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Table 1 Summary of the model parameters used for numerical simulations of HIV-1 replication.

From: Mathematical model of the Tat-Rev regulation of HIV-1 replication in an activated cell predicts the existence of oscillatory dynamics in the synthesis of viral components

Subsystem

number

Parameter notation

Units

Reference value

Reference

1

k t r a n s c r , i n i

Transcription initiation/(min genome)

0.25 (for non-activated cell)

[64, 65]

   

25 (for activated cell)

 
 

LTR _ prom _ HIV1

elements/nucleus

1

assigned

2

k d e l a y

1/min

1

assigned

 

λ

 

0.99

estimated

3

k a s s , T a t _ T A R

elements/(nucleus min)

0.0017

[45]

 

k d i s , T A T _ T A R

1/min

1

 
 

k a n t i t e r m

1/min

60

assigned

4

k t r a n s c r , e l o n g , i , i = 1 , . . . , n D N A u n i t

1/min

5.33

derived

 

n D N A u n i t

dimensionless

20

assigned

5

k t r a n s c r , t e r m

1/min

60

assigned

6

k m o d i f

1/min

60

assigned

7

k s p l i c i n g , 94

1/min

0.0415

[38, 48, 49]

8

k s p l i c i n g , 42

1/min

0.0415

 
 

δ 4 , T a t

dimensionless

0.115

Estimated from [83]

 

δ 4 , R e v

dimensionless

0.115

 

9

k t r a n s p , 2 k b - m R N A _ X x x , X x x ∈ { T a t , R e v }

1/min

0.0767

[27]

10

k t r a n s l , i n i , X x x , X x x ∈ { T a t , R e v }

1/min

10

assigned

 

k t r a n s l , e l o n g , i , X x x ∈ { T a t , R e v }

1/min

18

derived

 

k t r a n s l , t e r m , n X x x + 1 , X x x ∈ { T a t , R e v }

1/min

60

assigned

 

n X x x , X x x ∈ { T a t , R e v }

dimensionless

20

assigned

11

k t r a n s p , p r o t _ X x x , X x x ∈ { T a t , R e v }

1/min

0.347

[54]

12

k a s s , R e v _ ( i ) _ X _ n u c , i = 1 , . . . , n R e v , X ∈ { 9 , 4 }

 
 

copy/(nucleus min)

0.59

 
 

k a s s , R e v _ ( i ) _ X _ c y t , i = 1 , . . . , n R e v , X ∈ { 9 , 4 }

   
 

[28]

   
 

k d i s , R e v _ ( i ) _ X _ n u c , i = 1 , . . . , n R e v , X ∈ { 9 , 4 }

1/min

8.4

 
 

k d i s , R e v _ ( i ) _ X _ c y t , i = 1 , . . . , n R e v , X ∈ { 9 , 4 }

   

13

k t r a n s p , X , 1 , X ∈ { 9 , 4 }

1/min

0

[82]

 

k t r a n s p , X , i , i = 2 , . . . , n R e v , X , X ∈ { 9 , 4 }

1/min

0.0767

[27]

 

γ i , i = 1 , . . . , n R e v , X

dimensionless

12

Quantified following the recycling in the nuclear pore hypothesis

12,13

n R e v , X , X ∈ { 9 , 4 }

dimensionless

12

[28, 52, 53]

14

k d e g r , X k b - m R N A _ y y y , X ∈ { 9 , 4 } ,

y y y ∈ { n u c , c y t }

   
 

k d e g r , 2 k b _ m R N A _ T a t _ y y y , y y y ∈ { n u c , c y t }

1/min

0.0029

[58]

 

k d e g r , 2 k b _ m R N A _ Re v _ y y y , y y y ∈ { n u c , c y t }

   
 

k d e g r , p r o t - X x x _ n u c , X x x ∈ { T a t , R e v }

1/min

0.000722

 
 

[60]

   
 

k d e g r , p r o t - X x x _ c y t , X x x ∈ { T a t , R e v }

1/min

0.00289

 

Auxiliary

parameters

r t r a n s c r , e l o n g

nts/min

2400

[38, 40]

 

r t r a n s c l , e l o n g

nts/min

1800

[55, 56]

 

Nucl_9 kb-RNA

nucl

9000

[25]

 

Nucl_2 kb-mRNA

nucl

2000