Browse code

3.99.11: increase max.wall.time in two tests that can take very long in Windoze

ramon diaz-uriarte (at Phelsuma) authored on 13/10/2022 21:54:17
Showing 5 changed files

... ...
@@ -1,7 +1,7 @@
1 1
 Package: OncoSimulR
2 2
 Type: Package
3 3
 Title: Forward Genetic Simulation of Cancer Progression with Epistasis 
4
-Version: 3.99.10
4
+Version: 3.99.11
5 5
 Date: 2022-10-13
6 6
 Authors@R: c(
7 7
 	      person("Ramon", "Diaz-Uriarte", role = c("aut", "cre"),	
... ...
@@ -154,7 +154,7 @@ Author: Ramon Diaz-Uriarte [aut, cre],
154 154
 	Rafael Barrero Rodriguez [ctb],
155 155
 	Silvia Talavera Marcos [ctb]	
156 156
 Maintainer: Ramon Diaz-Uriarte <rdiaz02@gmail.com>
157
-Description: Functions for forward population genetic simulation in asexual populations, with special focus on cancer progression. Fitness can be an arbitrary function of genetic interactions between multiple genes or modules of genes, including epistasis, order restrictions in mutation accumulation, and order effects. Fitness (including just birth, just death, or both and death) can also be a function of the relative and absolute frequencies of other genotypes (i.e., frequency-dependent fitness). Mutation rates can differ between genes, and we can include mutator/antimutator genes (to model mutator phenotypes). Simulating multi-species scenarios and therapeutic interventions, including adaptive therapy, is also possible. Simulations use continuous-time models and can include driver and passenger genes and modules. Also included are functions for: simulating random DAGs of the type found in Oncogenetic Trees, Conjunctive Bayesian Networks, and other cancer progression models; plotting and sampling from single or multiple realizations of the simulations, including single-cell sampling; plotting the parent-child relationships of the clones; generating random fitness landscapes (Rough Mount Fuji, House of Cards, additive, NK, Ising, and Eggbox models) and plotting them.
157
+Description: Functions for forward population genetic simulation in asexual populations, with special focus on cancer progression. Fitness can be an arbitrary function of genetic interactions between multiple genes or modules of genes, including epistasis, order restrictions in mutation accumulation, and order effects. Fitness (including just birth, just death, or both birth and death) can also be a function of the relative and absolute frequencies of other genotypes (i.e., frequency-dependent fitness). Mutation rates can differ between genes, and we can include mutator/antimutator genes (to model mutator phenotypes). Simulating multi-species scenarios and therapeutic interventions, including adaptive therapy, is also possible. Simulations use continuous-time models and can include driver and passenger genes and modules. Also included are functions for: simulating random DAGs of the type found in Oncogenetic Trees, Conjunctive Bayesian Networks, and other cancer progression models; plotting and sampling from single or multiple realizations of the simulations, including single-cell sampling; plotting the parent-child relationships of the clones; generating random fitness landscapes (Rough Mount Fuji, House of Cards, additive, NK, Ising, and Eggbox models) and plotting them.
158 158
 biocViews: BiologicalQuestion, SomaticMutation
159 159
 License: GPL (>= 3)
160 160
 URL: https://github.com/rdiaz02/OncoSimul, https://popmodels.cancercontrol.cancer.gov/gsr/packages/oncosimulr/
... ...
@@ -1,3 +1,7 @@
1
+Changes in version 3.99.11 (2022-10-13):
2
+	- Increase max.wall.time of two tests, as in very slow Windoze machines
3
+	  they can hit max wall time.
4
+
1 5
 Changes in version 3.99.10 (2022-10-13):
2 6
 	- onlyCancer = FALSE by default in all calls to oncoSimul*.
3 7
 	  This is a possible BRAEKING CHANGE.
... ...
@@ -1,6 +1,12 @@
1 1
 inittime <- Sys.time()
2 2
 cat(paste("\n Starting interventions tests", date(), "\n"))
3 3
 
4
+## FIXME
5
+## These two tests are extremely computationally intensive,
6
+## and I think could be better tested otherwise.
7
+## And this test has many non-idiomatic R constructs
8
+## and it could probably run in a 1/10 of the time
9
+
4 10
 test_that("1. Drastically reducing a high-fitness genotype population (McFL) | Trigger depends on T and n_*", {
5 11
     set.seed(1)
6 12
     df3x <- data.frame(Genotype = c("WT", "B", "R"),
... ...
@@ -12,6 +18,7 @@ test_that("1. Drastically reducing a high-fitness genotype population (McFL) | T
12 18
                           frequencyDependentFitness = TRUE,
13 19
                           frequencyType = "abs")
14 20
 
