Car Tax Model
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;; VERSION 3-September-2020 6:00 ;; With more cars extensions [csv table] breed [ cars car ] breed [ buyers buyer ] globals [ coef_uv_list ; coefficient of utility variables list. Mind the order! mu_car ; mu coefficient table for the nested logit at the second step c_car ;; buyers variable coefficients b-hh-size b-spending1 b-spending2 b-spending3 b-spending4 b-sex b-age1 b-age2 b-age3 b-age4 b-age5 b-age6 b-age7 b-age8 b-ocp1 b-ocp2 b-ocp3 b-ocp4 ;; cars variabel coefficients b-fuelcost b-co2 b-price b-kerbweight b-dimension b-gasoline b-manual ] cars-own [ variant brand fuelconsmp fuelcost co2 price kerbweight len width height gasoline manual chosen? ; boolean variable mobil dipilih oleh pembeli dimension cars_uv_list car_utility ] buyers-own [ hh-size ; ukuran rumah tangga. Jumlah seluruh orang dalam rumah tangga. (rasio) ;; pengeluaran per orang per bulan berdasarkan World Bank (2019), 5 kelas spending1 ; <354 ribu spending2 ; 354 ribu - 532 ribu spending3 ; 532 ribu - 1,2 juta spending4 ; 1,2 juta - 6,0 juta ;spending5 >6,0 juta. Tapi kan tidak ada variabelnya. sex ; jenis kelamin. (nominal) ;; usia, 9 kelas age1 ; 21 - 25 tahun age2 ; 26 - 30 tahun age3 ; 31 - 35 tahun age4 ; 36 - 40 tahun age5 ; 41 - 45 tahun age6 ; 46 - 50 tahun age7 ; 51 - 55 tahun age8 ; 56 - 60 tahun ;age9 >60 tahun. ;; pekerjaan, nominal occupation1 ; swasta occupation2 ; pelajar/mahasiswa occupation3 ; TNI/Polri occupation4 ; PNS ;occupation5 BUMN. ;; choice-related variables cset-size who-choice-set car-choice buyers_uv_list uv_list buyer_utility utility ; tables related to cars agentset table_lefthalf table_righthalf table_exp_nested_sums brand_list table_car_probs ] ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; S E T U P ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; to setup clear-all ;; start over the model clean file-close-all ;; close any files open from last run set-buyers ;; setup the car buyers condition using 'set-buyers' procedure set-cars ;; setup the car condition using 'set-cars' procedure ;; setting the list for the utility function coefficients in the second step logit model ;; make sure not to change the order set b-hh-size 1 set b-spending1 1 set b-spending2 1 set b-spending3 1 set b-spending4 1 set b-sex 1 set b-age1 1 set b-age2 1 set b-age3 1 set b-age4 1 set b-age5 1 set b-age6 1 set b-age7 1 set b-age8 1 set b-ocp1 1 set b-ocp2 1 set b-ocp3 1 set b-ocp4 1 set b-fuelcost 1 set b-co2 1 set b-price -0.063 set b-kerbweight 1 set b-dimension 1 set b-gasoline 1 set b-manual 1 set coef_uv_list ( list b-hh-size b-spending1 b-spending2 b-spending3 b-spending4 b-sex b-age1 b-age2 b-age3 b-age4 b-age5 b-age6 b-age7 b-age8 b-ocp1 b-ocp2 b-ocp3 b-ocp4 b-fuelcost b-price b-kerbweight b-dimension b-gasoline b-manual ) ;; same goes for the buyers agent ask buyers [ set buyers_uv_list ( list hh-size spending1 spending2 spending3 spending4 spending4 sex age1 age2 age3 age4 age4 age5 age6 age7 age8 occupation1 occupation2 occupation3 occupation4 ) set buyer_utility (b-hh-size * hh-size) + (b-spending1 * spending1) + (b-spending2 * spending2) + (b-spending3 * spending3) + (b-spending4 * spending4) + (b-sex * sex) + (b-age1 * age1) + (b-age2 * age2) + (b-age3 * age3) + (b-age4 * age4) + (b-age5 * age5) + (b-age6 * age6) + (b-age7 * age7) + (b-age8 * age8) + (b-ocp1 * occupation1) + (b-ocp2 * occupation2) + (b-ocp3 * occupation3) + (b-ocp4 * occupation4) ] ask cars [ ;; asking cars to count their car-side utility value set car_utility (b-fuelcost * fuelcost) + (b-co2 * co2) + (b-price * price) + (b-dimension * dimension) + (b-gasoline * gasoline) + (b-manual * manual) + (b-kerbweight * kerbweight) ] ;; making the c_car table set mu_car table:make