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遵循着共同的规律的多变元n+1≥2曲函数 万金华 (wjh68389653hjw@sina.com) 上传2007.06
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“低维与高维统一、非轮回与轮回统一、
低值与高值统一、数矩阵与指数矩阵统一、
(+1)开n次方与n×n阶正斜轮回单位
矩阵开n次方的统一”、
引起“低曲函数与多曲函数统一、
实数与超实数统一、数与矩阵统一”、
用正斜轮回矩阵把单变元“双曲函数”推广
为单变元和多变元“n+1≥3”曲函数,
使得各曲函数均遵循着共同的规律:
多变元n+1≥2曲函数:
令Bn(T)=exp( Jnrtr)
=〖Sn,0(T)n,Sn,n-1(T)…,Sn,1(T)〗
= JnkSn,k((T)
T=(t1,t2,…,tn-1)
则
Sn,k(T)=Sn,k(t1,t2,…,tn-1)=
= ∑( ( tjpj)/ (pj!))
↑
Pr=q,Pr≥0(r=1,2,…,n-1), rpr≡k(mod n)
这“多变元n+1≥2曲函数”同样满足“双曲函数”
和“单变量n+1≥2曲函数”的所有规律:
1、万氏欧拉公式:
exp( Jnrtr)= JnkSn,k((T)
2、万氏棣美弗公式:
( JnkSn,k((T))α= JnkSn,k((αT)
3、万氏和角公式:
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(Sn,0(α+β),Sn,1(α+β),…,Sn,n-1(α+β))-1
=Bn(α)(Sn,0(β),Sn,1(β),…,Sn,n-1(β))-1
=Bn(β)(Sn,0(α),Sn,1(α),…,Sn,n-1(α))-1
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(Sn,0(α+β),Sn,1(α+β),…,Sn,n-1(α+β))
=(Sn,0(α),Sn,1(α),…,Sn,n-1(α))Bn(β)
=(Sn,0(β),Sn,1(β),…,Sn,n-1(β))Bn(α)
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4、万氏倍元公式:
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(Sn,0(αT),Sn,1(αT),…,S,n-1(αT))-1
=Bnα-1(T)(Sn,0(T),Sn,1(T),…,Sn,n-1(T))-1
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(Sn,0(αT),Sn,1(αT),…,Sn,n-1(αT))
=(Sn,0(T),Sn,1(T),…,Sn,n-1(T))Bnα-1(T)
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5、万氏双曲型行列式为1公式:
|Bn(T)|
=|exp( Jnrtr)|
=|〖Sn,0(T)n,S,n-1(T)…,Sn,1(T)〗|
=1,
n×n阶行列式值为1
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当n=2时即此行列式展开即为双曲函数的公式:Ch2t-Sh2t=1
6、万氏循环导数公式:
Sn,k(T)/ tj=sn,k-j(t),当k-j≥0时;
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Sn,k(t)/ tj=sn,n+k-j(t),当k-j<0时
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7、万氏有限欧拉公式:
虚数型公式:
Sn,k(T)=Sn,k,1(T)+iSn,k,2(t)=Sn,k,1(T)=
=n-1(-1)(n+1)k exp( (-1)(n+1)rtrexp(2βriπ/n)-2βkiπ/n)
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实数型(正好是上式的实部)公式:
Sn,k(T)=Sn,k,1(T)=
=n-1(-1)(n+1)k exp( (-1)(n+1)rtrCOS(2βrπ/n))COS(Fβ)
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故有恒等式:
Sn,k,2(T)= exp( (-1)(n+1)rtrCOS(2βrπ/n))SIN(Fβ)=0
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其中
Fβ= (-1)(n+1)rtrSIN(2βrπ/n)-2βkπ/n
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Sn,k(T)=exp( tr),
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8、万氏有限和公式:
 Sn,k(T)=exp( tr),
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(-1)(n+1)kSn,k(T)=exp( (-1)(n+1)rtr )
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9、特殊例子:
①、n=2对为“一元双曲函数”即普通“双曲函数”:
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S2,0(t1)=(et1+e-t1)/2=Cht1
S2,1(t1)=(et1-e-t1)/2=Cht1
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②、n=3对为“二元叁曲函数”:
S3,0(t1,t2)
=(exp(t1+t2)
+2exp((-t1-t2)/2)COS( (t1-t2)/2))/3
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S3,1(t1,t2)
=-(exp(t1+t2)
+2exp((-t1-t2)/2)COS( (t1-t2)/2+2π/3))/3
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R3,2(t1,t2)
=(exp(t1+t2)
+2exp((-t1-t2)/2)COS( (t1-t2)/2-2π/3))/3
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③、n=4为“三元肆曲函数”:
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S4,0(t1,t2,t3)
=(exp(-t1+t2-t3)+exp(t2)COS(-t1+t3)+exp(t1+t2+t3)
+exp(-t2)COS(t1-t3))/4
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S4,1(t1,t2,t3)
=(-exp(-t1+t2-t3)-exp(t2)SIN(-t1+t3)+exp(t1+t2+t3)
+exp(-t2)COS(t1-t3))/4
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S4,2(t1,t2,t3)
=(exp(-t1+t2-t3)-exp(t2)COS(-t1+t3)+exp(t1+t2+t3)
-exp(-t2)COS(t1-t3))/4
