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"base:title": "0oo - Extraterrestrial Nanolaser Transceivers"
"og:title": "Extraterrestrial Nanolaser Transceivers"
"og:description": "Today, nanolasers are small, like 35nm each (see link). As a receiver, put a photo-sensor of the same size. Attach a battery and counterweight with a tiny computer to adjust directions. Envelope in omnidirectional photosensor matrix. Test. Mass produce. Create a linear magnetic accelerator in space. Release. Use as a communication channel for any miro-sized probe travelling in parallel. Enjoy hi-res pictures of planets nearby another star. **Related link**: [World’s Smallest Semiconductor Laser Created by University of Texas Scientists](http://www.utexas.edu/news/2012/07/26/smallest-semiconductor-laser-created-ut-scientists/) This idea should be under a goal of reaching other star systems, under space travel category."
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"item:parent:intents": [{"url": "/intent/715/", "title": "Achieving Interstellar Flight"}]
"item:title": ".:en:Extraterrestrial Nanolaser Transceivers.:cn:粒子望远镜"
"item:summary": ".:en:Fire self-aligning nano-lasers at near the speed of light to create a &#x27;fiber optic&#x27; channel reaching to nearby another star..:cn:"
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    .:en
    Today, nanolasers are small, like 35nm each (see link). As a receiver, put a photo-sensor of the same size. Attach a battery and counterweight with a tiny computer to adjust directions. Envelope in omnidirectional photosensor matrix. Test. Mass produce. Create a linear magnetic accelerator in space. Release. Use as a communication channel for any miro-sized probe travelling in parallel. Enjoy hi-res pictures of planets nearby another star.
    
    **Related link**: [World’s Smallest Semiconductor Laser Created by University of Texas Scientists](http://www.utexas.edu/news/2012/07/26/smallest-semiconductor-laser-created-ut-scientists/)
    
    This idea should be under a goal of reaching other star systems, under space travel category.
    
    .:cn
    虽然我们不能轻松地将探针发送到其他恒星系统，但我们可以通过构建类似于**空间中的光纤电缆**，从其附近的光子中提取信息。方法是用粒子加速器向空间中发射能够自动对准的纳米收发器链。
    
    纳米收发器可以具有特定的设计，以便它们拾取附近的光子，或与这些光子相互作用，强化纳米粒子链，并将它们向下游传送到地球（或观察点）。
    
    可以使用微电子技术大规模地构建该装置的原型，并使用现有的纳米激光器尝试缩小它。
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"item:owner": "Mindey"
"item:created": "2018-04-16T04:42:38.896000"
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- "id": "a-633"
  "mtrans": |

    Įdomus. Ar šie siųstuvai gali būti pritaikyti labai pigiems ryšiams žemėje? Maži lazeriai yra pigūs. {0.5}
    
    Manau, kad nano-siųstuvai-imtuvai taip pat gali turėti specifinį dizainą, kad informaciją būtų galima perduoti, pvz., Naudojant šviesos poliarizaciją, kad skaičiavimas galėtų būti atliekamas SENT viduje, tarsi jie būtų viena Turingo mašina.

  "text": |
    Interesting. Could these transceivers be also applied for very cheap communications on earth? Small lasers are cheap. {0.5}
    
    I think, the nano-transceivers could also have a specific design, so that the information could be transferred, e.g., via light polarization, so that the computing could be performed within SENTs as if they were a single Turing-machine.
  "owner": "Mindey"
  "ownerlink": "/user/147/Mindey"
  "permalink": "/method/685/?l=lt#a-633"
  "created": "2018-04-16T04:45:49.814000"
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