21
+    ## FIXME: why such periodicity?
15 22
     interventions <- list(
16 23
         list(
17 24
             ID          = "intOverBAffectsR",
... ...
@@ -31,17 +38,24 @@ test_that("1. Drastically reducing a high-fitness genotype population (McFL) | T
31 38
 
32 39
     interventions <- createInterventions(interventions, afd3)
33 40
 
41
+
34 42
     ep2 <- oncoSimulIndiv(
35
-                    afd3, 
36
-                    model = "McFLD",
37
-                    mu = 1e-4,
38
-                    sampleEvery = 0.001,
39
-                    initSize = c(5000, 10, 300),
40
-                    initMutant = c("WT", "B", "R"),
41
-                    finalTime = 100,
42
-                    onlyCancer = FALSE,
43
-                    interventions = interventions
44
-                    )
43
+        afd3,
44
+        model = "McFLD",
45
+        mu = 1e-4,
46
+        sampleEvery = 0.001,
47
+        initSize = c(5000, 10, 300),
48
+        initMutant = c("WT", "B", "R"),
49
+        finalTime = 100,
50
+        onlyCancer = FALSE,
51
+        interventions = interventions,
52
+        ## FIXME: this test occasionally fails
53
+        ## as it goes > 200 s in Windows.
54
+        ## This should not be needed
55
+        max.wall.time = 600
56
+    )
57
+
58
+    ## Why the thresholds? 210 here and 40 below.
45 59
 
46 60
     flag <- FALSE
47 61
     i <- 20002
... ...
@@ -58,6 +72,9 @@ test_that("1. Drastically reducing a high-fitness genotype population (McFL) | T
58 72
     # we control that the B population
59 73
     flag <- FALSE
60 74
     i <- 80002
75
+
76
+    ## FIXME: why simulate to 100 time units if we only look up
77
+    ## to row 85000?
61 78
     while(i <= 85000){
62 79
         if(ep2$pops.by.time[i, 3:3] > 40){
63 80
             flag <- TRUE
... ...
@@ -106,22 +123,26 @@ test_that("2. Drastically reducing a high-fitness genotype population (Exp) | Tr
106 123
     interventions <- createInterventions(interventions, afd3)
107 124
 
108 125
     ep2 <- oncoSimulIndiv(
109
-                    afd3, 
110
-                    model = "Exp",
111
-                    mu = 1e-4,
112
-                    sampleEvery = 0.001,
113
-                    initSize = c(5000, 10, 300),
114
-                    initMutant = c("WT", "B", "R"),
115
-                    finalTime = 100,
116
-                    onlyCancer = FALSE,
117
-                    interventions = interventions)
126
+        afd3,
127
+        model = "Exp",
128
+        mu = 1e-4,
129
+        sampleEvery = 0.001,
130
+        initSize = c(5000, 10, 300),
131
+        initMutant = c("WT", "B", "R"),
132
+        finalTime = 100,
133
+        onlyCancer = FALSE,
134
+        interventions = interventions,
135
+        ## FIXME: This huge wall time should not be necessary.
136
+        ## See above; this is slow as hell in Windows.
137
+        max.wall.time = 600)
118 138
 
119 139
     ## In Macs,
120 140
     ##   if (ep2$pops.by.time[i, 3:3] >= 210) {
121 141
     ##     flag <- TRUE
122 142
     ## }`: argument is of length zero
123 143
     ## So only run if not on a Mac
124
-    if (Sys.info()["sysname"] != "Darwin") {
144
+    ## FIXME: this is because the above fails hitting wall time
145
+##    if (Sys.info()["sysname"] != "Darwin") {
125 146
         flag <- FALSE
126 147
         i <- 20002
127 148
         while(i <= 70001){
... ...
@@ -131,7 +152,7 @@ test_that("2. Drastically reducing a high-fitness genotype population (Exp) | Tr
131 152
             i <- i + 1
132 153
         }
133 154
         testthat::expect_equal(flag, FALSE)
134
-    
155
+
135 156
 
