Create a new version of paste:

Initializing Conjecture A
Base: 58
Secret: 228
Signal: 229
Performed modPow Operation (58 ^ 229 % 257) = 215
Channel: 215
Performed modPow Operation (151 ^ 228 % 257) = 81
Challenge: 81
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Done!
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Initializing Conjecture B
Base: 154
Secret: 31
Signal: 246
Performed modPow Operation (154 ^ 246 % 257) = 139
Channel: 139
Performed modPow Operation (151 ^ 31 % 257) = 237
Challenge: 237
Conjecture.new(isListener => Bool::False, base => 58, secret => 228, signal => 229, channel => 215, pole => Int, identity => Int, foundation => Int, element => Int, dynamo => Int, manifold => Int, ring => Int, barn => Int, reactor => (my Int %))
Conjecture.new(isListener => Bool::False, base => 154, secret => 31, signal => 246, channel => 139, pole => Int, identity => Int, foundation => Int, element => Int, dynamo => Int, manifold => Int, ring => Int, barn => Int, reactor => (my Int %))

Establishing Dynamo
Performed modPow Operation (237 ^ 228 % 257) = 92
Performed modPow Operation (92 ^ 229 % 257) = 140
Channel: 140
Performed modPow Operation (81 ^ 31 % 257) = 92
Performed modPow Operation (92 ^ 246 % 257) = 223
Channel: 223
Dynamo Base: 92
Performed modPow Operation (92 ^ 228 % 257) = 225
Pole: 225
Performed modPow Operation (92 ^ 31 % 257) = 81
Pole: 81
Performed modPow Operation (81 ^ 228 % 257) = 8
Performed modPow Operation (225 ^ 31 % 257) = 8

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Peer A Summary:
Channel: 140 Signal: 229 Pole: 225 Carrier: 8
Peer B Summary:
Channel: 223 Signal: 246 Pole: 81 Carrier: 8
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Establishing Peer B As Listener And Publishing Pubkeys
Performed modPow Operation (92 ^ 15 % 257) = 246
Established Listener Ephemeral Keypair Identity/Foundation: 246/15
Conjecture.new(isListener => Bool::False, base => 92, secret => 228, signal => 229, channel => 140, pole => 225, identity => Int, foundation => Int, element => Int, dynamo => Int, manifold => Int, ring => Int, barn => Int, reactor => (my Int %))
Conjecture.new(isListener => Bool::True, base => 92, secret => 31, signal => 246, channel => 223, pole => 81, identity => 15, foundation => 246, element => Int, dynamo => Int, manifold => Int, ring => Int, barn => Int, reactor => (my Int %))
Establishing Peer A With Element B:
Performed modPow Operation (92 ^ 45 % 257) = 211
4 Challenges Herniate A Signal With 2 Convergent Spins But No Charge (Like A Neon)
Performed modPow Operation (246 ^ 45 % 257) = 22
Performed modPow Operation (223 ^ 45 % 257) = 136
Performed modPow Operation (246 ^ 229 % 257) = 169
Performed modPow Operation (223 ^ 229 % 257) = 120
Established Elemental Accord At: 327
Finalizing Elemental Accord From Peer A With Element B:
4 Challenges Herniate A Signal With 2 Convergent Spins But No Charge (Like A Neon)
Performed modPow Operation (211 ^ 15 % 257) = 22
Performed modPow Operation (140 ^ 15 % 257) = 169
Performed modPow Operation (211 ^ 246 % 257) = 136
Performed modPow Operation (140 ^ 246 % 257) = 120
Established Elemental Accord At: 327
Conjecture.new(isListener => Bool::False, base => 92, secret => 228, signal => 229, channel => 140, pole => 225, identity => 45, foundation => 211, element => 327, dynamo => Int, manifold => Int, ring => Int, barn => Int, reactor => (my Int %))
Conjecture.new(isListener => Bool::True, base => 92, secret => 31, signal => 246, channel => 223, pole => 81, identity => 15, foundation => 246, element => 327, dynamo => Int, manifold => Int, ring => Int, barn => Int, reactor => (my Int %))
Two Convergent Dynamos With Spin Establish A Non-Hamiltonian Triangulational Foundation (see Reimann). Let Us Derive A Manifold Base!
