Calculate visit costs

[planeteer] / planeteer.go

diff --git a/planeteer.go b/planeteer.go
index 67a843dd400c9ca3d8e708af48d0850442b91c4f..82650b9ffe88e72179ef149d87bf350bd4cdeee6 100644 (file)
--- a/planeteer.go
+++ b/planeteer.go
@@ -19,7 +19,7 @@ package main
 
 import "flag"
 import "fmt"
 
 import "flag"
 import "fmt"

-import "json"
+import "encoding/json"

 import "os"
 import "runtime/pprof"
 import "strings"
 import "os"
 import "runtime/pprof"
 import "strings"


@@ -43,6 +43,8 @@ var fuel = flag.Int("fuel", 16, "Hyper Jump power left")
 
 var hold = flag.Int("hold", 300, "Size of your cargo hold")
 
 
 var hold = flag.Int("hold", 300, "Size of your cargo hold")
 

+var start_hold = flag.String("start_hold", "", "Start with a hold full of cargo")
+

 var start_edens = flag.Int("start_edens", 0,
        "How many Eden Warp Units are you starting with?")
 
 var start_edens = flag.Int("start_edens", 0,
        "How many Eden Warp Units are you starting with?")
 


@@ -63,6 +65,9 @@ var battery_price = flag.Int("battery_price", 0, "Today's Shield Battery price")
 var visit_string = flag.String("visit", "",
        "A comma-separated list of planets to make sure to visit")
 
 var visit_string = flag.String("visit", "",
        "A comma-separated list of planets to make sure to visit")
 

+var tomorrow_weight = flag.Float64("tomorrow_weight", 1.0,
+       "Weight for the expected value of tomorrow's trading.  0.0 - 1.0")
+

 var cpuprofile = flag.String("cpuprofile", "", "write cpu profile to file")
 
 var visit_cache []string
 var cpuprofile = flag.String("cpuprofile", "", "write cpu profile to file")
 
 var visit_cache []string


@@ -111,8 +116,9 @@ type Commodity struct {
        Limit     int
 }
 type Planet struct {
        Limit     int
 }
 type Planet struct {

-       BeaconOn bool
-       Private  bool
+       BeaconOn      bool
+       Private       bool
+       TomorrowValue int

        /* Use relative prices rather than absolute prices because you
           can get relative prices without traveling to each planet. */
        RelativePrices map[string]int
        /* Use relative prices rather than absolute prices because you
           can get relative prices without traveling to each planet. */
        RelativePrices map[string]int


@@ -241,9 +247,11 @@ type State struct {
 }
 
 const (
 }
 
 const (

-       CELL_UNINITIALIZED = -2147483647 + iota
-       CELL_BEING_EVALUATED
-       CELL_RUBISH
+       FROM_ROOT = -2147483647 + iota
+       FROM_UNINITIALIZED
+       VALUE_UNINITIALIZED
+       VALUE_BEING_EVALUATED
+       VALUE_RUBISH

 )
 
 func EncodeIndex(dims, addr []int) int32 {
 )
 
 func EncodeIndex(dims, addr []int) int32 {


@@ -273,15 +281,20 @@ func DecodeIndex(dims []int, index int32) []int {
 func CreateStateTable(data planet_data, dims []int) []State {
        table := make([]State, StateTableSize(dims))
        for i := range table {
 func CreateStateTable(data planet_data, dims []int) []State {
        table := make([]State, StateTableSize(dims))
        for i := range table {

-               table[i].value = CELL_UNINITIALIZED
+               table[i].value = VALUE_UNINITIALIZED
+               table[i].from = FROM_UNINITIALIZED

        }
 
        addr := make([]int, NumDimensions)
        addr[Fuel] = *fuel
        addr[Edens] = *start_edens
        addr[Location] = data.p2i[*start]
        }
 
        addr := make([]int, NumDimensions)
        addr[Fuel] = *fuel
        addr[Edens] = *start_edens
        addr[Location] = data.p2i[*start]

-       addr[Traded] = 1
-       table[EncodeIndex(dims, addr)].value = int32(*funds)
+       if *start_hold != "" {
+               addr[Hold] = data.c2i[*start_hold]
+       }
+       start_index := EncodeIndex(dims, addr)
+       table[start_index].value = int32(*funds)
+       table[start_index].from = FROM_ROOT

 
        return table
 }
 
        return table
 }


@@ -306,15 +319,15 @@ var cell_filled_count int
 
 func CellValue(data planet_data, dims []int, table []State, addr []int) int32 {
        my_index := EncodeIndex(dims, addr)
 
 func CellValue(data planet_data, dims []int, table []State, addr []int) int32 {
        my_index := EncodeIndex(dims, addr)

