add command for normalize data recording population not match; adjust closing overhead and keuangan

This commit is contained in:
giovanni
2026-06-07 16:34:22 +07:00
parent 98bfdac3c5
commit edfd6ac95c
3 changed files with 318 additions and 2 deletions
@@ -0,0 +1,266 @@
// Command normalize-recording-cutover-depletion
//
// Data-only normalization of recording population metrics for a cut-over flock
// where pre-cutover mortality (culling + dead) was booked via stock adjustments
// (which do NOT feed the recording population). It applies an "opening depletion"
// offset to the CUMULATIVE depletion of every recording in a project_flock_kandang,
// recomputing the population-dependent metric columns DIRECTLY on the `recordings`
// table.
//
// It does NOT touch recording_depletions, stock_allocations, product_warehouses,
// project_flock_populations, or adjustment_stocks — so inventory/FIFO stay intact
// (the existing adjustments keep owning the stock movement).
//
// Recomputed columns (per recording, ordered by record_datetime,id):
//
// cumDepByDate = running SUM(recording_depletions.qty) up to that recording (INVARIANT)
// new_tcq = initialChickin - cumDepByDate - opening
// cum_depletion_rate = (cumDepByDate + opening) / initialChickin * 100
// feed_intake = feed_intake_old * (old_total_chick_qty / new_tcq) [null->null]
// fcr_value = fcr_value_old * (old_total_chick_qty / new_tcq) [null->null]
//
// cum_intake and egg-based metrics are left untouched (see plan).
//
// Idempotent: only rows where total_chick_qty IS DISTINCT FROM new_tcq are updated.
// Self-check: run with -opening=0; consistent rows are no-ops, any row that changes
// was already inconsistent (stale) and gets reconciled to follow the depletion data.
//
// Usage:
//
// DB_HOST=localhost DB_PORT=5542 go run ./cmd/normalize-recording-cutover-depletion/ -pfk=91 -opening=0 # self-check dry-run
// DB_HOST=localhost DB_PORT=5542 go run ./cmd/normalize-recording-cutover-depletion/ -pfk=91 -opening=3126 # dry-run
// DB_HOST=localhost DB_PORT=5542 go run ./cmd/normalize-recording-cutover-depletion/ -pfk=91 -opening=3126 -apply # apply
package main
import (
"flag"
"fmt"
"log"
"math"
"os"
"text/tabwriter"
"gitlab.com/mbugroup/lti-api.git/internal/config"
"gitlab.com/mbugroup/lti-api.git/internal/database"
"gorm.io/gorm"
)
type recRow struct {
ID uint `gorm:"column:id"`
Day *int `gorm:"column:day"`
RecordDate string `gorm:"column:record_date"`
TotalChickQty *float64 `gorm:"column:total_chick_qty"`
CumDepletionRate *float64 `gorm:"column:cum_depletion_rate"`
FeedIntake *float64 `gorm:"column:feed_intake"`
FcrValue *float64 `gorm:"column:fcr_value"`
CumDepByDate float64 `gorm:"column:cum_dep_by_date"`
}
const eps = 1e-6
func main() {
var (
pfk uint
opening float64
apply bool
chickinOverride float64
)
flag.UintVar(&pfk, "pfk", 0, "project_flock_kandangs_id (required)")
flag.Float64Var(&opening, "opening", 0, "opening depletion qty added to cumulative depletion of every recording")
flag.BoolVar(&apply, "apply", false, "apply changes (default: dry-run)")
flag.Float64Var(&chickinOverride, "chickin", 0, "override initial chickin base (0 = auto SUM project_chickins.usage_qty)")
flag.Parse()
if pfk == 0 {
log.Fatal("-pfk is required")
}
db := database.Connect(config.DBHost, config.DBName)
// 1) initial chickin base
var initialChickin float64
if chickinOverride > 0 {
initialChickin = chickinOverride
} else {
if err := db.Raw(
`SELECT COALESCE(SUM(usage_qty),0) FROM project_chickins WHERE project_flock_kandang_id = ?`, pfk,
).Scan(&initialChickin).Error; err != nil {
