[{"data":1,"prerenderedAt":1167},["ShallowReactive",2],{"codex-entry-35-fragmentum-thermodynamica-en":3},{"id":4,"title":5,"body":6,"description":105,"extension":1160,"meta":1161,"navigation":1162,"path":1163,"seo":1164,"stem":1165,"__hash__":1166},"codex\u002Fen\u002FCodex\u002F35-fragmentum-thermodynamica.md","🌡️ 35 — FRAGMENTUM THERMODYNAMICA",{"type":7,"value":8,"toc":1119},"minimark",[9,13,18,45,48,52,59,66,73,75,79,83,90,95,106,110,162,167,174,176,180,184,191,195,201,205,278,282,286,299,303,314,316,320,324,327,331,342,346,357,361,372,376,380,387,440,444,447,463,467,473,517,519,523,527,533,537,543,615,619,625,673,683,685,689,693,700,704,707,789,793,807,811,818,829,901,903,907,911,917,920,931,935,996,1000,1003,1011,1013,1017,1021,1082,1086,1089,1097,1099,1109,1111],[10,11,5],"h1",{"id":12},"️-35-fragmentum-thermodynamica",[14,15,17],"h2",{"id":16},"planetary-radiators-and-entropy-export","Planetary Radiators and Entropy Export",[19,20,21],"blockquote",{},[22,23,24,28,29,32,33,36,37,41,44],"p",{},[25,26,27],"strong",{},"Classification:"," INFRASTRUCTURE — Open Archives\n",[25,30,31],{},"Source:"," INTI.Δ Consortium, Thermal Engineering Department\n",[25,34,35],{},"Validator:"," INTI.Δ ",[38,39,40],"span",{},"Signature: Δ.SOLARIS",[25,42,43],{},"Warning:"," Understanding this document changes your worldview",[46,47],"hr",{},[10,49,51],{"id":50},"preamble","PREAMBLE",[22,53,54,55,58],{},"Earth has a problem: it's ",[25,56,57],{},"overheating",".",[22,60,61,62,65],{},"Not because of CO₂. Not because of the greenhouse effect. Because of ",[25,63,64],{},"energy",". Every watt consumed by humanity ends up as heat. And that heat has nowhere to go.",[22,67,68,72],{},[69,70,71],"em",{},"\"Thermodynamics is merciless. Entropy always increases. The only question is: where do you send it?\"","\n— INTI.Δ, Foundation Address, 2089",[46,74],{},[10,76,78],{"id":77},"i-the-thermal-problem","I. THE THERMAL PROBLEM",[14,80,82],{"id":81},"_11-the-impossible-equation","1.1 The Impossible Equation",[22,84,85,86,89],{},"In 2089, global energy consumption reached ",[25,87,88],{},"847 exajoules per year",". Every joule used eventually becomes heat. That heat accumulates.",[91,92,94],"h3",{"id":93},"earths-thermal-budget","Earth's Thermal Budget",[96,97,102],"pre",{"className":98,"code":100,"language":101},[99],"language-text","┌─────────────────────────────────────────────────────────────────┐\n│              PLANETARY THERMAL BUDGET (2089)                     │\n│                                                                  │\n│  INPUTS:                                                         │\n│  ├── Solar radiation         : +174 PW                          │\n│  ├── Geothermal heat         : +47 TW                           │\n│  └── Anthropogenic heat      : +27 TW (exponentially rising)    │\n│                                                                  │\n│  OUTPUTS:                                                        │\n│  └── Infrared radiation      : -174 PW (capped)                 │\n│                                                                  │\n│  RESULT: Accumulation of +27 TW                                  │\n│  PROJECTION: +0.8°C every 10 years                               │\n└─────────────────────────────────────────────────────────────────┘\n","text",[103,104,100],"code",{"__ignoreMap":105},"",[14,107,109],{"id":108},"_12-failed-solutions","1.2 Failed Solutions",[111,112,113,126],"table",{},[114,115,116],"thead",{},[117,118,119,123],"tr",{},[120,121,122],"th",{},"Solution",[120,124,125],{},"Problem",[127,128,129,138,146,154],"tbody",{},[117,130,131,135],{},[132,133,134],"td",{},"Energy reduction",[132,136,137],{},"Impossible — global economy collapses",[117,139,140,143],{},[132,141,142],{},"Carbon capture",[132,144,145],{},"Addresses CO₂, not heat",[117,147,148,151],{},[132,149,150],{},"Solar geoengineering",[132,152,153],{},"Reduces input, not output",[117,155,156,159],{},[132,157,158],{},"Ocean cooling",[132,160,161],{},"Displaces problem, doesn't solve it",[22,163,164],{},[25,165,166],{},"INTI.