136 157
         ## then, between the time intervals, T >= 80 and T<=85
137 158
         ## we control that the B population
... ...
@@ -147,7 +168,7 @@ test_that("2. Drastically reducing a high-fitness genotype population (Exp) | Tr
147 168
         testthat::expect_equal(flag, FALSE)
148 169
         ## we plot the simulation when no interventions are specified.
149 170
         ## plot(ep2, show = "genotypes", type = "line")
150
-    }
171
+##    }
151 172
 })
152 173
 
153 174
 cat(paste("\n Ending interventions tests", date(), "\n"))
... ...
@@ -43,9 +43,9 @@ test_that("2. Two interventions cannot have the same ID (check_double_id)", {
43 43
             WhatHappens = "n_A = n_A * 0.4",
44 44
             Repetitions = Inf,
45 45
             Periodicity = Inf
46
-        )   
46
+        )
47 47
     )
48
-    testthat::expect_error(createInterventions(interventions, afd3), "Check the interventions, there are 2 or more that have same IDs")    
48
+    testthat::expect_error(createInterventions(interventions, afd3), "Check the interventions, there are 2 or more that have same IDs")
49 49
 })
50 50
 
51 51
 test_that("3. The attribute WhatHappens is correctly specified (check_what_happens)",{
... ...
@@ -55,11 +55,12 @@ test_that("3. The attribute WhatHappens is correctly specified (check_what_happe
55 55
             WhatHappens   = "n_A +1 = n_A * 0.1",
56 56
             Repetitions   = 0,
57 57
             Periodicity   = Inf
58
-        )  
58
+        )
59 59
     )
60 60
 
61
-    testthat::expect_error(createInterventions(interventions, afd3), "The specification of WhatHappens is wrong.\n It should be: 
62
-        <genotype_to_apply_some_operation or total_population> = <some_operation>\n Exiting.")
61
+    testthat::expect_error(createInterventions(interventions, afd3),
62
+                           "The specification of WhatHappens is wrong.\n It should be:")
63
+    ## <genotype_to_apply_some_operation or total_population> = <some_operation>\n Exiting.")
63 64
 
64 65
     interventions <- list(
65 66
         list(ID           = "intOverA",
... ...
@@ -67,11 +68,12 @@ test_that("3. The attribute WhatHappens is correctly specified (check_what_happe
67 68
             WhatHappens   = "n_A = n_A * 0.1 = 32",
68 69
             Repetitions   = 0,
69 70
             Periodicity   = Inf
70
-        )  
71
+        )
71 72
     )
72 73
 
73
-    testthat::expect_error(createInterventions(interventions, afd3), "The specification of WhatHappens is wrong.\n It should be: 
74
-        <genotype_to_apply_some_operation or total_population> = <some_operation>\n Exiting.")
74
+    testthat::expect_error(createInterventions(interventions, afd3),
75
+                           "The specification of WhatHappens is wrong.\n It should be:")
76
+    ##    <genotype_to_apply_some_operation or total_population> = <some_operation>\n Exiting.")
75 77
 
76 78
     interventions <- list(
77 79
         list(ID           = "intOverA",
... ...
@@ -79,15 +81,16 @@ test_that("3. The attribute WhatHappens is correctly specified (check_what_happe
79 81
             WhatHappens   = "= n_A * 0.1 = 32",
80 82
             Repetitions   = 0,
81 83
             Periodicity   = Inf
82
-        )  
84
+        )
83 85
     )
84 86
 
85
-    testthat::expect_error(createInterventions(interventions, afd3), "The specification of WhatHappens is wrong.\n It should be: 
86
-        <genotype_to_apply_some_operation or total_population> = <some_operation>\n Exiting.")
87
+    testthat::expect_error(createInterventions(interventions, afd3),
88
+                           "The specification of WhatHappens is wrong.\n It should be:")
89
+    ## <genotype_to_apply_some_operation or total_population> = <some_operation>\n Exiting.")
87 90
 })
88 91
 
89 92
 test_that("4. The user cannot create population in an intervention",{
90
-    # in this test, the main goal is to create a scenario where 
93
+    # in this test, the main goal is to create a scenario where
91 94
     # the whathappens is wrong, and creates population
92 95
 
93 96
     list_of_interventions <- list(
... ...
@@ -96,7 +99,7 @@ test_that("4. The user cannot create population in an intervention",{
96 99
             WhatHappens   = "n_A = n_A * 2",
97 100
             Repetitions   = 0,
98 101
             Periodicity   = Inf
99
-        )  
102
+        )
100 103
     )
101 104
 
