Skip to contents

LSS incidence risk models for 13 cancer sites.

Usage

LSS_incidence

Format

A list object of :

allsolid

a list object which contains risk model information (see Details)

leukaemia

a list object which contains risk model information (see Details)

esophagus

a list object which contains risk model information (see Details)

stomach

a list object which contains risk model information (see Details)

colon

a list object which contains risk model information (see Details)

liver

a list object which contains risk model information (see Details)

lung

a list object which contains risk model information (see Details)

prostate

a list object which contains risk model information (see Details)

pancreas

a list object which contains risk model information (see Details)

bladder

a list object which contains risk model information (see Details)

breast

a list object which contains risk model information (see Details)

thyroid

a list object which contains risk model information (see Details)

brainCNS

a list object which contains risk model information (see Details)

Details

The list object for each risk model contains the 13 site-specific cancer incidence risk models derived from Life Span Study (leukaemia, esophagus, stomach, colon, liver, lung, prostate, pancreas, bladder, breast, thyroid, brainCNS).

Each site-specific list object contains information for the risk model (a vector of parameter estimates para, a matrix of variance-covariance matrix of parameter estimates var and a function to calculate the risk f).

References

Grant, E.J., A. Brenner, H. Sugiyama et al. Solid Cancer Incidence among the Life Span Study of Atomic Bomb Survivors: 1958-2009. Radiat Res 187(5): 513-537 (2017).

Hsu, W.L., D.L. Preston, M. Soda et al. The incidence of leukemia, lymphoma and multiple myeloma among atomic bomb survivors: 1950-2001. Radiat Res 179(3): 361-382 (2013).

Sakata, R., D.L. Preston, A.V. Brenner et al. Radiation-Related risk of cancers of the upper digestive tract among Japanese atomic bomb survivors. Radiat Res 192(3): 331-344 (2019).

Sadakane, A., B. French, A.V. Brenner et al. Radiation and Risk of Liver, Biliary Tract, and Pancreatic Cancers among Atomic Bomb Survivors in Hiroshima and Nagasaki: 1958-2009. Radiat Res 192(3): 299-310 (2019).

Sugiyama, H., M. Misumi, A. Brenner et al. Radiation risk of incident colorectal cancer by anatomical site among atomic bomb survivors: 1958-2009. Int J Cancer 146(3): 635-645 (2020).

Sugiyama, H., M. Misumi, M. Kishikawa et al. Skin cancer incidence among atomic bomb survivors from 1958 to 1996. Radiat Res 181(5): 531-539 (2014).

Brenner, A.V., D.L. Preston, R. Sakata et al. Incidence of Breast Cancer in the Life Span Study of Atomic Bomb Survivors: 1958-2009. Radiat Res 190(4): 433-444 (2018).

Grant, E.J., M. Yamamura, A.V. Brenner et al. Radiation Risks for the Incidence of Kidney, Bladder and Other Urinary Tract Cancers: 1958-2009. Radiat Res 195(2): 140-148 (2021).

Mabuchi, K., D.L. Preston, A.V. Brenner et al. Risk of Prostate Cancer Incidence among Atomic Bomb Survivors: 1958-2009. Radiat Res 195(1): 66-76 (2021).

Furukawa, K., D. Preston, S. Funamoto et al. Long-term trend of thyroid cancer risk among Japanese atomic-bomb survivors: 60 years after exposure. Int J Cancer 132(5): 1222-1226 (2013).

Brenner, A.V., H. Sugiyama, D.L. Preston et al. Radiation risk of central nervous system tumors in the Life Span Study of atomic bomb survivors, 1958-2009. Eur J Epidemiol 35(6): 591-600 (2020).