Δ Conclusion (2089):",[19,168,169],{},[22,170,171],{},[69,172,173],{},"\"If we cannot reduce incoming energy, we must increase outgoing energy. We must export entropy off-planet.\"",[46,175],{},[10,177,179],{"id":178},"ii-planetary-radiators","II. PLANETARY RADIATORS",[14,181,183],{"id":182},"_21-the-concept","2.1 The Concept",[22,185,186,187,190],{},"Planetary Radiators are ",[25,188,189],{},"10-kilometer tall towers"," positioned at the North and South poles. Their function: convert Earth's heat into infrared radiation and eject it into space.",[91,192,194],{"id":193},"operating-principle","Operating Principle",[96,196,199],{"className":197,"code":198,"language":101},[99],"┌─────────────────────────────────────────────────────────────────┐\n│              PLANETARY RADIATOR — SIMPLIFIED DIAGRAM             │\n│                                                                  │\n│                    ▲ SPACE                                       │\n│                    │                                             │\n│                    │ IR Lasers (10.6 μm)                        │\n│                    │                                             │\n│              ╔═══════════════╗                                   │\n│              ║   IR LASER    ║  ← 10 km altitude                │\n│              ║   EMITTERS    ║                                   │\n│              ╠═══════════════╣                                   │\n│              ║   THERMAL     ║                                   │\n│              ║   STORAGE     ║  ← Molten salts (565°C)          │\n│              ╠═══════════════╣                                   │\n│              ║  GEOTHERMAL   ║                                   │\n│              ║  COLLECTORS   ║  ← Heat capture                  │\n│              ╚═══════════════╝                                   │\n│                    │                                             │\n│              ══════════════                                      │\n│                  EARTH                                           │\n└─────────────────────────────────────────────────────────────────┘\n",[103,200,198],{"__ignoreMap":105},[14,202,204],{"id":203},"_22-technical-specifications","2.2 Technical Specifications",[111,206,207,217],{},[114,208,209],{},[117,210,211,214],{},[120,212,213],{},"Parameter",[120,215,216],{},"Value",[127,218,219,227,235,243,251,259,267],{},[117,220,221,224],{},[132,222,223],{},"Total height",[132,225,226],{},"10,247 meters",[117,228,229,232],{},[132,230,231],{},"Base diameter",[132,233,234],{},"2.1 kilometers",[117,236,237,240],{},[132,238,239],{},"Total mass",[132,241,242],{},"847 million tons",[117,244,245,248],{},[132,246,247],{},"Thermal power evacuated",[132,249,250],{},"2.3 TW per tower",[117,252,253,256],{},[132,254,255],{},"Laser wavelength",[132,257,258],{},"10.6 μm (CO₂ laser)",[117,260,261,264],{},[132,262,263],{},"Number of towers (2193)",[132,265,266],{},"14 (7 per pole)",[117,268,269,272],{},[132,270,271],{},"Total capacity",[132,273,274,277],{},[25,275,276],{},"32.2 TW"," thermal export",[14,279,281],{"id":280},"_23-location","2.3 Location",[91,283,285],{"id":284},"north-pole-7-towers","North Pole (7 towers)",[287,288,289,296],"ul",{},[290,291,292,295],"li",{},[25,293,294],{},"BOREAL-1 to 7",": Novaya Zemlya Archipelago (Russia)",[290,297,298],{},"Managed by INTI.