Resonancias en cabales sanguíneos,
de Sal, Azúcar, Hierro y Iodo:
NaCl
A-O-A
A-Fe=Fe-A
A-IH=I=IH-A
Ley:
Vd_{t}[w]+(-K)·(ut)^{n}·w(t) = uxyz·(ut)^{n}·e^{( 1/(n+1) )·(ut)^{n+1}}
w(t) = ( 1/(Vu+(-K)) )·uxyz·e^{( 1/(n+1) )·(ut)^{n+1}}
Ley:
Vd_{t}[w]+K·(ut)^{n}·w(t) = uxyz·(ut)^{n}·e^{(-1)·( 1/(n+1) )·(ut)^{n+1}}
w(t) = ( 1/((-1)·Vu+K) )·uxyz·e^{(-1)·( 1/(n+1) )·(ut)^{n+1}}
Anexo:
Muchas muertes son por resonancia de cabal sanguíneo,
provocando un paro cardíaco.
Resonancia de fiebre de expulsión del alma:
Ley:
Sea PV = kT ==>
d_{T}[P]+(-b)·P(T) = (k/V)·e^{aT}
P(T) = ( 1/(a+(-b)) )·(k/V)·e^{aT}
d_{T}[P]+b·P(T) = (k/V)·e^{(-1)·aT}
P(T) = ( 1/((-a)+b) )·(k/V)·e^{(-1)·aT}
Resonancia de fiebre de reducción del cuerpo:
Ley:
Sea PV = kT ==>
d_{T}[V]+(-b)·V(T) = (1/V)^{2}·( V(T) )^{2}·(k/P)·e^{aT}
V(T) = (a+(-b))·(P/k)·V^{2}·e^{aT}
d_{T}[V]+b·V(T) = (1/V)^{2}·( V(T) )^{2}·(k/P)·e^{(-1)·aT}
V(T) = ((-a)+b)·(P/k)·V^{2}·e^{(-1)·aT}
Ley:
Sea PV = kaT^{2} ==>
d_{T}[P]+(-b)·2aT·P(T) = (k/V)·2aTe^{(aT)^{2}}
P(T) = ( 1/(a+(-b)) )·(k/V)·e^{(aT)^{2}}
d_{T}[P]+b·2aT·P(T) = (k/V)·2aTe^{(-1)·(aT)^{2}}
P(T) = ( 1/((-a)+b) )·(k/V)·e^{(-1)·(aT)^{2}}
Ley:
Sea PV = kaT^{2} ==>
d_{T}[V]+(-b)·2aT·V(T) = (1/V)^{2}·( V(T) )^{2}·(k/P)·2aTe^{(aT)^{2}}
V(T) = (a+(-b))·(P/k)·V^{2}·e^{(aT)^{2}}
d_{T}[V]+b·2aT·V(T) = (1/V)^{2}·( V(T) )^{2}·(k/P)·2aTe^{(-1)·(aT)^{2}}
V(T) = ((-a)+b)·(P/k)·V^{2}·e^{(-1)·(aT)^{2}}
Principio:
d[ d[T(t)] ] = ( d[p]+d[q] )·d[R]
Ley:
T(t) = (p+q)·R
Ley:
Si p = q ==> T(t) = 2qR
Deducción:
d[ d[T(t)] ] = ( d[q]+d[q] )·d[R] = 2·d[q]d[R]
T(t) = int-int[ d[ d[T(t)] ] ] = int-int[ 2·d[q]d[R] ] = 2qR
Principio:
T(t) tiende a ser estática <==> [Ek][ sum[n = 1]-[oo][ T(t_{n}) ] = k ]
Ley:
Si d[ d[T(t)] ] = ( d[q]+(-1)·d[q]·(ut) )·d[R] ==> [At][ t >] (1/u) ==> T(t) tiende a ser estática ]
Deducción:
Sea t = (1/u) ==>
d[ d[T(t)] ] = ( d[q]+(-1)·d[q] )·d[R]
T(t) = d[q]·R
sum[n = 1]-[oo][ T(t_{n}) ] = qR
No hay comentarios:
Publicar un comentario