log.Fatalf("query initial chickin: %v", err)
}
}
if initialChickin <= 0 {
log.Fatalf("initial chickin <= 0 for pfk %d (got %.3f)", pfk, initialChickin)
}
// 2) sanity: duplicate record_datetime would make cumulative-by-date ambiguous
var dupDatetimes int64
if err := db.Raw(
`SELECT COUNT(*) FROM (
SELECT record_datetime FROM recordings
WHERE project_flock_kandangs_id = ? AND deleted_at IS NULL
GROUP BY record_datetime HAVING COUNT(*) > 1
) t`, pfk,
).Scan(&dupDatetimes).Error; err != nil {
log.Fatalf("check duplicate datetimes: %v", err)
}
if dupDatetimes > 0 {
fmt.Printf("WARNING: %d duplicate record_datetime group(s) for pfk %d — cumulative-by-date ordering may be ambiguous; review carefully.\n\n", dupDatetimes, pfk)
}
// 3) load recordings + running cumulative depletion (by record_datetime, id)
var rows []recRow
q := `
WITH dep AS (
SELECT r.id, r.day, r.record_datetime,
r.total_chick_qty, r.cum_depletion_rate, r.feed_intake, r.fcr_value,
COALESCE((SELECT SUM(rd.qty) FROM recording_depletions rd WHERE rd.recording_id = r.id), 0) AS daily_dep
FROM recordings r
WHERE r.project_flock_kandangs_id = ? AND r.deleted_at IS NULL
)
SELECT id, day,
to_char(record_datetime, 'YYYY-MM-DD') AS record_date,
total_chick_qty, cum_depletion_rate, feed_intake, fcr_value,
SUM(daily_dep) OVER (ORDER BY record_datetime, id) AS cum_dep_by_date
FROM dep
ORDER BY record_datetime, id`
if err := db.Raw(q, pfk).Scan(&rows).Error; err != nil {
log.Fatalf("query recordings: %v", err)
}
if len(rows) == 0 {
log.Fatalf("no recordings found for pfk %d", pfk)
}
mode := "DRY-RUN"
if apply {
mode = "APPLY"
}
fmt.Printf("=== normalize-recording-cutover-depletion ===\n")
fmt.Printf("Mode: %s | pfk=%d | initialChickin=%.3f | opening=%.3f | recordings=%d\n\n", mode, pfk, initialChickin, opening, len(rows))
tw := tabwriter.NewWriter(os.Stdout, 0, 2, 2, ' ', 0)
fmt.Fprintln(tw, "id\tday\tdate\ttcq_old->new\tcumRate_old->new\tfeed_old->new\tfcr_old->new\tstatus")
var willChange, anomalies, skipped int
var negTcq int
for _, r := range rows {
newTcq := initialChickin - r.CumDepByDate - opening
newRate := (r.CumDepByDate + opening) / initialChickin * 100
status := ""
// detect pre-existing inconsistency (stale row): old tcq != invariant base (opening=0 expectation)
expectedBase := initialChickin - r.CumDepByDate
if r.TotalChickQty == nil || math.Abs(*r.TotalChickQty-expectedBase) > 1e-3 {
status = "ANOMALY"
anomalies++
}
if newTcq < -eps {
status = "NEG_TCQ!"
negTcq++
}
// idempotent guard
if r.TotalChickQty != nil && math.Abs(*r.TotalChickQty-newTcq) < 1e-6 {
if status == "" {
status = "noop"
}
skipped++
} else {
willChange++
}
var newFeed, newFcr *float64
if r.FeedIntake != nil && r.TotalChickQty != nil && math.Abs(newTcq) > eps {
v := *r.FeedIntake * (*r.TotalChickQty / newTcq)
newFeed = &v
} else {
newFeed = r.FeedIntake
}
if r.FcrValue != nil && r.TotalChickQty != nil && math.Abs(newTcq) > eps {
v := *r.FcrValue * (*r.TotalChickQty / newTcq)
newFcr = &v
} else {
newFcr = r.FcrValue
}
fmt.Fprintf(tw, "%d\t%s\t%s\t%s -> %.3f\t%s -> %.3f\t%s -> %s\t%s -> %s\t%s\n",
r.ID, iptr(r.Day), r.RecordDate,
fptr(r.TotalChickQty), newTcq,
fptr(r.CumDepletionRate), newRate,
fptr(r.FeedIntake), fptrV(newFeed),
fptr(r.FcrValue), fptrV(newFcr),
status,
)
}
tw.Flush()
fmt.Printf("\nSummary: will_change=%d skipped(noop)=%d anomalies=%d neg_tcq=%d\n", willChange, skipped, anomalies, negTcq)
if negTcq > 0 {
log.Fatalf("ABORT: %d recording(s) would get negative total_chick_qty — opening too large or data issue", negTcq)
}
if !apply {
fmt.Println("\nDry-run only. Re-run with -apply to persist.")