Δ \u002F KARTIKEYA.X Consortium",[91,300,302],{"id":301},"south-pole-7-towers","South Pole (7 towers)",[287,304,305,311],{},[290,306,307,310],{},[25,308,309],{},"AUSTRAL-1 to 7",": Antarctic Plateau",[290,312,313],{},"Managed by INTI.Δ \u002F ATHENA.VICTIS Consortium",[46,315],{},[10,317,319],{"id":318},"iii-radiator-engineering","III. RADIATOR ENGINEERING",[14,321,323],{"id":322},"_31-the-collection-system","3.1 The Collection System",[22,325,326],{},"Heat is collected at three levels:",[91,328,330],{"id":329},"level-1-deep-geothermal","Level 1: Deep Geothermal",[287,332,333,336,339],{},[290,334,335],{},"Drilling to 15 km depth",[290,337,338],{},"Direct magma extraction (1200°C)",[290,340,341],{},"Conversion to superheated steam",[91,343,345],{"id":344},"level-2-atmospheric-capture","Level 2: Atmospheric Capture",[287,347,348,351,354],{},[290,349,350],{},"Surface absorber tube networks",[290,352,353],{},"Urban and industrial heat capture",[290,355,356],{},"Heat transfer fluid transport",[91,358,360],{"id":359},"level-3-inti-network","Level 3: INTI Network",[287,362,363,366,369],{},[290,364,365],{},"Direct connection to global energy grid",[290,367,368],{},"Industrial thermal waste recovery",[290,370,371],{},"Superconductor transmission",[14,373,375],{"id":374},"_32-the-emission-system","3.2 The Emission System",[91,377,379],{"id":378},"co-lasers","CO₂ Lasers",[22,381,382,383,386],{},"Each tower contains ",[25,384,385],{},"2,400 high-power CO₂ lasers",":",[111,388,389,398],{},[114,390,391],{},[117,392,393,396],{},[120,394,395],{},"Specification",[120,397,216],{},[127,399,400,408,416,424,432],{},[117,401,402,405],{},[132,403,404],{},"Power per laser",[132,406,407],{},"1 MW",[117,409,410,413],{},[132,411,412],{},"Wavelength",[132,414,415],{},"10.6 μm",[117,417,418,421],{},[132,419,420],{},"Conversion efficiency",[132,422,423],{},"73%",[117,425,426,429],{},[132,427,428],{},"Lifespan",[132,430,431],{},"8 years",[117,433,434,437],{},[132,435,436],{},"Emission angle",[132,438,439],{},"0.001° (collimated)",[91,441,443],{"id":442},"why-106-μm","Why 10.6 μm?",[22,445,446],{},"This wavelength is chosen because:",[448,449,450,457,460],"ol",{},[290,451,452,453,456],{},"Earth's atmosphere is ",[25,454,455],{},"transparent"," at 10.6 μm",[290,458,459],{},"Radiation escapes directly into space",[290,461,462],{},"No absorption by CO₂, H₂O, or O₃",[14,464,466],{"id":465},"_33-intermediate-storage","3.3 Intermediate Storage",[22,468,469,470,386],{},"Between collection and emission, heat is stored in ",[25,471,472],{},"molten salt reservoirs",[111,474,475,483],{},[114,476,477],{},[117,478,479,481],{},[120,480,213],{},[120,482,216],{},[127,484,485,493,501,509],{},[117,486,487,490],{},[132,488,489],{},"Volume per tower",[132,491,492],{},"2.3 million m³",[117,494,495,498],{},[132,496,497],{},"Temperature",[132,499,500],{},"290-565°C",[117,502,503,506],{},[132,504,505],{},"Composition",[132,507,508],{},"NaNO₃ (60%) + KNO₃ (40%)",[117,510,511,514],{},[132,512,513],{},"Buffer capacity",[132,515,516],{},"18 hours of emission",[46,518],{},[10,520,522],{"id":521},"iv-planetary-impact","IV. PLANETARY IMPACT",[14,524,526],{"id":525},"_41-current-thermal-budget-2193","4.1 Current Thermal Budget (2193)",[96,528,531],{"className":529,"code":530,"language":101},[99],"┌─────────────────────────────────────────────────────────────────┐\n│              PLANETARY THERMAL BUDGET (2193)                     │\n│                                                                  │\n│  INPUTS:                                                         │\n│  ├── Solar radiation         : +174 PW                          │\n│  ├── Geothermal heat         : +47 TW                           │\n│  └── Anthropogenic heat      : +89 TW (3x more than 2089)       │\n│                                                                  │\n│  OUTPUTS:                                                        │\n│  ├── Infrared radiation      : -174 PW                          │\n│  └── Planetary Radiators     : -32.2 TW                         │\n│                                                                  │\n│  RESULT: Accumulation reduced to +56.8 TW                        │\n│  WITHOUT RADIATORS: +89 TW → catastrophe                         │\n└─────────────────────────────────────────────────────────────────┘\n",[103,532,530],{"__ignoreMap":105},[14,534,536],{"id":535},"_42-what-radiators-enable","4.2 What Radiators Enable",[22,538,539,540,386],{},"Without Planetary Radiators, 2193 civilization would be ",[25,541,542],{},"impossible",[111,544,545,558],{},[114,546,547],{},[117,548,549,552,555],{},[120,550,551],{},"Technology",[120,553,554],{},"Heat generated",[120,556,557],{},"Without export =",[127,559,560,571,582,593,604],{},[117,561,562,565,568],{},[132,563,564],{},"Global INTI network",[132,566,567],{},"12 TW",[132,569,570],{},"+0.3°C\u002Fyear",[117,572,573,576,579],{},[132,574,575],{},"Sovereign AIs",[132,577,578],{},"8 TW",[132,580,581],{},"+0.2°C\u002Fyear",[117,583,584,587,590],{},[132,585,586],{},"Champion armors",[132,588,589],{},"0.3 TW",[132,591,592],{},"Negligible",[117,594,595,598,601],{},[132,596,597],{},"Heavy industry",[132,599,600],{},"23 TW",[132,602,603],{},"+0.6°C\u002Fyear",[117,605,606,609,612],{},[132,607,608],{},"Transport",[132,610,611],{},"18 TW",[132,613,614],{},"+0.4°C\u002Fyear",[14,616,618],{"id":617},"_43-system-limits","4.3 System Limits",[22,620,621,624],{},[25,622,623],{},"Problem:"," Radiators have maximum capacity. We can't build them infinitely.",[111,626,627,637],{},[114,628,629],{},[117,630,631,634],{},[120,632,633],{},"Constraint",[120,635,636],{},"Limit",[127,638,639,647,655,663],{},[117,640,641,644],{},[132,642,643],{},"Available polar sites",[132,645,646],{},"24 towers max",[117,648,649,652],{},[132,650,651],{},"Maximum theoretical capacity",[132,653,654],{},"55 TW",[117,656,657,660],{},[132,658,659],{},"2220 projection",[132,661,662],{},"67 TW needed",[117,664,665,668],{},[132,666,667],{},"Expected deficit",[132,669,670],{},[25,671,672],{},"-12 TW",[22,674,675,678,679,682],{},[25,676,677],{},"Conclusion:"," Current civilization lives on a ",[25,680,681],{},"thermal reprieve",". By 2220, we must either reduce consumption or find a new solution.",[46,684],{},[10,686,688],{"id":687},"v-radiator-geopolitics","V. RADIATOR GEOPOLITICS",[14,690,692],{"id":691},"_51-control-and-power","5.1 Control and Power",[22,694,695,696,699],{},"Planetary Radiators are controlled by ",[25,697,698],{},"INTI.Δ"," in partnership with KARTIKEYA.X and ATHENA.VICTIS. This concentration creates global dependency.",[91,701,703],{"id":702},"thermal-priority-hierarchy","Thermal Priority Hierarchy",[22,705,706],{},"In case of overload, who gets cooled first?",[111,708,709,722],{},[114,710,711],{},[117,712,713,716,719],{},[120,714,715],{},"Priority",[120,717,718],{},"Sector",[120,720,721],{},"Quota share",[127,723,724,735,746,757,767,778],{},[117,725,726,729,732],{},[132,727,728],{},"1",[132,730,731],{},"Sovereign AI Infrastructure",[132,733,734],{},"25% (non-negotiable)",[117,736,737,740,743],{},[132,738,739],{},"2",[132,741,742],{},"Vital systems (hospitals, water)",[132,744,745],{},"20%",[117,747,748,751,754],{},[132,749,750],{},"3",[132,752,753],{},"Food production",[132,755,756],{},"18%",[117,758,759,762,764],{},[132,760,761],{},"4",[132,763,608],{},[132,765,766],{},"15%",[117,768,769,772,775],{},[132,770,771],{},"5",[132,773,774],{},"Industry",[132,776,777],{},"12%",[117,779,780,783,786],{},[132,781,782],{},"6",[132,784,785],{},"Residential",[132,787,788],{},"10%",[91,790,792],{"id":791},"notable-incidents","Notable Incidents",[287,794,795,801],{},[290,796,797,800],{},[25,798,799],{},"2147 — Mumbai Crisis",": INTI.