  <li>Laser turrets 80% eff. = 1.04GW for each turret
  </li>
  <li>Space-time generator ?
  </li>
  <li>Magnetic shield ?
  </li>
</ul>
With heat sink capacity I only lasers can be used for 1.5 seconds.<br>
With heat sink capacity II anti-proton cannon can be used only once, while lasers can be used for 1.25 seconds.<br>

</BODY></HTML>ℼⴭ∧⼼楴汴㹥⼼敨摡ⴾ㸭ਊ猼牣灩⁴祴数∽整瑸樯癡獡牣灩≴ਾ⼯睏敮䥲ੑ慶⁲彟楯影捰⁴‽〵਻晩 彟楯影捰㹴ㄽ〰簠⁼慍桴昮潬牯䴨瑡⹨慲摮浯⤨ㄪ〰⠯〱ⴰ彟楯影捰⥴ ‾‰ ੻慶⁲潟煩ⁱ‽潟煩ⁱ籼嬠㭝弊楯煱瀮獵⡨❛楯影摡偤条䉥慲摮Ⱗ䰧捹獯崧㬩弊楯煱瀮獵⡨❛楯影摡偤条䍥瑡Ⱗ䤧瑮牥敮⁴‾敗獢瑩獥崧㬩弊楯煱瀮獵⡨❛楯影摡偤条䱥晩捥捹敬Ⱗ䤧瑮湥❤⥝਻潟煩⹱異桳嬨漧煩摟呯条崧㬩⠊畦据楴湯⤨笠瘊牡漠煩㴠搠捯浵湥⹴牣慥整汅浥湥⡴猧牣灩❴㬩漠煩琮灹⁥‽琧硥⽴慪慶捳楲瑰㬧漠煩愮祳据㴠琠畲㭥漊煩献捲㴠搠捯浵湥⹴潬慣楴湯瀮潲潴潣⁬‫⼧瀯⹸睯敮楲⹱敮⽴瑳獡猯氯捹獯⹮獪㬧瘊牡猠㴠搠捯浵湥⹴敧䕴敬敭瑮䉳呹条慎敭✨捳楲瑰⤧せ㭝猠瀮牡湥乴摯⹥湩敳瑲敂潦敲漨煩‬⥳਻⥽⤨਻੽⼊⼯⼯⼯䜠潯汧⁥湁污瑹捩ੳ慶⁲束煡㴠张慧ⁱ籼嬠㭝弊慧⹱異桳嬨弧敳䅴捣畯瑮Ⱗ✠䅕㈭㐱㈰㤶ⴵㄲ崧㬩弊慧⹱異桳嬨弧敳䑴浯楡乮浡❥‬愧杮汥楦敲挮浯崧㬩弊慧⹱異桳嬨弧敳䍴獵潴噭牡Ⱗㄠ‬洧浥敢彲慮敭Ⱗ✠湡浩㙥猯楥慫❩‬崳㬩弊慧⹱異桳嬨弧牴捡偫条癥敩❷⥝਻昨湵瑣潩⡮ ੻†慶⁲慧㴠搠捯浵湥⹴牣慥整汅浥湥⡴猧牣灩❴㬩朠⹡祴数㴠✠整瑸樯癡獡牣灩❴※慧愮祳据㴠琠畲㭥 朠⹡牳⁣‽✨瑨灴㩳‧㴽搠捯浵湥⹴潬慣楴湯瀮潲潴潣⁬‿栧瑴獰⼺猯汳‧›栧瑴㩰⼯睷❷ ‫⸧潧杯敬愭慮祬楴獣挮浯术⹡獪㬧 瘠牡猠㴠搠捯浵湥⹴敧䕴敬敭瑮䉳呹条慎敭✨捳楲瑰⤧せ㭝猠瀮牡湥乴摯⹥湩敳瑲敂潦敲木ⱡ猠㬩紊⠩㬩ਊ⼯⼯⼯䰠捹獯䤠楮楴污穩瑡潩⁮⼯⼯⼯⼯⼯⼯⼯⼯⼯⼯ਯ慶⁲祬潣彳摡㴠䄠牲祡⤨਻慶⁲祬潣彳敳牡档煟敵祲㴠∠㬢瘊牡氠捹獯潟汮慯彤楴敭㭲ਊ慶⁲浣牟汯⁥‽氢癩≥਻慶⁲浣桟獯⁴‽愢杮汥楦敲氮捹獯挮浯㬢瘊牡挠彭慴楸⁤‽⼢敭扭牥浥敢摤摥㬢瘊牡愠杮汥楦敲浟浥敢彲慮敭㴠∠湡浩㙥猯楥慫≩਻慶⁲湡敧晬物彥敭扭牥灟条⁥‽愢楮敭⼶敳歩楡䄯桢刭楯彬潮整⹳瑨≭਻慶⁲湡敧晬物彥慲楴杮彳慨桳㴠∠㜱㜲㐰㈹ㄶ㐺愹慡っ慡戶扥㔵㜷慦㔲晡㤰㈶㘲㡥∸਻瘊牡氠捹獯慟彤慣整潧祲㴠渠汵㭬ਊ慶⁲祬潣彳摡牟浥瑯彥摡牤㴠∠〲⸹〲⸲㐲⸴∹਻慶⁲祬潣彳摡睟睷獟牥敶⁲‽眢睷愮杮汥楦敲氮捹獯挮浯㬢瘊牡攠楤彴楳整畟汲㴠∠睷⹷湡敧晬物⹥祬潣⹳潣⽭慬摮湩⽧慬摮湩⹧浴汰甿浴獟畯捲㵥潨獵♥瑵彭敭楤浵氽湡楤杮慰敧甦浴损浡慰杩㵮潴汯慢汲湩≫਻㰊猯牣灩㹴㰊捳楲瑰琠灹㵥琢硥⽴慪慶捳楲瑰•牳㵣栢瑴獰⼺猯牣灩獴氮捹獯挮浯振瑡慭⽮湩瑩樮≳㰾猯牣灩㹴ਊ猼牣灩⁴祴数✽整瑸樯癡獡牣灩❴ਾ瘠牡朠潯汧瑥条㴠朠潯汧瑥条簠⁼絻਻朠潯汧瑥条挮摭㴠朠潯汧瑥条挮摭簠⁼嵛਻⠠畦据楴湯⤨笠 †慶⁲慧獤㴠搠捯浵湥⹴牣慥整汅浥湥⡴猧牣灩❴㬩 †慧獤愮祳据㴠琠畲㭥 †慧獤琮灹⁥‽琧硥⽴慪慶捳楲瑰㬧 †慶⁲獵卥䱓㴠✠瑨灴㩳‧㴽搠捯浵湥⹴潬慣楴湯瀮潲潴潣㭬 †慧獤献捲㴠⠠獵卥䱓㼠✠瑨灴㩳‧›栧瑴㩰⤧⬠ ††⼧眯睷朮潯汧瑥条敳癲捩獥挮浯琯条樯⽳灧⹴獪㬧 †慶⁲潮敤㴠搠捯浵湥⹴敧䕴敬敭瑮䉳呹条慎敭✨捳楲瑰⤧せ㭝 †潮敤瀮牡湥乴摯⹥湩敳瑲敂潦敲木摡ⱳ渠摯⥥਻素⠩㬩㰊猯牣灩㹴ਊ㰊捳楲瑰琠灹㵥琧硥⽴慪慶捳楲瑰㸧 潧杯敬慴⹧浣⹤異桳昨湵瑣潩⡮ ੻†朠潯汧瑥条搮晥湩卥潬⡴⼧㔹㘹㔳㘹䄯䝎㍟〰㉸〵摟灦Ⱗ嬠〳ⰰ㈠〵ⱝ✠楤⵶灧⵴摡ㄭ㔴㈰㜰㠴〴〷〭⤧愮摤敓癲捩⡥潧杯敬慴⹧異慢獤⤨㬩 †潧杯敬慴⹧湥扡敬敓癲捩獥⤨਻素㬩㰊猯牣灩㹴ਊ猼牣灩⁴祴数✽整瑸樯癡獡牣灩❴ਾ朠潯汧瑥条挮摭瀮獵⡨畦据楴湯⤨笠 †潧杯敬慴⹧敤楦敮汓瑯✨㤯㤵㌶㤵⼶乁彇扡癯彥㈷砸〹摟灦Ⱗ嬠㈷ⰸ㤠崰‬搧癩札瑰愭ⵤ㐱〵〲㐷㐸㜰ⴰ✱⸩摡卤牥楶散木潯汧瑥条瀮扵摡⡳⤩਻†朠潯汧瑥条攮慮汢卥牥楶散⡳㬩 ⥽਻⼼捳楲瑰ਾ㰊捳楲瑰琠灹㵥琧硥⽴慪慶捳楲瑰㸧 潧杯敬慴⹧浣⹤異桳昨湵瑣潩⡮ ੻†朠潯汧瑥条搮晥湩卥潬⡴⼧㔹㘹㔳㘹䄯䝎扟汥睯㝟㠲㥘弰晤❰‬㝛㠲‬〹ⱝ✠楤⵶灧⵴摡ㄭ㔴㈰㜰㠴〴〷㈭⤧愮摤敓癲捩⡥潧杯敬慴⹧異慢獤⤨㬩 †潧杯敬慴⹧湥扡敬敓癲捩獥⤨਻素㬩㰊猯牣灩㹴ਊ㰊捳楲瑰琠灹㵥琢硥⽴慪慶捳楲瑰㸢⠊畦据楴湯椨噳 ੻††晩⠠椡噳 ੻††††敲畴湲਻††੽ †⼠琯楨⹳祬潣彳敳牡档煟敵祲㴠氠捹獯束瑥獟慥捲彨敲敦牲牥⤨਻††慶⁲摡杍⁲‽敮⁷摁慍慮敧⡲㬩 †瘠牡氠捹獯灟潲彤敳⁴‽摡杍⹲档潯敳牐摯捵却瑥⤨਻††慶⁲汳瑯⁳‽≛敬摡牥潢牡≤‬氢慥敤扲慯摲∲‬琢潯扬牡楟慭敧Ⱒ∠潴汯慢彲整瑸Ⱒ∠浳污扬硯Ⱒ∠潴彰牰浯≯‬昢潯整㉲Ⱒ猢楬敤≲㭝 †瘠牡愠䍤瑡㴠琠楨⹳祬潣彳摡损瑡来牯㭹 †愠䵤牧献瑥潆捲摥慐慲⡭瀧条❥‬愨䍤瑡☠…摡慃⹴浤穯 ‿摡慃⹴浤穯㨠✠敭扭牥⤧਻ †椠⁦琨楨⹳祬潣彳敳牡档煟敵祲 ੻††††摡杍⹲敳䙴牯散偤牡浡∨敫睹牯≤‬桴獩氮捹獯獟慥捲彨畱牥⥹਻††⁽ †攠獬⁥晩⠠摡慃⁴☦愠䍤瑡昮湩彤桷瑡 ੻††††摡杍⹲敳䙴牯散偤牡浡✨敫睹牯❤‬摡慃⹴楦摮睟慨⥴਻††੽ †映牯⠠慶⁲⁳湩猠潬獴 ੻††††慶⁲汳瑯㴠猠潬獴獛㭝 †††椠⁦愨䵤牧椮即潬䅴慶汩扡敬猨潬⥴ ੻††††††桴獩氮捹獯慟孤汳瑯⁝‽摡杍⹲敧却潬⡴汳瑯㬩 †††素 †素ਊ †愠䵤牧爮湥敤䡲慥敤⡲㬩 †愠䵤牧爮湥敤䙲潯整⡲㬩紊⠨畦据楴湯⤨笠 †瘠牡眠㴠〠‬⁨‽ⰰ洠湩浩浵桔敲桳汯⁤‽〳㬰 †椠⁦琨灯㴠‽敳晬 ੻††††敲畴湲琠畲㭥 †素ਊ††晩⠠祴数景眨湩潤⹷湩敮坲摩桴 㴽✠畮扭牥‧ ੻††††⁷‽楷摮睯椮湮牥楗瑤㭨 †††栠㴠眠湩潤⹷湩敮䡲楥桧㭴 †素 †攠獬⁥晩⠠潤畣敭瑮搮捯浵湥䕴敬敭瑮☠…搨捯浵湥⹴潤畣敭瑮汅浥湥⹴汣敩瑮楗瑤⁨籼搠捯浵湥⹴潤畣敭瑮汅浥湥⹴汣敩瑮效杩瑨⤩笠 †††眠㴠搠捯浵湥⹴潤畣敭瑮汅浥湥⹴汣敩瑮楗瑤㭨 †††栠㴠搠捯浵湥⹴潤畣敭瑮汅浥湥⹴汣敩瑮效杩瑨਻††੽††汥敳椠⁦搨捯浵湥⹴潢祤☠…搨捯浵湥⹴潢祤挮楬湥坴摩桴簠⁼潤畣敭瑮戮摯⹹汣敩瑮效杩瑨⤩笠 †††眠㴠搠捯浵湥⹴潢祤挮楬湥坴摩桴਻††††⁨‽潤畣敭瑮戮摯⹹汣敩瑮效杩瑨਻††੽ †爠瑥牵⁮⠨⁷‾業楮畭呭牨獥潨摬 ☦⠠⁨‾業楮畭呭牨獥潨摬⤩਻⡽⤩⤩਻ਊ眊湩潤⹷湯潬摡㴠映湵瑣潩⡮ ੻††慶⁲⁦‽潤畣敭瑮朮瑥汅浥湥䉴䥹⡤氢捹獯潆瑯牥摁⤢਻††慶⁲⁢‽潤畣敭瑮朮瑥汅浥湥獴祂慔乧浡⡥戢摯≹嬩崰਻††⹢灡数摮桃汩⡤⥦਻††⹦瑳汹⹥楤灳慬⁹‽戢潬正㬢 †搠捯浵湥⹴敧䕴敬敭瑮祂摉✨祬潣䙳潯整䅲楤牆浡❥⸩牳⁣‽⼧摡⽭摡是潯整䅲⹤晩慲敭栮浴❬਻ †⼠ 汓摩牥䤠橮捥楴湯 †⠠畦据楴湯⤨笠 †††瘠牡攠㴠搠捯浵湥⹴牣慥整汅浥湥⡴椧牦浡❥㬩 †††攠献祴敬戮牯敤⁲‽〧㬧 †††攠献祴敬洮牡楧⁮‽㬰 †††攠献祴敬搮獩汰祡㴠✠汢捯❫਻††††⹥瑳汹⹥獣䙳潬瑡㴠✠楲桧❴਻††††⹥瑳汹⹥敨杩瑨㴠✠㔲瀴❸਻††††⹥瑳汹⹥癯牥汦睯㴠✠楨摤湥㬧 †††攠献祴敬瀮摡楤杮㴠〠਻††††⹥瑳汹⹥楷瑤⁨‽㌧〰硰㬧 †素⠩㬩ਊ †⼠ 潂瑴浯䄠⁤湉敪瑣潩੮†† 畦据楴湯⤨笠 †††瘠牡戠㴠搠捯浵湥⹴敧䕴敬敭瑮䉳呹条慎敭∨潢祤⤢せ㭝ਊ††††慶⁲楩⁦‽潤畣敭瑮挮敲瑡䕥敬敭瑮✨晩慲敭⤧਻††††楩⹦瑳汹⹥潢摲牥㴠✠✰਻††††楩⹦瑳汹⹥慭杲湩㴠〠਻††††楩⹦瑳汹⹥楤灳慬⁹‽戧潬正㬧 †††椠晩献祴敬挮獳汆慯⁴‽爧杩瑨㬧 †††椠晩献祴敬栮楥桧⁴‽㈧㐵硰㬧 †††椠晩献祴敬漮敶晲潬⁷‽栧摩敤❮਻††††楩⹦瑳汹⹥慰摤湩⁧‽㬰 †††椠晩献祴敬眮摩桴㴠✠〳瀰❸਻††††楩⹦牳⁣‽⼧摡⽭摡椯橮捥䅴⹤晩慲敭栮浴❬਻†††† †††瘠牡挠楤⁶‽潤畣敭瑮挮敲瑡䕥敬敭瑮✨楤❶㬩 †††挠楤⹶瑳汹⁥‽眢摩桴㌺〰硰活牡楧㩮〱硰愠瑵㭯㬢 †††挠楤⹶灡数摮桃汩⡤椠晩⤠਻††††晩 ⁢਩††††੻††††††⹢湩敳瑲敂潦敲挨楤ⱶ戠氮獡䍴楨摬㬩 †††素 †素⠩㬩ਊ੽ਊ⼼捳楲瑰ਾ㰊瑳汹㹥⌊潢祤⸠摡敃瑮牥汃獡⁳੻†慭杲湩〺愠瑵㭯 搠獩汰祡戺潬正℠浩潰瑲湡㭴 漠敶晲潬㩷楨摤湥਻†楷瑤㩨〱┰਻੽戣摯⁹愮䍤湥整䍲慬獳⌠摡损湯慴湩牥笠 搠獩汰祡戺潬正℠浩潰瑲湡㭴 映潬瑡氺晥㭴 眠摩桴㜺㠲硰਻੽浀摥慩⠠業⵮楷瑤㩨㜠㠶硰 ੻†ℼⴭ䘠牯㌠〰硰漠⁲敬獳愠獤传䱎⁙ⴭਾ†戣摯⁹愮䍤湥整䍲慬獳⌠摡损湯慴湩牥笠 †眠摩桴›慣捬ㄨ〰‥‭㜳瀲⥸਻†੽੽浀摥慩⠠業⵮楷瑤㩨ㄠㄱ瀰⥸笠 㰠ⴡ‭潆⁲㈷瀸⁸牯氠獥⁳摡⁳ⴭਾ†戣摯⁹愮䍤湥整䍲慬獳⌠摡损湯慴湩牥笠 †眠摩桴›慣捬ㄨ〰‥‭㜳瀲⥸਻†੽੽㰊猯祴敬ਾ㰊楤⁶瑳汹㵥戢捡杫潲湵㩤愣敢昶㬶戠牯敤⵲潢瑴浯ㄺ硰猠汯摩⌠〵愷㜸※潰楳楴湯爺汥瑡癩㭥稠椭摮硥㤺㤹㤹㤹㸢ਊ††搼癩挠慬獳∽摡敃瑮牥汃獡≳ਾ††††愼栠敲㵦栢瑴獰⼺眯睷愮杮汥楦敲氮捹獯挮浯∯琠瑩敬∽湁敧晬物⹥潣㩭戠極摬礠畯⁲牦敥眠扥楳整琠摯祡∡猠祴敬∽楤灳慬㩹汢捯㭫映潬瑡氺晥㭴眠摩桴ㄺ㘸硰※潢摲牥〺㸢 ††††㰠浩⁧牳㵣⼢摡⽭摡愯杮汥楦敲昭敲䅥⹤灪≧愠瑬∽楓整栠獯整⁤祢䄠杮汥楦敲挮浯›畂汩⁤潹牵映敲⁥敷獢瑩⁥潴慤ⅹ•瑳汹㵥搢獩汰祡戺潬正※潢摲牥〺•㸯 †††㰠愯ਾ††††搼癩椠㵤愢彤潣瑮楡敮≲ਾ††††††猼牣灩⁴祴数∽整瑸樯癡獡牣灩≴搾捯浵湥⹴牷瑩⡥祬潣彳摡❛敬摡牥潢牡❤⥝㰻猯牣灩㹴 †††㰠搯癩ਾ††⼼楤㹶㰊搯癩ਾ㰊ⴡ‭⼯⼯⼯⼯⼯⼯⼯⼯⼯⼯⼯⼯⼯⼯⼯⼯⼯⼯ ⴭਾ猼牣灩⁴祴数∽整瑸樯癡獡牣灩≴搾捯浵湥⹴牷瑩⡥祬潣彳摡❛汳摩牥崧㬩⼼捳楲瑰ਾਊ搼癩椠㵤氢捹獯潆瑯牥摁•瑳汹㵥戢捡杫潲湵㩤愣敢昶㬶戠牯敤⵲潴㩰瀱⁸潳楬⁤㔣㜰㡡㬷挠敬牡戺瑯㭨搠獩汰祡渺湯㭥瀠獯瑩潩㩮敲慬楴敶※⵺湩敤㩸㤹㤹㤹∹ਾ搼癩挠慬獳∽摡敃瑮牥汃獡≳猠祴敬∽楤灳慬㩹汢捯Ⅻ浩潰瑲湡㭴漠敶晲潬㩷楨摤湥※楷瑤㩨㌹瀶㭸㸢ऊ搼癩椠㵤愢汦湩獫潨摬牥•瑳汹㵥昢潬瑡氺晥㭴眠摩桴ㄺ㘸硰∻ਾ††††愼栠敲㵦栢瑴獰⼺眯睷愮杮汥楦敲氮捹獯挮浯∯琠瑩敬∽湁敧晬物⹥潣㩭戠極摬礠畯⁲牦敥眠扥楳整琠摯祡∡猠祴敬∽楤灳慬㩹汢捯㭫戠牯敤㩲∰ਾ††††††椼杭猠捲∽愯浤愯⽤湡敧晬物ⵥ牦敥摁⸲灪≧愠瑬∽楓整栠獯整⁤祢䄠杮汥楦敲挮浯›畂汩⁤潹牵映敲⁥敷獢瑩⁥潴慤ⅹ•瑳汹㵥搢獩汰祡戺潬正※潢摲牥〺•㸯 †††㰠愯ਾ††⼼楤㹶 †㰠晩慲敭椠㵤氢捹獯潆瑯牥摁䙩慲敭•瑳汹㵥戢牯敤㩲㬰搠獩汰祡戺潬正※汦慯㩴敬瑦※敨杩瑨㤺瀶㭸漠敶晲潬㩷楨摤湥※慰摤湩㩧㬰眠摩桴㜺〵硰㸢⼼晩慲敭ਾ⼼楤㹶㰊搯癩ਾਊℼⴭ‭乕䕄䑒䝏䕍䥄⁁䑅䕇江捹獯挮浯䨠癡卡牣灩⁴䑁佃䕄匠䅔呒ⴭ㸭㰊捳楲瑰搠瑡ⵡ晣獡湹㵣昢污敳•慬杮慵敧∽慪慶捳楲瑰•獡湹⁣牳㵣⼢甯浤敳癲⹥敮⽴摵⽭浩⹧敦捴㽨楳㵤㜱㔷㬴楴㵤㬱瑤㘽∻㰾猯牣灩㹴㰊ⴡⴭ唠䑎剅佄䵇䑅䅉䔠䝄彅祬潣⹳潣⁭慊慶捓楲瑰䄠䍄䑏⁅久ⵄⴭਾ