Establishing Dynamo From Base, Signal, Element
Performed modPow Operation (92 ^ 229 % 327) = 128
Establishing Dynamo From Base, Signal, Element
Performed modPow Operation (92 ^ 246 % 327) = 46
Syncing To Peer Element
Performed modPow Operation (46 ^ 229 % 327) = 46
Syncing To Peer Element
Performed modPow Operation (128 ^ 246 % 327) = 46
(The Calibi-Yau-Reimann Manifold As Defined Here Exceeeds All Published Science)
Conjecture.new(isListener => Bool::False, base => 92, secret => 228, signal => 229, channel => 140, pole => 225, identity => 45, foundation => 211, element => 327, dynamo => 128, manifold => 46, ring => Int, barn => Int, reactor => (my Int %))
Conjecture.new(isListener => Bool::True, base => 92, secret => 31, signal => 246, channel => 223, pole => 81, identity => 15, foundation => 246, element => 327, dynamo => 46, manifold => 46, ring => Int, barn => Int, reactor => (my Int %))
Here We Have Total Convergence With Double Ratchet/3-Diffie From Open Whisper Systems
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Now We Go Off The Deep End
Opening Manifold 46 With Carrier 8
Performed modPow Operation (8 ^ 46 % 327) = 46
Performed modPow Operation (46 ^ 46 % 327) = 172
Opening Manifold 46 With Carrier 8
Performed modPow Operation (8 ^ 46 % 327) = 46
Performed modPow Operation (46 ^ 46 % 327) = 172
Conjecture.new(isListener => Bool::False, base => 92, secret => 228, signal => 229, channel => 140, pole => 225, identity => 45, foundation => 211, element => 327, dynamo => 128, manifold => 46, ring => 46, barn => 172, reactor => (my Int %))
Conjecture.new(isListener => Bool::True, base => 92, secret => 31, signal => 246, channel => 223, pole => 81, identity => 15, foundation => 246, element => 327, dynamo => 46, manifold => 46, ring => 46, barn => 172, reactor => (my Int %))
Here We Have Symmetry But Not Biharmonic Symmetry (No Mass, No Reverb)
Hashing Volt Identity Function For String: Configuration
Performed modPow Operation (37 ^ 67 % 257) = 127
Performed modPow Operation (127 ^ 111 % 257) = 107
Performed modPow Operation (107 ^ 110 % 257) = 124
Performed modPow Operation (124 ^ 102 % 257) = 184
Performed modPow Operation (184 ^ 105 % 257) = 35
Performed modPow Operation (35 ^ 103 % 257) = 88
Performed modPow Operation (88 ^ 117 % 257) = 67
Performed modPow Operation (67 ^ 114 % 257) = 121
Performed modPow Operation (121 ^ 97 % 257) = 121
Performed modPow Operation (121 ^ 116 % 257) = 193
Performed modPow Operation (193 ^ 105 % 257) = 193
Performed modPow Operation (193 ^ 111 % 257) = 4
Performed modPow Operation (4 ^ 110 % 257) = 241
Hashing Volt Identity Function For String: Configuration
Performed modPow Operation (37 ^ 67 % 257) = 127
Performed modPow Operation (127 ^ 111 % 257) = 107
Performed modPow Operation (107 ^ 110 % 257) = 124
Performed modPow Operation (124 ^ 102 % 257) = 184
Performed modPow Operation (184 ^ 105 % 257) = 35
Performed modPow Operation (35 ^ 103 % 257) = 88
Performed modPow Operation (88 ^ 117 % 257) = 67
Performed modPow Operation (67 ^ 114 % 257) = 121
Performed modPow Operation (121 ^ 97 % 257) = 121