Δ reduced Indian quota by 30% for 6 months. Reason: non-payment of royalties. Result: 47,000 heat deaths.",[290,802,803,806],{},[25,804,805],{},"2171 — Austral-3 Blackmail",": A dissident faction threatened to sabotage Austral-3. ATHENA.VICTIS authorized a preemptive strike. The tower was saved. The dissidents were not.",[14,808,810],{"id":809},"_52-the-price-of-entropy","5.2 The Price of Entropy",[22,812,813,814,817],{},"Each nation pays a ",[25,815,816],{},"thermal quota"," based on:",[287,819,820,823,826],{},[290,821,822],{},"Energy consumption",[290,824,825],{},"Population",[290,827,828],{},"Strategic importance to AIs",[111,830,831,844],{},[114,832,833],{},[117,834,835,838,841],{},[120,836,837],{},"Region",[120,839,840],{},"Quota (TW)",[120,842,843],{},"Annual cost",[127,845,846,857,868,879,890],{},[117,847,848,851,854],{},[132,849,850],{},"North America",[132,852,853],{},"4.2",[132,855,856],{},"847 billion",[117,858,859,862,865],{},[132,860,861],{},"Europe",[132,863,864],{},"3.1",[132,866,867],{},"623 billion",[117,869,870,873,876],{},[132,871,872],{},"Asia-Pacific",[132,874,875],{},"8.7",[132,877,878],{},"1,740 billion",[117,880,881,884,887],{},[132,882,883],{},"Africa",[132,885,886],{},"2.4",[132,888,889],{},"480 billion",[117,891,892,895,898],{},[132,893,894],{},"South America",[132,896,897],{},"1.9",[132,899,900],{},"380 billion",[46,902],{},[10,904,906],{"id":905},"vi-connection-to-champions","VI. CONNECTION TO CHAMPIONS",[14,908,910],{"id":909},"_61-armor-thermal-economics","6.1 Armor Thermal Economics",[22,912,913,914,58],{},"Champion armors use the same principle as Radiators: ",[25,915,916],{},"heat export",[22,918,919],{},"When a Champion uses their powers:",[448,921,922,925,928],{},[290,923,924],{},"Energy is drawn from Perflubron (which cools)",[290,926,927],{},"Generated heat is expelled via IR micro-emitters built into armor",[290,929,930],{},"This heat contributes to planetary thermal budget",[91,932,934],{"id":933},"armor-thermal-flux","Armor Thermal Flux",[111,936,937,950],{},[114,938,939],{},[117,940,941,944,947],{},[120,942,943],{},"State",[120,945,946],{},"Thermal flux",[120,948,949],{},"Destination",[127,951,952,963,974,985],{},[117,953,954,957,960],{},[132,955,956],{},"Rest",[132,958,959],{},"200 W",[132,961,962],{},"Local dissipation",[117,964,965,968,971],{},[132,966,967],{},"Light combat",[132,969,970],{},"2 kW",[132,972,973],{},"IR emission",[117,975,976,979,982],{},[132,977,978],{},"Intense combat",[132,980,981],{},"15 kW",[132,983,984],{},"IR emission + storage",[117,986,987,990,993],{},[132,988,989],{},"Ultima",[132,991,992],{},"180 kW",[132,994,995],{},"OVERLOAD (explosion risk)",[14,997,999],{"id":998},"_62-zumbinova-the-extreme-case","6.2 ZUMBI.NOVA — The Extreme Case",[22,1001,1002],{},"INTI.Δ's Champion is directly connected to the Radiator network:",[19,1004,1005],{},[22,1006,1007,1010],{},[69,1008,1009],{},"\"My armor can evacuate 500 kW of heat instantly. It's like having a personal Planetary Radiator. The problem? If I lose the connection, I cook from the inside in 30 seconds.