set c_car table:make ;; storing each car brand with its own mu coefficient table:put mu_car "Aston Martin" 1.0 table:put mu_car "Audi" 1.5 table:put mu_car "Bentley" 2.0 table:put mu_car "BMW" 2.5 table:put mu_car "Chevrolet" 1.0 table:put mu_car "Daihatsu" 1.2 table:put mu_car "Datsun" 3.5 table:put mu_car "DFSK" 3.0 table:put mu_car "Dodge" 3.5 table:put mu_car "Fiat" 1.4 table:put mu_car "Honda" 1.3 table:put mu_car "Hyundai" -2.5 table:put mu_car "Isuzu" 2.3 table:put mu_car "Jaguar" 1.9 table:put mu_car "Jeep" 1.7 table:put mu_car "KIA" 1.1 table:put mu_car "Lamborghini" 1.1 table:put mu_car "Land Rover" 1.6 table:put mu_car "Lexus" 1.7 table:put mu_car "Mahindra" 1.9 table:put mu_car "Maserati" 1.2 table:put mu_car "Mazda" 2.3 table:put mu_car "Mercedes-Benz" 4.0 table:put mu_car "MG" 4.0 table:put mu_car "MINI" 2.0 table:put mu_car "Mitsubishi" 3.0 table:put mu_car "Nissan" 3.1 table:put mu_car "Peugeot" 3.3 table:put mu_car "Porsche" 3.4 table:put mu_car "Renault" 2.9 table:put mu_car "Rolls Royce" 1.7 table:put mu_car "Suzuki" 2.9 table:put mu_car "Toyota" 1.3 table:put mu_car "Volkswagen" 1 table:put mu_car "Volvo" 1 table:put mu_car "Wuling" 1 ;; storing each car brand with its own car constant table:put c_car "Aston Martin" 1 table:put c_car "Audi" 1 table:put c_car "Bentley" 1 table:put c_car "BMW" 1 table:put c_car "Chevrolet" 1 table:put c_car "Daihatsu" 1 table:put c_car "Datsun" 1 table:put c_car "DFSK" 1 table:put c_car "Dodge" 1 table:put c_car "Fiat" 1 table:put c_car "Honda" 1 table:put c_car "Hyundai" 1 table:put c_car "Isuzu" 1 table:put c_car "Jaguar" 1 table:put c_car "Jeep" 1 table:put c_car "KIA" 1 table:put c_car "Lamborghini" 1 table:put c_car "Land Rover" 1 table:put c_car "Lexus" 1 table:put c_car "Mahindra" 1 table:put c_car "Maserati" 1 table:put c_car "Mazda" 1 table:put c_car "Mercedes-Benz" 1 table:put c_car "MG" 1 table:put c_car "MINI" 1 table:put c_car "Mitsubishi" 1 table:put c_car "Nissan" 1 table:put c_car "Peugeot" 1 table:put c_car "Porsche" 1 table:put c_car "Renault" 1 table:put c_car "Rolls Royce" 1 table:put c_car "Suzuki" 1 table:put c_car "Toyota" 1 table:put c_car "Volkswagen" 1 table:put c_car "Volvo" 1 table:put c_car "Wuling" 1 setup-plots update-plots end to set-buyers ;; buyers procedure. ifelse not file-exists? buyers_file [ user-message "Tidak ditemukan file 'file_read_buyers.csv'. Mohon periksa kembali nama atau lokasi file tersebut." stop ] [ file-open buyers_file ] ;; Membaca seluruh data dalam satu loop while [ not file-at-end? ] [ ; here the csv extension grabs a single line and puts the read data in a list let baca (csv:from-row file-read-line ";") ; now we can use that list to create a turtle with the saved properties create-buyers 1 [ set hh-size item 0 baca ;; setting spending1 - spending5 value ( ifelse item 1 baca = 1 [ set spending1 1 set spending2 0 set spending3 0 set spending4 0 ] item 1 baca = 2 [ set spending1 0 set spending2 1 set spending3 0 set spending4 0 ] item 1 baca = 3 [ set spending1 0 set spending2 0 set spending3 1 set spending4 0 ] item 1 baca = 4 [ set spending1 0 set spending2 0 set spending3 0 set spending4 1 ] [ set spending1 0 set spending2 0 set spending3 0 set spending4 0 ]) ;; setting occupation1 - occupation5 value ( ifelse item 2 baca = 1 [ set occupation1 1 set occupation2 0 set occupation3 0 set occupation4 0 ] item 2 baca = 2 [ set occupation1 0 set occupation2 1 set occupation3 0 set occupation4 0 ] item 2 baca = 3 [ set occupation1 0 set occupation2 0 set occupation3 1 set occupation4 0 ] item 2 baca = 4 [ set occupation1 0 set occupation2 0 set occupation3 0 set occupation4 1 ] [ set occupation1 0 set occupation2 0 set occupation3 0 set occupation4 0 ] ) set sex item 3 baca ;; setting age1 - age9 value ( ifelse item 4 baca = 1 [ set age1 1 set age2 0 set age3 0 set age4 0 set age5 0 set age6 0 set age7 0 set age8 0 ] item 4 baca = 2 [ set age1 0 set age2 1 set age3 0 set age4 0 set age5 0 set age6 0 set age7 0 set age8 0 ] item 4 baca = 3 [ set age1 0 set age2 0 set age3 1 set age4 0 set age5 0 set age6 0 set age7 0 set age8 0 ] item 4 baca = 4 [ set age1 0 set age2 0 set age3 0 set age4 1 set age5 0 set age6 0 set age7 0 set age8 0 ] item 4 baca = 5 [ set age1 0 set age2 0 set age3 0 set age4 0 set age5 1 set age6 0 set age7 0 set age8 0 ] item 4 baca = 6 [ set age1 0 set age2 0 set age3 0 set age4 0 set age5 0 set age6 1 set age7 0 set age8 0 ] item 4 baca = 7 [ set age1 0 set age2 0 set age3 0 set age4 0 set age5 0 set age6 0 set age7 1 set age8 0 ] item 4 baca = 8 [ set age1 0 set age2 0 set age3 0 set age4 0 set age5 0 set age6 0 set age7 0 set age8 1 ] [ set age1 0 set age2 0 set age3 0 set age4 0 set age5 0 set age6 0 set age7 0 set age8 0 ] ) ] ask buyers [ set shape "person" set color green let bound-buyers random -45 - 5 set xcor random-xcor set ycor random-ycor ] ] file-close ;; make sure to close the file end to set-cars ;; cars procedure. ifelse not file-exists? cars_file [ user-message "Tidak ditemukan file 'file_read_cars.csv'. Mohon periksa kembali nama atau lokasi file tersebut." stop ] [ file-open cars_file ] ;; Membaca seluruh data dalam satu loop while [ not file-at-end? ][ ; here the csv extension grabs a single line and puts the read data in a list let baca (csv:from-row file-read-line ";") ; now we can use that list to create a turtle with the saved properties create-cars 1 [ set variant item 0 baca set brand item 1 baca set fuelconsmp item 2 baca set fuelcost item 3 baca / 10000 set co2 item 4 baca / 100 set price item 5 baca / 1000 set kerbweight item 6 baca / 1000 set len item 7 baca set width item 8 baca set height item 9 baca set gasoline item 10 baca set manual item 11 baca ] ask cars [ set shape "car" set color yellow let bound-cars random 45 + 5 set xcor random-xcor set ycor random-ycor set dimension (len * width) / 10000000 ] ] file-close ;; make sure to close the file end ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; G 0 ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; to go first-step second-step end ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; F I R S T S T E P ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; to first-step ask cars [ set chosen? 0 ] first-stage ;; this is the equivalence to "tick" if you decide your model won't involve time frame. update-plots end to first-stage ;; buyers procedure. ask buyers [ let a 4 let b 1 / 6 ;; set the number of cars choice set for each buyer ;; by the non-compensatory rule set cset-size round random-gamma a b set who-choice-set [who] of n-of cset-size cars ;; set buyers' car choice-set as an agentset set label cset-size ] end ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; S E C O N D S T E P ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; to second-step ask buyers [ ;; table for storing each car's exponentials of utility. set table_lefthalf table:make foreach who-choice-set [ x -> let c table:get c_car [brand] of car x let value (buyer_utility + ([car_utility] of car x) + c) table:put table_lefthalf ([who] of car x) (exp (value * table:get mu_car [brand] of car x)) ] set table_righthalf table:make ;; procedures to make the table_righthalf table, table for storing aggregate utility ;; value for cars within the same brand. ; first make a list of list containing [["brand" utility_value]["brand 2" utility_value2]...] set brand_list [] foreach who-choice-set [ x -> set brand_list lput (list [brand] of car x table:get table_lefthalf x) brand_list ] ; next sort the list of list by the brand