102 105
     # we force the A genotype to not have mutationrate of 1 to avoid unexpected messages.
... ...
@@ -111,7 +114,7 @@ test_that("4. The user cannot create population in an intervention",{
111 114
     interventions <- createInterventions(list_of_interventions, afd3)
112 115
 
113 116
     testthat::expect_output(oncoSimulIndiv(
114
-                    afd3, 
117
+                    afd3,
115 118
                     model = "McFL",
116 119
                     mu = 1e-4,
117 120
                     initSize = c(20000, 20000),
... ...
@@ -120,8 +123,8 @@ test_that("4. The user cannot create population in an intervention",{
120 123
                     sampleEvery = 0.01,
121 124
                     onlyCancer = FALSE,
122 125
                     interventions = interventions
123
-                    ), , paste0("In intervention:", interventions[[1]]$ID, 
124
-                        " with WhatHappens: ", interventions[[1]]$WhatHappens, 
126
+                    ), , paste0("In intervention:", interventions[[1]]$ID,
127
+                        " with WhatHappens: ", interventions[[1]]$WhatHappens,
125 128
                         ". You cannot intervene to generate more population."))
126 129
 
127 130
 })
... ...
@@ -138,7 +141,7 @@ test_that("5. Drastically reducing A-genotype population (McFL) | Trigger depend
138 141
                           frequencyType = "abs")
139 142
     # run the simulation without interventions
140 143
     ep1 <- oncoSimulIndiv(
141
-                    afd3, 
144
+                    afd3,
142 145
                     model = "McFL",
143 146
                     mu = 1e-4,
144 147
                     initSize = c(20000, 20000),
... ...
@@ -161,7 +164,7 @@ test_that("5. Drastically reducing A-genotype population (McFL) | Trigger depend
161 164
 
162 165
     # run the simulation WITH interventions
163 166
     ep2 <- oncoSimulIndiv(
164
-                    afd3, 
167
+                    afd3,
165 168
                     model = "McFL",
166 169
                     mu = 1e-4,
167 170
                     initSize = c(20000, 20000),
... ...
@@ -197,7 +200,7 @@ test_that("6. Drastically reducing A population (Exp) | Trigger dependending on
197 200
                           frequencyType = "abs")
198 201
 
199 202
     ep1 <- oncoSimulIndiv(
200
-                    afd3, 
203
+                    afd3,
201 204
                     model = "Exp",
202 205
                     mu = 1e-4,
203 206
                     sampleEvery = 0.001,
... ...
@@ -220,7 +223,7 @@ test_that("6. Drastically reducing A population (Exp) | Trigger dependending on
220 223
     interventions <- createInterventions(interventions, afd3)
221 224
 
222 225
     ep2 <- oncoSimulIndiv(
223
-                    afd3, 
226
+                    afd3,
224 227
                     model = "Exp",
225 228
                     mu = 1e-4,
226 229
                     sampleEvery = 0.001,
... ...
@@ -258,7 +261,7 @@ test_that("7. Intervening over total population (McFL) | Trigger depends on T",
258 261
             ID            = "intOverTotPop",
259 262
             Trigger       = "T > 40",
260 263
             WhatHappens   = "N = N * 0.6",
261
-            Repetitions   = 2,   
264
+            Repetitions   = 2,
262 265
             Periodicity   = 20
263 266
         )
264 267
     )
... ...
@@ -323,7 +326,7 @@ test_that("8. Intervening over total population (Exp) | Trigger depends on T", {
323 326
             ID            = "intOverTotPop",
324 327
             Trigger       = "T > 10",
325 328
             WhatHappens   = "N = N * 0.8",
326
-            Repetitions   = 2,   
329
+            Repetitions   = 2,
327 330
             Periodicity   = 10
328 331
         )
329 332
     )
... ...
@@ -339,7 +342,7 @@ test_that("8. Intervening over total population (Exp) | Trigger depends on T", {
339 342
                             sampleEvery = 0.001,
340 343
                             interventions = interventions)
341 344
 
342
-    # it may happen that, in some simulations, the population collapses, in that case, 
345
+    # it may happen that, in some simulations, the population collapses, in that case,
343 346
     # pops by time is null, and cannot be checked
344 347
 
345 348
     # we can check genotype by genotype that when an intervention ocurs, their population lowers
... ...
@@ -380,7 +383,7 @@ test_that("11. Intervening over 4 genotypes both over specific genotype and tota
380 383
                       Fitness = c("1",
381 384
                                   "1.01 + (0 * n_A)",
382 385
                                   "1.1",
383
-                                  "1.09", 
386
+                                  "1.09",
384 387
                                   "1.07"))
385 388
 