-       if table[my_index].value == CELL_BEING_EVALUATED {
+       if table[my_index].value == VALUE_BEING_EVALUATED {

                panic("Circular dependency")
        }
                panic("Circular dependency")
        }

-       if table[my_index].value != CELL_UNINITIALIZED {
+       if table[my_index].value != VALUE_UNINITIALIZED {

                return table[my_index].value
        }
                return table[my_index].value
        }

-       table[my_index].value = CELL_BEING_EVALUATED
+       table[my_index].value = VALUE_BEING_EVALUATED

 
 

-       best_value := int32(CELL_RUBISH)
+       best_value := int32(VALUE_RUBISH)

        best_source := make([]int, NumDimensions)
        other := make([]int, NumDimensions)
        copy(other, addr)
        best_source := make([]int, NumDimensions)
        other := make([]int, NumDimensions)
        copy(other, addr)


@@ -467,8 +480,7 @@ func CellValue(data planet_data, dims []int, table []State, addr []int) int32 {
        }
 
        /* Visit this planet */
        }
 
        /* Visit this planet */

-       var i uint
-       for i = 0; i < uint(len(visit())); i++ {
+       for i := uint(0); i < uint(len(visit())); i++ {

                if addr[Visit]&(1<<i) != 0 && visit()[i] == data.i2p[addr[Location]] {
                        other[Visit] = addr[Visit] & ^(1 << i)
                        Consider(data, dims, table, other, 0, &best_value, best_source)
                if addr[Visit]&(1<<i) != 0 && visit()[i] == data.i2p[addr[Location]] {
                        other[Visit] = addr[Visit] & ^(1 << i)
                        Consider(data, dims, table, other, 0, &best_value, best_source)


@@ -505,7 +517,7 @@ func CellValue(data planet_data, dims []int, table []State, addr []int) int32 {
 
        // Sanity check: This cell was in state BEING_EVALUATED
        // the whole time that it was being evaluated.
 
        // Sanity check: This cell was in state BEING_EVALUATED
        // the whole time that it was being evaluated.

-       if table[my_index].value != CELL_BEING_EVALUATED {
+       if table[my_index].value != VALUE_BEING_EVALUATED {

                panic(my_index)
        }
 
                panic(my_index)
        }
 


@@ -515,14 +527,14 @@ func CellValue(data planet_data, dims []int, table []State, addr []int) int32 {
 
        // UI: Progress bar
        cell_filled_count++
 
        // UI: Progress bar
        cell_filled_count++

-       if cell_filled_count&0xff == 0 {
+       if cell_filled_count&0xfff == 0 {

                print(fmt.Sprintf("\r%3.1f%%", 100*float64(cell_filled_count)/float64(StateTableSize(dims))))
        }
 
        return table[my_index].value
 }
 
                print(fmt.Sprintf("\r%3.1f%%", 100*float64(cell_filled_count)/float64(StateTableSize(dims))))
        }
 
        return table[my_index].value
 }
 

-func FindBestState(data planet_data, dims []int, table []State) int32 {
+func FinalState(dims []int) []int {

        addr := make([]int, NumDimensions)
        addr[Edens] = *end_edens
        addr[Cloaks] = dims[Cloaks] - 1
        addr := make([]int, NumDimensions)
        addr[Edens] = *end_edens
        addr[Cloaks] = dims[Cloaks] - 1


@@ -532,17 +544,25 @@ func FindBestState(data planet_data, dims []int, table []State) int32 {
        addr[Traded] = 1
        addr[Hold] = 0
        addr[UnusedCargo] = 0
        addr[Traded] = 1
        addr[Hold] = 0
        addr[UnusedCargo] = 0

+       // Fuel and Location are determined by FindBestState
+       return addr
+}
+
+func FindBestState(data planet_data, dims []int, table []State, addr []int) int32 {

        max_index := int32(-1)
        max_index := int32(-1)

-       max_value := int32(0)
+       max_value := 0.0

        max_fuel := 1
        if *fuel == 0 {
                max_fuel = 0
        }
        for addr[Fuel] = 0; addr[Fuel] <= max_fuel; addr[Fuel]++ {
                for addr[Location] = 0; addr[Location] < dims[Location]; addr[Location]++ {
        max_fuel := 1
        if *fuel == 0 {
                max_fuel = 0
        }
        for addr[Fuel] = 0; addr[Fuel] <= max_fuel; addr[Fuel]++ {
                for addr[Location] = 0; addr[Location] < dims[Location]; addr[Location]++ {

-                       if len(end()) == 0 || end()[data.i2p[addr[Location]]] {
+                       planet := data.i2p[addr[Location]]
+                       if len(end()) == 0 || end()[planet] {