name alphabetically set brand_list sort-by [[a b] -> first a < first b] brand_list ; after that we are going to make aggregated list of car brands and the corresponding value set brand_list make-righthalf brand_list ; now we assign that list to table_righthalf set table_righthalf table:from-list brand_list ; we also need a table for the exp(1 / mu_j * ln total exp(mu_j * Vij)) set table_exp_nested_sums table:from-list make-exp-nested-sums brand_list ; now we can compute each car's probability let car_probs [] foreach who-choice-set [ id -> set car_probs lput list id count-exp id car_probs ] ; sort the cars based on their probability descending set car_probs sort-by [[a b] -> last a > last b] car_probs set table_car_probs table:from-list car_probs ; after each car has its own probability, we ask buyer to choose the car that ; has the highest probability value let highestp car first first car_probs set car-choice highestp ask car-choice [ set chosen? 1 ] ] update-plots end ;this is my version to make the righthalf table ;to-report make-righthalf [li] ; let result [] ; let first_item item 0 li ; first_item is also a list ; let li-length length li ; let li-end li-length - 1 ; foreach (range 1 li-length) [ ; ? -> ifelse ? != li-end ; [ ifelse item 0 item ? li = item 0 first_item ; [ set first_item replace-item 1 first_item (item 1 first_item + item 1 item ? li) ] ; [ set result lput first_item result ; set first_item item ? li ] ; ] ; [ ifelse item 0 item ? li = item 0 first_item ; [ set first_item replace-item 1 first_item (item 1 first_item + item 1 item ? li) ; set result lput first_item result ] ; [ set result lput first_item result ; set result lput item li-end li result ] ; ] ; ] ; report result ;end ;this is JenB's version to-report make-righthalf [li] ; this procedure assumes that li has been sorted ; uncomment this following code if above assumption is not used ; let sorted-list sort-by [[a b] -> first a < first b] li ; prime the loop let pair-to-add first li let active-letter first pair-to-add let result [] ; loop from the second item to the end foreach but-first li [ pair -> ifelse first pair = active-letter ; in same first letter so add [ set pair-to-add (list first pair-to-add (last pair-to-add + last pair)) ] ; in different first letter so output and use this item as start of next chain [ set result lput pair-to-add result set pair-to-add pair set active-letter first pair ] ] ; append the final pair set result lput pair-to-add result report result end to-report make-exp-nested-sums [li] let result [] foreach li [ pair -> let the-brand first pair let cmu table:get mu_car the-brand set result lput list the-brand ((1 / cmu) * (ln last pair)) result ] report result end to-report count-exp [id] let p_num_lefthalf table:get table_lefthalf id let p_num_righthalf exp (1 / table:get mu_car [brand] of car id) * ln (table:get table_righthalf [brand] of car id) let p_denom_lefthalf table:get table_righthalf [brand] of car id let p_denom_righthalf sum table:values table_exp_nested_sums report (p_num_lefthalf / p_denom_lefthalf) * (p_num_righthalf * p_denom_righthalf) end ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; C L E A R ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; to clear reset-ticks ask cars [ set chosen? 0 ] ask buyers [ set cset-size 0 set label "" ] setup-plots end
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Attached files
File | Type | Description | Last updated | |
---|---|---|---|---|
file_read_buyers.csv | extension | 'buyers' breed file | over 4 years ago, by Muhammad Abdul Mubdi Bindar | Download |
file_read_cars.csv | extension | 'cars' breed file | over 4 years ago, by Muhammad Abdul Mubdi Bindar | Download |
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