386 389
     afd3 <- allFitnessEffects(genotFitness = df3x,
... ...
@@ -391,28 +394,28 @@ test_that("11. Intervening over 4 genotypes both over specific genotype and tota
391 394
             ID            = "intOverA",
392 395
             Trigger       = "T >= 1.2",
393 396
             WhatHappens   = "n_A = n_A * 0.5",
394
-            Repetitions   = 0,   
397
+            Repetitions   = 0,
395 398
             Periodicity   = Inf
396 399
         ),
397 400
         list(
398 401
             ID            = "intOverB",
399 402
             Trigger       = "T >= 2.2",
400 403
             WhatHappens   = "n_B = n_B * 0.5",
401
-            Repetitions   = 0,   
404
+            Repetitions   = 0,
402 405
             Periodicity   = Inf
403 406
         ),
404 407
         list(
405 408
             ID            = "intOverC",
406 409
             Trigger       = "T >= 3.2",
407 410
             WhatHappens   = "n_C = n_C * 0.5",
408
-            Repetitions   = 0,   
411
+            Repetitions   = 0,
409 412
             Periodicity   = Inf
410 413
         ),
411 414
         list(
412 415
             ID            = "intOverD",
413 416
             Trigger       = "T >= 4.2",
414 417
             WhatHappens   = "n_D = n_D * 0.5",
415
-            Repetitions   = 0,   
418
+            Repetitions   = 0,
416 419
             Periodicity   = Inf
417 420
         )
418 421
     )
... ...
@@ -478,7 +481,7 @@ test_that("12. Intervening over 4 genotypes both over specific and total populat
478 481
                       Fitness = c("1",
479 482
                                   "1.01 + (0 * n_A)",
480 483
                                   "1.1",
481
-                                  "1.09", 
484
+                                  "1.09",
482 485
                                   "1.07"))
483 486
 
484 487
     afd3 <- allFitnessEffects(genotFitness = df3x,
... ...
@@ -489,28 +492,28 @@ test_that("12. Intervening over 4 genotypes both over specific and total populat
489 492
             ID            = "intOverA",
490 493
             Trigger       = "T >= 1.2",
491 494
             WhatHappens   = "n_A = n_A * 0.5",
492
-            Repetitions   = 0,   
495
+            Repetitions   = 0,
493 496
             Periodicity   = Inf
494 497
         ),
495 498
         list(
496 499
             ID            = "intOverB",
497 500
             Trigger       = "T >= 2.2",
498 501
             WhatHappens   = "n_B = n_B * 0.5",
499
-            Repetitions   = 0,   
502
+            Repetitions   = 0,
500 503
             Periodicity   = Inf
501 504
         ),
502 505
         list(
503 506
             ID            = "intOverC",
504 507
             Trigger       = "T >= 3.2",
505 508
             WhatHappens   = "n_C = n_C * 0.5",
506
-            Repetitions   = 0,   
509
+            Repetitions   = 0,
507 510
             Periodicity   = Inf
508 511
         ),
509 512
         list(
510 513
             ID            = "intOverD",
511 514
             Trigger       = "T >= 4.2",
512 515
             WhatHappens   = "n_D = n_D * 0.5",
513
-            Repetitions   = 0,   
516
+            Repetitions   = 0,
514 517
             Periodicity   = Inf
515 518
         )
516 519
     )
... ...
@@ -610,7 +613,7 @@ test_that("13. Intervening in the Rock-Paper-Scissors model for bacterial commun
610 613
                                 errorHitWallTime = FALSE,
611 614
                                 interventions = final_interventions)
612 615
 
613
-    # by reducing C, R wont spread in the population. This will mean that, with the apropiate 
616
+    # by reducing C, R wont spread in the population. This will mean that, with the apropiate
614 617
     # periodicty in the intervention, C will never surpass WT. We try to check this in these tests.
615 618
     i <- 1
616 619
     while(i <= nrow(resultscrs1$pops.by.time)){
... ...
@@ -630,7 +633,7 @@ test_that("14. Intervening over total population (Exp) | Trigger depends on user
630 633
     afd3 <- allFitnessEffects(genotFitness = gffd3,
631 634
                             frequencyDependentFitness = TRUE,
632 635
                             frequencyType = "abs")
633
-    
636
+
634 637
     userVars <- list(
635 638
         list(Name = "user_var_1",
636 639
             Value = 0
... ...
@@ -686,9 +689,12 @@ test_that("14. Intervening over total population (Exp) | Trigger depends on user
686 689
                             sampleEvery = 0.001,
687 690
                             interventions = interventions,
688 691
                             userVars = userVars,
689
-                            rules = rules)
692
+                           rules = rules,
693
+                           ## FIXME
694
+                           ## In Windows sometimes this takes forever
695
+                           max.wall.time = 600)
690 696
 