return
}
// 4) APPLY — single set-based UPDATE in a transaction (RHS uses pre-update column values)
err := db.Transaction(func(tx *gorm.DB) error {
res := tx.Exec(`
WITH dep AS (
SELECT r.id, r.record_datetime,
COALESCE((SELECT SUM(rd.qty) FROM recording_depletions rd WHERE rd.recording_id = r.id), 0) AS daily_dep
FROM recordings r
WHERE r.project_flock_kandangs_id = ? AND r.deleted_at IS NULL
),
calc AS (
SELECT id,
(? - cum_dep - ?) AS new_tcq,
((cum_dep + ?) / ? * 100) AS new_rate
FROM (
SELECT id, SUM(daily_dep) OVER (ORDER BY record_datetime, id) AS cum_dep
FROM dep
) s
)
UPDATE recordings r SET
total_chick_qty = c.new_tcq,
cum_depletion_rate = c.new_rate,
feed_intake = CASE WHEN r.feed_intake IS NULL OR r.total_chick_qty IS NULL OR c.new_tcq = 0
THEN r.feed_intake ELSE r.feed_intake * (r.total_chick_qty / c.new_tcq) END,
fcr_value = CASE WHEN r.fcr_value IS NULL OR r.total_chick_qty IS NULL OR c.new_tcq = 0
THEN r.fcr_value ELSE r.fcr_value * (r.total_chick_qty / c.new_tcq) END,
updated_at = NOW()
FROM calc c
WHERE r.id = c.id
AND r.total_chick_qty IS DISTINCT FROM c.new_tcq`,
pfk,
initialChickin, opening,
opening, initialChickin,
)
if res.Error != nil {
return res.Error
}
fmt.Printf("\nAPPLIED: %d recording row(s) updated.\n", res.RowsAffected)
return nil
})
if err != nil {
log.Fatalf("apply failed: %v", err)
}
fmt.Println("Done. Verify with the queries in tmp/pfk91-cutover-fix.md.")
}
func fptr(p *float64) string {
if p == nil {
return "null"
}
return fmt.Sprintf("%.3f", *p)
}
func fptrV(p *float64) string { return fptr(p) }
func iptr(p *int) string {
if p == nil {
return "-"
}
return fmt.Sprintf("%d", *p)
}
@@ -789,11 +789,56 @@ func (s closingService) GetOverhead(c *fiber.Ctx, projectFlockID uint, projectFl
totalActualPopulation := totalChickinQty - totalDepletion totalActualPopulation := totalChickinQty - totalDepletion
// Prefer recording-based population (recordings.total_chick_qty) so closing stays
// consistent with normalized cut-over flocks. For normal flocks this equals
// chickin - depletion (no-op); it only differs when the recording population was
// normalized separately from recording_depletions. Falls back if any kandang in
// scope lacks a recording.
scopeKandangs := projectFlockKandangs
if projectFlockKandangID != nil {
scopeKandangs = nil
for _, k := range projectFlockKandangs {
if k.Id == *projectFlockKandangID {
scopeKandangs = append(scopeKandangs, k)
break
}
}
}
if recPop, ok := s.actualPopulationFromRecordings(c.Context(), scopeKandangs); ok {
totalActualPopulation = recPop
}
result := dto.ToOverheadListDTOs(budgets, realizations, totalChickinQty, totalActualPopulation, projectFlockKandangID != nil, totalKandangCount) result := dto.ToOverheadListDTOs(budgets, realizations, totalChickinQty, totalActualPopulation, projectFlockKandangID != nil, totalKandangCount)
return &result, nil return &result, nil
} }
// actualPopulationFromRecordings sums the latest recordings.total_chick_qty across the
// given kandangs (the production population source of truth). Returns ok=false if any
// kandang lacks a recording, so the caller falls back to chickin-minus-depletion.