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S4,3(t1,t2,t3)
=(-exp(-t1+t2-t3)+exp(t2)SIN(-t1+t3)+exp(t1+t2+t3)
-exp(-t2)COS(t1-t3))/4
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④、n=5时为“四元五曲函数”:
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S5,0(t1,t2,t3,t4)
=[exp(t1+t2+t3+t4)+2exp(T1)COS(T2)
+2exp(T3)COS(T4)]/5
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S5,1(t1,t2,t3,t4)
=[exp(t1+t2+t3+t4)+2exp(T1)COS(T2-2π/5)
+2exp(T3)COS(T4-4π/5)]/5
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S5,2(t1,t2,t3,t4)
=[exp(t1+t2+t3+t4)+2exp(T1)COS(T2-4π/5)
+2exp(T3)COS(T4+2π/5)]/5
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S5,3(t1,t2,t3,t4)
=[exp(t1+t2+t3+t4)+2exp(T1)COS(T2+4π/5)
+2exp(T3)COS(T4-2π/5)]/5
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S5,4(t1,t2,t3,t4)
=[exp(t1+t2+t3+t4)+2exp(T1)COS(T2+2π/5)
+2exp(T3)COS(T4+4π/5)]/5
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⑤n=5时为“五元陆曲函数”:
S6,0(t1,t2,t3,t4,t5)
=[eT1+eT2+2eT3COS(T4)+2eT5COS(T6)]/6
=[exp(-t1+t2-t3+t4-t5)+exp(t1+t2+t3+t4+t5)
+2exp((t1-t2-2t3-t4+t5)/2)COS( (t1+t2-t4-t5)/2)
+2exp((-t1-t2-2t3-t4-t5)/2)COS( (t1-t2+t4-t5)/2)]/6
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S6,1(t1,t2,t3,t4,t5)
=[eT1-eT2+2eT3COS(T4+2π/3)+2eT5COS(T6)π/3]/6
=[exp(-t1+t2-t3+t4-t5)-exp(t1+t2+t3+t4+t5)
+2exp((t1-t2-2t3-t4+t5)/2)COS( (t1+t2-t4-t5)/2
+2π/3)+2exp((-t1-t2-2t3-t4-t5)/2)COS( (t1-t2+t4-t5)/2
+π/3)]/6
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S6,2(t1,t2,t3,t4,t5)
=[eT1+eT2+2eT3COS(T4-2π/3)+2eT5COS(T6+2π/3)]/6
=[exp(-t1+t2-t3+t4-t5)+exp(t1+t2+t3+t4+t5)
+2exp((t1-t2-2t3-t4+t5)/2)COS( (t1+t2-t4-t5)/2-2π/3)
+2exp((-t1-t2-2t3-t4-t5)/2)COS( (t1-t2+t4-t5)z+2π/3)]/6
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S6,3(t1,t2,t3,t4,t5)
=[eT1-eT2+2eT3COS(T4)-2eT5COS(T6)]/6
=[exp(-t1+t2-t3+t4-t5)-exp(t1+t2+t3+t4+t5)
+2exp((t1-t2-2t3-t4+t5)/2)COS( (t1+t2-t4-t5)/2)
-2exp((-t1-t2-2t3-t4-t5)/2)COS( (t1-t2+t4-t5)/2)]/6
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S6,4(t1,t2,t3,t4,t5)
=[eT1+eT2+2eT3COS(T4+2π/3)+2eT5COS(T6-2π/3))]/6
=[exp(-t1+t2-t3+t4-t5)+exp(t1+t2+t3+t4+t5)
+2exp((t1-t2-2t3-t4+t5)/2)COS( (t1+t2-t4-t5)/2+2π/3)
+2exp((-t1-t2-2t3-t4-t5)/2)COS( (t1-t2+t4-t5)/2-2π/3)]/6
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S6,5(t1,t2,t3,t4,t5)
=[eT1+eT2-2eT3COS(T4-2π/3)+2eT5COS(T6)-π/3]/6
=[exp(-t1+t2-t3+t4-t5)-exp(t1+t2+t3+t4+t5)
+2exp((t1-t2-2t3-t4+t5)/2)COS( (t1+t2-t4-t5)/2-2π/3)
+2exp((-t1-t2-2t3-t4-t5)/2)COS( (t1-t2+t4-t5)/2-π/3)]/6
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亦即为:
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S6,0(t1,t2,t3,t4,t5)
=[eT1+eT2+2eT3COS(T4)+2eT5COS(T6)]/6
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S6,1(t1,t2,t3,t4,t5)
=[eT1-eT2+2eT3COS(T4+2π/3)+2eT5COS(T6)π/3]/6
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S6,2(t1,t2,t3,t4,t5)
=[eT1+eT2+2eT3COS(T4-2π/3)+2eT5COS(T6+2π/3)]/6
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S6,3(t1,t2,t3,t4,t5)
=[eT1-eT2+2eT3COS(T4)-2eT5COS(T6)]/6
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S6,4(t1,t2,t3,t4,t5)
=[eT1+eT2+2eT3COS(T4+2π/3)+2eT5COS(T6-2π/3))]/6
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S6,5(t1,t2,t3,t4,t5)
=[eT1+eT2-2eT3COS(T4-2π/3)+2eT5COS(T6)-π/3]/6
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T1=-t1+t2-t3+t4-t5
T2=t1+t2+t3+t4+t5
T3=t1-t2-2t3-t4+t5)/2
T4= (t1+t2-t4-t5)/2
T5=(-t1-t2-2t3-t4-t5)/2
T6= (t1-t2+t4-t5)/2
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