691
-    # it may happen that, in some simulations, the population collapses, in that case, 
697
+    # it may happen that, in some simulations, the population collapses, in that case,
692 698
     # pops by time is null, and cannot be checked
693 699
 
694 700
     # we can check genotype by genotype that when an intervention ocurs, their population lowers
... ...
@@ -720,6 +726,8 @@ test_that("14. Intervening over total population (Exp) | Trigger depends on user
720 726
             testthat::expect_gte(prev_line[4], line[4])
721 727
         }
722 728
     }
729
+
730
+    # This will break if the simulation aborted
723 731
     testthat::expect_gt(sfd3$other$interventionTimes[1], 10.000)
724 732
     testthat::expect_lt(sfd3$other$interventionTimes[1], 10.001)
725 733
     testthat::expect_gt(sfd3$other$interventionTimes[2], 20.000)
... ...
@@ -738,7 +746,7 @@ test_that("15. Intervening over total population (Exp) | WhatHappens uses user v
738 746
     afd3 <- allFitnessEffects(genotFitness = gffd3,
739 747
                             frequencyDependentFitness = TRUE,
740 748
                             frequencyType = "abs")
741
-    
749
+
742 750
     userVars <- list(
743 751
         list(Name = "user_var_1",
744 752
             Value = 0
... ...
@@ -782,9 +790,11 @@ test_that("15. Intervening over total population (Exp) | WhatHappens uses user v
782 790
                             sampleEvery = 0.001,
783 791
                             interventions = interventions,
784 792
                             userVars = userVars,
785
-                            rules = rules)
793
+                           rules = rules,
794
+                           ## FIXME: again, in Windows this sometimes takes a very long time
795
+                           max.wall.time = 600)
786 796
 
787
-    # it may happen that, in some simulations, the population collapses, in that case, 
797
+    # it may happen that, in some simulations, the population collapses, in that case,
788 798
     # pops by time is null, and cannot be checked
789 799
 
790 800
     # we can check genotype by genotype that when an intervention ocurs, their population lowers
... ...
@@ -803,7 +813,7 @@ test_that("15. Intervening over total population (Exp) | WhatHappens uses user v
803 813
         total <- line[2] + line[3] + line[4]
804 814
         prev_total <- prev_line[2] + prev_line[3] + prev_line[4]
805 815
         # T = 15
806
-        if(i == 1){ 
816
+        if(i == 1){
807 817
             testthat::expect_gt(total, prev_total*0.5 - 0.2*prev_total)
808 818
             testthat::expect_lt(total, prev_total*0.5 + 0.2*prev_total)
809 819
         # T = 25
... ...
@@ -1,15 +1,15 @@
1 1
 \usepackage[%
2
-		shash={a9bf28f},
3
-		lhash={a9bf28f50043829b5e85a9b2c8e2c80638d2ed4b},
4
-		authname={ramon diaz-uriarte (at Phelsuma)},
2
+		shash={c337f5f},
3
+		lhash={c337f5f9976dd824b49015eca92e177b9e971414},
4
+		authname={Ramon, vbox},
5 5
 		authemail={rdiaz02@gmail.com},
6 6
 		authsdate={2022-10-13},
7
-		authidate={2022-10-13 14:42:33 +0200},
8
-		authudate={1665664953},
9
-		commname={ramon diaz-uriarte (at Phelsuma)},
7
+		authidate={2022-10-13 11:53:57 -0700},
8
+		authudate={1665687237},
9
+		commname={Ramon, vbox},
10 10
 		commemail={rdiaz02@gmail.com},
11 11
 		commsdate={2022-10-13},
12
-		commidate={2022-10-13 14:42:33 +0200},
13
-		commudate={1665664953},
14
-		refnames={ (HEAD -> master)}
12
+		commidate={2022-10-13 11:53:57 -0700},
13
+		commudate={1665687237},
14
+		refnames={ (HEAD -> master, origin/master, origin/HEAD)}
15 15
 	]{gitsetinfo}
16 16
\ No newline at end of file