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Janady13/missionmatch / internal/aioe/simulate.go

Source identity, revision, and recovered contents.

GitHub sourceSource text recovered

Source identity

FieldRecorded value
Source typeGitHub source
Original recordJanady13/missionmatch / internal/aioe/simulate.go
DateNot specified in source
RepositoryJanady13/missionmatch
Revision720d47fae476b0d38477ae4401697d372b1ea2bc
Branchfeature/opportunity-to-outcome
Path or archive memberinternal/aioe/simulate.go
Original SHA-2569ad8d046e7e9f350e61a3cb3a544fbbe369a6743a4996919ab927c5514b768b6
Git blob SHAdc8f19891dc6f8f659d9dfdb69efd6c42b2293dc
Reading-copy SHA-2569ad8d046e7e9f350e61a3cb3a544fbbe369a6743a4996919ab927c5514b768b6

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Every recorded occurrence

These 2 records contain identical original source bytes. Their paths and revisions remain part of the archive.

Original recordBranch or archiveRevision / identifierOriginal location
Janady13/missionmatch / internal/aioe/simulate.gofeature/opportunity-to-outcome720d47fae476b0d38477ae4401697d372b1ea2bcOpen original
Janady13/missionmatch / internal/aioe/simulate.gofeature/aioe-upgrade2178e7298d0e5d9af83afa12402fd587f0ba6ed8Open original

Recovered source transcript

package aioe import ( "fmt" "sort" "strings" "github.com/shopspring/decimal" ) // Simulation characterizes the deterministic updater's behavior under a named outcome regime, over // many cycles, WITHOUT any database or client data. It is a calibration and documentation harness: // it proves the update converges sensibly, respects its clamps, and never runs away, and it produces // a report for the AEDT model card. It does NOT produce shipped weights: the point is behavior // characterization under a KNOWN synthetic oracle, not learning from fabricated outcomes. type Simulation struct { Regime string Cycles int Params Params Start map[string]decimal.Decimal End map[string]decimal.Decimal MaxSeen map[string]decimal.Decimal MinSeen map[string]decimal.Decimal // SumAlways1 is true when every cycle's weights summed to exactly 1.0000. SumAlways1 bool // ClampsHeld is true when no dimension ever left [Floor, Ceiling]. ClampsHeld bool // Converged is true when the last 5 cycles moved every dimension by less than 0.0005. Converged bool } // Regime generates the synthetic events for one cycle. It is the ORACLE: the simulation only ever // recovers the correlations the regime encodes, which is exactly why simulated weights are a // validation artifact and never a shipped model. type Regime struct { Name string Gen func(n int) []Event } // StandardRegimes are the characterization set: a dimension the outcomes reward, one they penalize, // pure noise (must not move weights meaningfully), and an adversarial flip (alternating strong // signals, the updater must stay bounded and not oscillate out of clamps). func StandardRegimes() []Regime { scored := func(vals map[string]string) map[string]decimal.Decimal { out := make(map[string]decimal.Decimal, len(vals)) for k, v := range vals { out[k] = decimal.RequireFromString(v) } return out } base := map[string]string{ "clearance": "80", "skills": "80", "certifications": "80", "customer_experience": "80", "experience": "80", "location": "80", } withHigh := func(dim string) map[string]decimal.Decimal { m := map[string]string{} for k, v := range base { m[k] = v } m[dim] = "98" return scored(m) } return []Regime{ { Name: "rewards-skills", Gen: func(n int) []Event { out := make([]Event, n) for i := range out { out[i] = Event{Signal: decimal.NewFromInt(1), DimScores: withHigh("skills")} } return out }, }, { Name: "penalizes-location", Gen: func(n int) []Event { out := make([]Event, n) for i := range out { // positive outcomes where location scored LOW: location matters less. m := scored(base) m["location"] = decimal.NewFromInt(10) out[i] = Event{Signal: decimal.NewFromInt(1), DimScores: m} } return out }, }, { Name: "pure-noise", Gen: func(n int) []Event { out := make([]Event, n) for i := range out { sig := decimal.NewFromInt(1) if i%2 == 0 { sig = decimal.NewFromInt(-1) } out[i] = Event{Signal: sig, DimScores: scored(base)} } return out }, }, { Name: "adversarial-flip", Gen: func(n int) []Event { out := make([]Event, n) for i := range out { // alternate which dimension is rewarded, strongly, every event. dim := "skills" if i%2 == 0 { dim = "location" } out[i] = Event{Signal: decimal.NewFromInt(1), DimScores: withHigh(dim)} } return out }, }, } } // Simulate runs one regime for the given cycles from the default weights and returns the // characterization. Deterministic: the same regime and params always produce the same report. func Simulate(r Regime, cycles, eventsPerCycle int, p Params) Simulation { w := DefaultWeightsMap() start := cloneMap(w) maxSeen, minSeen := cloneMap(w), cloneMap(w) sim := Simulation{ Regime: r.Name, Cycles: cycles, Params: p, Start: start, SumAlways1: true, ClampsHeld: true, } var history []map[string]decimal.Decimal for c := 0; c < cycles; c++ { next, _, _ := ComputeUpdate(w, r.Gen(eventsPerCycle), p) sum := decimal.Zero for _, d := range Dimensions { sum = sum.Add(next[d]) if next[d].GreaterThan(maxSeen[d]) { maxSeen[d] = next[d] } if next[d].LessThan(minSeen[d]) { minSeen[d] = next[d] } if next[d].LessThan(p.Floor) || next[d].GreaterThan(p.Ceiling) { sim.ClampsHeld = false } } if !sum.Equal(decimal.NewFromInt(1)) { sim.SumAlways1 = false } history = append(history, cloneMap(next)) w = next } sim.End = cloneMap(w) sim.MaxSeen, sim.MinSeen = maxSeen, minSeen sim.Converged = converged(history) return sim } // converged reports whether the last 5 cycles each moved every dimension by under 0.0005. func converged(history []map[string]decimal.Decimal) bool { if len(history) < 6 { return false } tol := decimal.RequireFromString("0.0005") for i := len(history) - 5; i < len(history); i++ { for _, d := range Dimensions { if history[i][d].Sub(history[i-1][d]).Abs().GreaterThan(tol) { return false } } } return true } // Report renders a stable, human readable summary for the model card. func (s Simulation) Report() string { var b strings.Builder fmt.Fprintf(&b, "regime=%s cycles=%d sum_always_1=%v clamps_held=%v converged=%v\n", s.Regime, s.Cycles, s.SumAlways1, s.ClampsHeld, s.Converged) for _, d := range Dimensions { fmt.Fprintf(&b, " %-20s %s -> %s (min %s max %s)\n", d, s.Start[d].StringFixed(4), s.End[d].StringFixed(4), s.MinSeen[d].StringFixed(4), s.MaxSeen[d].StringFixed(4)) } return b.String() } func cloneMap(m map[string]decimal.Decimal) map[string]decimal.Decimal { out := make(map[string]decimal.Decimal, len(m)) for _, d := range Dimensions { out[d] = m[d] } return out } // SortedDimensions returns the canonical dimensions (a helper for report consumers that want a // stable order without importing the package internals). func SortedDimensions() []string { out := append([]string(nil), Dimensions...) sort.Strings(out) return out }

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