Tokyo/Formulation/5.stochastic differential equation model with poisson random variables

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<br>[[Image:expression5-1.jpg|500px|left|thumb|Ex 5-1]][[Image:parameter4-1.jpg|150px|none|thumb|Table 5]]
<br>[[Image:expression5-1.jpg|500px|left|thumb|Ex 5-1]][[Image:parameter4-1.jpg|150px|none|thumb|Table 5]]
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<br>The values of parameters in the right table were used and the results of simulation were shown in Fig 5.1-3.where α2 = 1(μM) in Fig 5.1,α2 = 2.7(μM) in Fig 5.2,α2 = 4(μM) in Fig 5.3. and it has been estimated that 1(μM) = 1000 molecules (count).
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<br>The values of parameters in the right table were used and the results of simulation were shown in Fig 5.1-3.
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<br>where α2 = 1(μM) in Fig 5.1,α2 = 2.7(μM) in Fig 5.2,α2 = 4(μM) in Fig 5.3. and it has been estimated that 1(μM) = 1000 molecules (count).
[[Image:3d-1-0.2.JPG|270px|left|thumb|Figure 5.1.A   t=0.2(min)]]
[[Image:3d-1-0.2.JPG|270px|left|thumb|Figure 5.1.A   t=0.2(min)]]

Revision as of 09:11, 24 October 2007

we introduced the terms of Ex 4-1 into a stochastic process to simulate the sthochastic behavior.we used Poisson random variables as a sthochastic process. Threfore,a stochastic differential equations were given as


Ex 5-1
Table 5


The values of parameters in the right table were used and the results of simulation were shown in Fig 5.1-3.
where α2 = 1(μM) in Fig 5.1,α2 = 2.7(μM) in Fig 5.2,α2 = 4(μM) in Fig 5.3. and it has been estimated that 1(μM) = 1000 molecules (count).

Figure 5.1.A  t=0.2(min)
Figure 5.1.B  t=0.8(min)
Figure 5.1.C   t=30(min)   failure only A


Figure 5.2.A  t=0.2(min)
Figure 5.2.B   t=0.8(min)
Figure 5.2.C   t=30(min)  success!! coexistence


Figure 5.3.A   t=0.2(min)
Figure 5.3.B   t=0.8(min)
Figure 5.3.C   t=30(min)   failure only B



パラメータを3種類使ってシミュレーションした結果が以下である. これとstep4のdetermineの相平面とを比べるとこうですよ.