Performed modPow Operation (121 ^ 116 % 257) = 193
Performed modPow Operation (193 ^ 105 % 257) = 193
Performed modPow Operation (193 ^ 111 % 257) = 4
Performed modPow Operation (4 ^ 110 % 257) = 241
Inducing Barn 172 By Ring 46 To Capacitance With Volt Identity 241
Performed modPow Operation (172 ^ 241 % 46) = 44
Inducing Barn 172 By Ring 46 To Capacitance With Volt Identity 241
Performed modPow Operation (172 ^ 241 % 46) = 44
Inducing Ampere 44 To Manifold/Ring 46/46
Performed modPow Operation (44 ^ 46 % 46) = 4
Inducing Ampere 44 To Manifold/Ring 46/46
Performed modPow Operation (44 ^ 46 % 46) = 4
Conjecture.new(isListener => Bool::False, base => 92, secret => 228, signal => 229, channel => 140, pole => 225, identity => 45, foundation => 211, element => 327, dynamo => 128, manifold => 46, ring => 46, barn => 172, reactor => (my Int %))
Conjecture.new(isListener => Bool::True, base => 92, secret => 31, signal => 246, channel => 223, pole => 81, identity => 15, foundation => 246, element => 327, dynamo => 46, manifold => 46, ring => 46, barn => 172, reactor => (my Int %))
The Ampere Has A Resistance Signature But The Henry Absolutely Does Not! (See What Is Shape?)
Resisting Ampere 44 With Element/Channel 327/140
Performed modPow Operation (44 ^ 327 % 140) = 64
Resisting Ampere 44 With Element/Channel 327/140
Performed modPow Operation (44 ^ 327 % 140) = 64
To Exceed The Joule Is Proliferation. I Suggest You Do It Anyway (See Key/Signing/Salt)
Sustaining For Element A
Amplifying Ampere/Element/Channel: 64/327/140
Performed modPow Operation (64 ^ 327 % 140) = 64
Amplifying Ampere/Element/Channel: 64/327/140
Performed modPow Operation (64 ^ 327 % 140) = 64
Sustaining The Ohm
Performed modPow Operation (64 ^ 327 % 140) = 64
Sustaining The Ohm
Performed modPow Operation (64 ^ 327 % 140) = 64
Sustaining For Element B
Amplifying Ampere/Element/Channel: 64/327/223
Performed modPow Operation (64 ^ 327 % 223) = 2
Amplifying Ampere/Element/Channel: 64/327/223
Performed modPow Operation (64 ^ 327 % 223) = 2
Sustaining The Ohm
Performed modPow Operation (2 ^ 327 % 223) = 115
Sustaining The Ohm
Performed modPow Operation (2 ^ 327 % 223) = 115
Discarded Ohm A Because B Is Listener
Ohm A Might Be Useful For Spin? - Note Not A Real Nuclear Reactor, Play Around!
Sustaining Dynamic Reaction
Performed modPow Operation (115 ^ 140 % 223) = 41
Performed modPow Operation (115 ^ 223 % 140) = 115
Sustaining Dynamic Reaction
Performed modPow Operation (115 ^ 223 % 140) = 115
Performed modPow Operation (115 ^ 140 % 223) = 41
Conjecture.new(isListener => Bool::False, base => 92, secret => 228, signal => 229, channel => 140, pole => 225, identity => 45, foundation => 211, element => 327, dynamo => 128, manifold => 46, ring => 46, barn => 172, reactor => (my Int % = :daiichi(41), :ichidai(115)))
Conjecture.new(isListener => Bool::True, base => 92, secret => 31, signal => 246, channel => 223, pole => 81, identity => 15, foundation => 246, element => 327, dynamo => 46, manifold => 46, ring => 46, barn => 172, reactor => (my Int % = :daiichi(115), :ichidai(41)))