                                index := EncodeIndex(dims, addr)
                                index := EncodeIndex(dims, addr)

-                               value := CellValue(data, dims, table, addr)
+                               today_value := CellValue(data, dims, table, addr)
+                               tomorrow_value := *tomorrow_weight * float64(*hold+data.Planets[planet].TomorrowValue)
+                               value := float64(today_value) + tomorrow_value

                                if value > max_value {
                                        max_value = value
                                        max_index = index
                                if value > max_value {
                                        max_value = value
                                        max_index = index


@@ -554,6 +574,9 @@ func FindBestState(data planet_data, dims []int, table []State) int32 {
 }
 
 func Commas(n int32) (s string) {
 }
 
 func Commas(n int32) (s string) {

+       if n < 0 {
+               panic(n)
+       }

        r := n % 1000
        n /= 1000
        for n > 0 {
        r := n % 1000
        n /= 1000
        for n > 0 {


@@ -566,7 +589,10 @@ func Commas(n int32) (s string) {
 }
 
 func DescribePath(data planet_data, dims []int, table []State, start int32) (description []string) {
 }
 
 func DescribePath(data planet_data, dims []int, table []State, start int32) (description []string) {

-       for index := start; index > 0 && table[index].from > 0; index = table[index].from {
+       for index := start; table[index].from > FROM_ROOT; index = table[index].from {
+               if table[index].from == FROM_UNINITIALIZED {
+                       panic(index)
+               }

                var line string
                addr := DecodeIndex(dims, index)
                prev := DecodeIndex(dims, table[index].from)
                var line string
                addr := DecodeIndex(dims, index)
                prev := DecodeIndex(dims, table[index].from)


@@ -675,14 +701,64 @@ func main() {
        data.c2i, data.i2c = IndexCommodities(&data.Commodities, 1)
        dims := DimensionSizes(data)
        table := CreateStateTable(data, dims)
        data.c2i, data.i2c = IndexCommodities(&data.Commodities, 1)
        dims := DimensionSizes(data)
        table := CreateStateTable(data, dims)

-       best := FindBestState(data, dims, table)
+       final_state := FinalState(dims)
+       best := FindBestState(data, dims, table, final_state)

        print("\n")
        if best == -1 {
                print("Cannot acheive success criteria\n")
        print("\n")
        if best == -1 {
                print("Cannot acheive success criteria\n")

-       } else {
-               description := DescribePath(data, dims, table, best)
-               for i := len(description) - 1; i >= 0; i-- {
-                       fmt.Println(description[i])
-               }
+               return
+       }
+       description := DescribePath(data, dims, table, best)
+       for i := len(description) - 1; i >= 0; i-- {
+               fmt.Println(description[i])

        }
        }

+
+       // Ok, that was the important stuff.  Now some fun stuff.
+
+       // Calculate total cost of fighters and shields
+       if *drones > 0 || *batteries > 0 {
+               fmt.Println()
+       }
+       if *drones > 0 {
+               final_state[BuyFighters] = 0
+               alt_best := FindBestState(data, dims, table, final_state)
+               cost := table[alt_best].value - table[best].value
+               fmt.Println("\rDrones were", float64(cost)/float64(*drones), "each")
+               final_state[BuyFighters] = 1
+       }
+       if *batteries > 0 {
+               final_state[BuyShields] = 0
+               alt_best := FindBestState(data, dims, table, final_state)
+               cost := table[alt_best].value - table[best].value
+               fmt.Println("\rBatteries were", float64(cost)/float64(*batteries), "each")
+               final_state[BuyShields] = 1
+       }
+
+       // Use extra eden warps
+       if *end_edens > 0 {
+               fmt.Println()
+       }
+       for extra_edens := 1; extra_edens <= *end_edens; extra_edens++ {
+               final_state[Edens] = *end_edens - extra_edens
+               alt_best := FindBestState(data, dims, table, final_state)
+               extra_funds := table[alt_best].value - table[best].value
+               fmt.Println("\rUse", extra_edens, "extra edens, make an extra",
+                       Commas(extra_funds), "(",
+                       Commas(extra_funds/int32(extra_edens)), "per eden)")
+       }
+       final_state[Edens] = *end_edens
+
+       // Cost of visiting places
+       if dims[Visit] > 1 {
+               fmt.Println()
+       }
+       for i := uint(0); i < uint(len(visit())); i++ {
+               all_bits := dims[Visit] - 1
+               final_state[Visit] = all_bits & ^(1 << i)
+               alt_best := FindBestState(data, dims, table, final_state)
+               cost := table[alt_best].value - table[best].value
+               fmt.Println("\r", Commas(cost), "Cost to visit", visit()[i])
+       }
+       final_state[Visit] = dims[Visit] - 1
+

 }
 }