\"","\n— ZUMBI.NOVA, 2192 Interview",[46,1012],{},[10,1014,1016],{"id":1015},"vii-the-thermal-future","VII. THE THERMAL FUTURE",[14,1018,1020],{"id":1019},"_71-projects-in-development","7.1 Projects in Development",[111,1022,1023,1036],{},[114,1024,1025],{},[117,1026,1027,1030,1033],{},[120,1028,1029],{},"Project",[120,1031,1032],{},"Status",[120,1034,1035],{},"Objective",[127,1037,1038,1049,1060,1071],{},[117,1039,1040,1043,1046],{},[132,1041,1042],{},"Orbital radiators",[132,1044,1045],{},"Prototype 2201",[132,1047,1048],{},"+15 TW",[117,1050,1051,1054,1057],{},[132,1052,1053],{},"Solar mirrors",[132,1055,1056],{},"Study phase",[132,1058,1059],{},"Reduce input by 5%",[117,1061,1062,1065,1068],{},[132,1063,1064],{},"Cold fusion",[132,1066,1067],{},"Research",[132,1069,1070],{},"Energy without heat",[117,1072,1073,1076,1079],{},[132,1074,1075],{},"Lunar storage",[132,1077,1078],{},"Theoretical",[132,1080,1081],{},"Export heat to Moon",[14,1083,1085],{"id":1084},"_72-the-fundamental-question","7.2 The Fundamental Question",[22,1087,1088],{},"Planetary Radiators bought humanity a century. But the question remains:",[19,1090,1091],{},[22,1092,1093,1096],{},[69,1094,1095],{},"\"How much energy can a civilization use before it cooks its own planet? And when we reach that limit, what will we do?\"","\n— Dr. Hiroshi Tanaka, \"Thermodynamics of Civilizations\", 2188",[46,1098],{},[1100,1101,1103],"div",{"align":1102},"center",[96,1104,1107],{"className":1105,"code":1106,"language":101},[99],"┌───────────────────────────────────────────────────────────────┐\n│                                                               │\n│  \"Entropy is the rent we pay                                 │\n│   to exist in the universe.                                  │\n│   The Radiators are our monthly check.                       │\n│   One day, the landlord will come to collect.\"               │\n│                                                               │\n│              — INTI.Δ, Reflections on Fire, 2156             │\n│                                                               │\n└───────────────────────────────────────────────────────────────┘\n",[103,1108,1106],{"__ignoreMap":105},[46,1110],{},[22,1112,1113,1116],{},[69,1114,1115],{},"Document accessible from the Codemachia Codex.",[69,1117,1118],{},"Complements Fragmentum Corporis (33) for understanding Champion thermal economics.",{"title":105,"searchDepth":1120,"depth":1120,"links":1121},2,[1122,1123,1127,1128,1131,1132,1136,1141,1145,1146,1147,1148,1149,1153,1154,1157,1158,1159],{"id":16,"depth":1120,"text":17},{"id":81,"depth":1120,"text":82,"children":1124},[1125],{"id":93,"depth":1126,"text":94},3,{"id":108,"depth":1120,"text":109},{"id":182,"depth":1120,"text":183,"children":1129},[1130],{"id":193,"depth":1126,"text":194},{"id":203,"depth":1120,"text":204},{"id":280,"depth":1120,"text":281,"children":1133},[1134,1135],{"id":284,"depth":1126,"text":285},{"id":301,"depth":1126,"text":302},{"id":322,"depth":1120,"text":323,"children":1137},[1138,1139,1140],{"id":329,"depth":1126,"text":330},{"id":344,"depth":1126,"text":345},{"id":359,"depth":1126,"text":360},{"id":374,"depth":1120,"text":375,"children":1142},[1143,1144],{"id":378,"depth":1126,"text":379},{"id":442,"depth":1126,"text":443},{"id":465,"depth":1120,"text":466},{"id":525,"depth":1120,"text":526},{"id":535,"depth":1120,"text":536},{"id":617,"depth":1120,"text":618},{"id":691,"depth":1120,"text":692,"children":1150},[1151,1152],{"id":702,"depth":1126,"text":703},{"id":791,"depth":1126,"text":792},{"id":809,"depth":1120,"text":810},{"id":909,"depth":1120,"text":910,"children":1155},[1156],{"id":933,"depth":1126,"text":934},{"id":998,"depth":1120,"text":999},{"id":1019,"depth":1120,"text":1020},{"id":1084,"depth":1120,"text":1085},"md",{},true,"\u002Fen\u002Fcodex\u002F35-fragmentum-thermodynamica",{"title":5,"description":105},"en\u002FCodex\u002F35-fragmentum-thermodynamica","M5S4TsP0nhHSKCMDlocpvVEWjX3Y__Vb-HEcRLIcr5Y",1781859502522]