Examples

 names(LSS_incidence)   # Sites for which LSS incidence risk models are available
#>  [1] "allsolid"  "leukaemia" "esophagus" "stomach"   "colon"     "liver"    
#>  [7] "lung"      "prostate"  "pancreas"  "bladder"   "breast"    "thyroid"  
#> [13] "brainCNS" 
 names(LSS_incidence$allsolid)    # Available dose response models
#> [1] "L"  "LQ"
 LSS_incidence$allsolid$L$err     # Linear ERR model for all solid cancer incidence
#> $para
#>      sexMale:dgy    sexFemale:dgy   lage70:sexMale lage70:sexFemale 
#>        0.2731771        0.6398698       -2.5640146       -1.3783097 
#>              e30       hidoseTRUE 
#>       -0.2330051       -0.2761703 
#> 
#> $var
#>                    sexMale:dgy sexFemale:dgy lage70:sexMale lage70:sexFemale
#> sexMale:dgy       0.0021308300   0.000526540   0.0119066187    -0.0015145731
#> sexFemale:dgy     0.0005265400   0.003944061  -0.0019637448     0.0057283111
#> lage70:sexMale    0.0119066187  -0.001963745   0.2072085784     0.0090031922
#> lage70:sexFemale -0.0015145731   0.005728311   0.0090031922     0.0708425868
#> e30               0.0008522796   0.001378741  -0.0046736366    -0.0053350872
#> hidoseTRUE       -0.0012531791  -0.002191058  -0.0002535854     0.0004417784
#>                            e30    hidoseTRUE
#> sexMale:dgy       0.0008522796 -0.0012531791
#> sexFemale:dgy     0.0013787414 -0.0021910581
#> lage70:sexMale   -0.0046736366 -0.0002535854
#> lage70:sexFemale -0.0053350872  0.0004417784
#> e30               0.0028724210 -0.0003010759
#> hidoseTRUE       -0.0003010759  0.0373994998
#> 
#> $f
#> function( beta, data, lag=5 ){  exp( beta[5]*(data$agex-30)/10 ) *
#>         (  (data$sex==1)*(beta[1]*data$dose) * exp(beta[3]*log(data$age/70)) 
#>          + (data$sex==2)*(beta[2]*data$dose) * exp(beta[4]*log(data$age/70)) )  * (data$age - data$agex >= lag )
#>            }
#> 
 LSS_incidence$allsolid$L$ear     # Linear EAR model for all solid cancer incidence
#> $para
#>      sexMale:dgy    sexFemale:dgy   lage70:sexMale lage70:sexFemale 
#>      0.005444272      0.005452228      2.985824086      2.062337914 
#>              e30       hidoseTRUE 
#>     -0.341867615     -0.288156287 
#> 
#> $var
#>                    sexMale:dgy sexFemale:dgy lage70:sexMale lage70:sexFemale
#> sexMale:dgy       6.778181e-07  7.736991e-08   1.725090e-04    -2.136372e-05
#> sexFemale:dgy     7.736991e-08  2.718133e-07  -2.228262e-05     4.024986e-05
#> lage70:sexMale    1.725090e-04 -2.228262e-05   1.479262e-01     8.657096e-03
#> lage70:sexFemale -2.136372e-05  4.024986e-05   8.657096e-03     5.508209e-02
#> e30               1.329393e-05  1.258732e-05  -5.007734e-03    -4.483048e-03
#> hidoseTRUE       -2.347392e-05 -1.818335e-05  -4.514195e-04    -7.435074e-06
#>                            e30    hidoseTRUE
#> sexMale:dgy       1.329393e-05 -2.347392e-05
#> sexFemale:dgy     1.258732e-05 -1.818335e-05
#> lage70:sexMale   -5.007734e-03 -4.514195e-04
#> lage70:sexFemale -4.483048e-03 -7.435074e-06
#> e30               2.655737e-03 -2.652011e-04
#> hidoseTRUE       -2.652011e-04  3.709808e-02
#> 
#> $f
#> function( beta, data, lag=5 ){  exp( beta[5]*(data$agex-30)/10 ) *
#>         (  (data$sex==1)*(beta[1]*data$dose) * exp(beta[3]*log(data$age/70)) 
#>          + (data$sex==2)*(beta[2]*data$dose) * exp(beta[4]*log(data$age/70)) )  * (data$age - data$agex >= lag )
#>            }
#> 

 LSS_incidence$leukaemia$LQ$err   # Linear-quadratic ERR model for leukaemia incidence
#> $para
#>     dosegy   dosegysq     lage70     ltsx40    over4gy 
#>  0.7899801  0.9500302 -1.0902127 -0.8075070 -0.7393616 
#> 
#> $var
#>                dosegy    dosegysq       lage70      ltsx40      over4gy
#> dosegy    0.218448686 -0.05546524  0.004658701  0.02869619  0.050008104
#> dosegysq -0.055465238  0.12345202  0.039615996  0.02421521 -0.054519310
#> lage70    0.004658701  0.03961600  0.197238560 -0.05553209 -0.005061194
#> ltsx40    0.028696191  0.02421521 -0.055532086  0.06711943  0.002045340
#> over4gy   0.050008104 -0.05451931 -0.005061194  0.00204534  0.168883293
#> 
#> $f
#> function( beta, data, lag=2 ){
#>                        tsx <- pmax( data$age-data$agex, 1e-20)
#>                     ( beta[1]*data$dose + beta[2]*data$dose^2) * 
#>                         exp( beta[3]*log(data$age/70) + beta[4]*log((tsx)/40) ) * (tsx >= lag)
#>            }
#> <bytecode: 0x55c09af7e3f8>
#> 
 LSS_incidence$lung$L$err         # Linear ERR model for thyroid cancer incidence
#> $para
#> [1]  0.338734  1.310980 -2.117300  0.148667
#> 
#> $var
#>        md10gy       fd10gy     lage70          e30
#> 1  0.01294580  0.001574620  0.0184695 -0.001452620
#> 2  0.00157462  0.054668400  0.0380286 -0.000685352
#> 3  0.01846950  0.038028600  0.8945510 -0.044314000
#> 4 -0.00145262 -0.000685352 -0.0443140  0.013350400
#> 
#> $f
#> function (beta, data, lag=5) {
#>          ( (data$sex==1)*(beta[1]) + (data$sex==2)*(beta[2]) ) * data$dose *
#>               exp( beta[3] * log(data$age/70) + beta[4] * (data$agex - 30)/10 ) *
#>                    (data$age - data$agex >= lag ) }
#> 

 # Plotting LSS all solid cancer incidence risk model
 plot_riskmodel( rm=LSS_incidence$allsolid$L, title="LSS all solid cancer incidence, Linear",  leg_pos=c(0.4, 0.95) )
#> Warning: Removed 5 rows containing missing values or values outside the scale range
#> (`geom_line()`).


 # Plotting LSS Leukaemia incidence risk model
 plot_riskmodel( rm=LSS_incidence$leukaemia$LQ, title="LSS leukaemia incidence", ymax=c(1.5, .3), add=c(0.01,0) )
#> Warning: Removed 6 rows containing missing values or values outside the scale range
#> (`geom_line()`).


 # Plotting LSS thyroid cancer incidence risk model
 plot_riskmodel( rm=LSS_incidence$thyroid$L, title="LSS thyroid cancer incidence", ymax=c(.5, .3) )
#> Warning: Removed 77 rows containing missing values or values outside the scale range
#> (`geom_line()`).