// For normal flocks this equals chickin - depletion; it only differs for cut-over flocks
// whose recording population was normalized separately from recording_depletions.
func (s closingService) actualPopulationFromRecordings(ctx context.Context, kandangs []entity.ProjectFlockKandang) (float64, bool) {
if s.RecordingRepo == nil || len(kandangs) == 0 {
return 0, false
}
total := 0.0
for _, k := range kandangs {
latest, err := s.RecordingRepo.GetLatestByProjectFlockKandangID(ctx, k.Id)
if err != nil {
s.Log.Warnf("actualPopulationFromRecordings: latest recording pfk=%d: %v", k.Id, err)
return 0, false
}
if latest == nil || latest.TotalChickQty == nil {
return 0, false
}
if *latest.TotalChickQty > 0 {
total += *latest.TotalChickQty
}
}
return total, true
}
type activeKandangMetricRow struct { type activeKandangMetricRow struct {
ProjectFlockKandangID uint `gorm:"column:project_flock_kandang_id"` ProjectFlockKandangID uint `gorm:"column:project_flock_kandang_id"`
ProjectFlockID uint `gorm:"column:project_flock_id"` ProjectFlockID uint `gorm:"column:project_flock_id"`
@@ -156,7 +156,7 @@ func (s closingKeuanganService) calculateClosingKeuangan(c *fiber.Ctx, projectFl
hppSection := s.buildHPPSection(c, projectFlock, projectFlockKandangs, costs, productionData) hppSection := s.buildHPPSection(c, projectFlock, projectFlockKandangs, costs, productionData)
profitLossSection := s.buildProfitLossSection(projectFlock, costs, productionData) profitLossSection := s.buildProfitLossSection(c, projectFlock, projectFlockKandangs, costs, productionData)
data := dto.ToClosingKeuanganData(hppSection, profitLossSection) data := dto.ToClosingKeuanganData(hppSection, profitLossSection)
return &data, nil return &data, nil
@@ -386,7 +386,7 @@ func (s closingKeuanganService) buildHPPSection(c *fiber.Ctx, projectFlock *enti
return dto.ToHPPSection(hppItems, hppSummary) return dto.ToHPPSection(hppItems, hppSummary)
} }
func (s closingKeuanganService) buildProfitLossSection(projectFlock *entity.ProjectFlock, costs *CostData, production *ProductionData) dto.ProfitLossSection { func (s closingKeuanganService) buildProfitLossSection(c *fiber.Ctx, projectFlock *entity.ProjectFlock, projectFlockKandangs []entity.ProjectFlockKandang, costs *CostData, production *ProductionData) dto.ProfitLossSection {
totalWeightProduced := production.TotalWeightProduced totalWeightProduced := production.TotalWeightProduced
totalEggWeightKg := production.TotalEggWeightKg totalEggWeightKg := production.TotalEggWeightKg
@@ -394,6 +394,11 @@ func (s closingKeuanganService) buildProfitLossSection(projectFlock *entity.Proj
totalWeightSold := production.TotalWeightSold totalWeightSold := production.TotalWeightSold
totalBirdSold := production.TotalBirdSold totalBirdSold := production.TotalBirdSold
actualPopulation := production.TotalPopulationIn - production.TotalDepletion actualPopulation := production.TotalPopulationIn - production.TotalDepletion
// Prefer recording-based population (consistent with buildHPPSection) so per-ekor
// P&L matches the normalized recording population for cut-over flocks.
if lastPopulation, ok := s.getLastPopulationFromRecordings(c, projectFlockKandangs); ok {
actualPopulation = lastPopulation
}
isLaying := projectFlock.Category == string(utils.ProjectFlockCategoryLaying) isLaying := projectFlock.Category == string(utils.ProjectFlockCategoryLaying)