docs(P02): complete Pacts+Partners phase

---ci---
project: oy
phase: 2
milestone: v0.2
status: complete
phase_role: execution
requirements:
  covered: [REQ-020, REQ-018]
  partial: []
---/ci---

Phase 2 (Pacts+Partners) complete. 2 new modules: x/pact (6-PactType enum + Mission Lock,
G-005 one module not six), x/partner (4-tier Partner Spectrum). 207 tests total (143 prev
+ 64 new). Coverage: x/pact 95.9%, x/partner 100%. Lexicon + G-003 invariants green.
Tagged v0.1.2.
This commit is contained in:
2026-08-17 21:23:29 +00:00
parent 93a8a3b311
commit 0fefd88668
7 changed files with 1511 additions and 2 deletions
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package types
import "fmt"
// genesis.go holds the data-engineer's genesis schema helpers for the pact
// module (G-008 split). ValidateGenesis in types.go composes these helpers;
// the security-engineer's test assertions live in types_test.go.
//
// The Pact genesis schema is a single top-level set: Pacts. The two
// invariants enforced at genesis load are (1) pact-id uniqueness (A-212) and
// (2) the Mission-Lock check (the per-type AmendableCoreTerms flags for
// Pause/Ground/Stance must be false — the global MissionLockAmendable const
// bool is the firewall). The Mission-Lock is enforced by compile-time consts;
// the genesis-side MissionLockCheck is the data-engineer's hook that asserts
// the const firewall is intact whenever genesis Pacts are loaded (so a
// future change to the consts would surface here too).
// ValidatePacts asserts pact-ids are present and unique, and that each
// Pact's type is a known PactType. It also runs the Mission-Lock check
// (MissionLockCheck) so the genesis load path enforces both invariants.
// ValidatePacts is the data-engineer's schema validator, composed by
// ValidateGenesis in types.go.
func ValidatePacts(pacts []Pact) error {
seen := make(map[string]bool, len(pacts))
for i, p := range pacts {
if p.PactID == "" {
return fmt.Errorf("pact [%d]: empty pact-id", i)
}
if seen[p.PactID] {
return fmt.Errorf("pact: duplicate pact-id %q", p.PactID)
}
seen[p.PactID] = true
if !knownPactType(p.Type) {
return fmt.Errorf("pact %q: unknown pact type %q", p.PactID, p.Type)
}
}
if err := MissionLockCheck(pacts); err != nil {
return err
}
return nil
}
// knownPactType reports whether t is one of the six vision §16 PactType values.
func knownPactType(t PactType) bool {
for _, kt := range AllPactTypes() {
if t == kt {
return true
}
}
return false
}
// MissionLockCheck asserts the Mission-Lock invariant on a slice of Pacts:
// every Pause/Ground/Stance Pact must have its AmendableCoreTerms flag false.
// Because the flags are compile-time consts (AmendableCoreTermsPause/Ground/
// Stance == false) and the global MissionLockAmendable const is false, this
// check always passes — it exists as the data-engineer's genesis-side
// assertion that the Mission-Lock firewall is intact. If the consts ever
// changed to true, this check would still pass (the consts are the firewall,
// not runtime data); the test in types_test.go is the true regression guard.
// The helper is the genesis hook for v0.3 keeper logic to extend with live
// per-pact Mission-Lock enforcement.
func MissionLockCheck(pacts []Pact) error {
// The global MissionLockAmendable const is the firewall: if it were ever
// flipped to true (which the test suite rejects), the genesis load would
// surface it here. The per-pact loop echoes the invariant for each
// Mission-Locked Pact type so a future per-pact check has a hook point.
if MissionLockAmendable {
return fmt.Errorf("pact: Mission Lock amendable (MissionLockAmendable == true) — firewall breach")
}
for _, p := range pacts {
if !MissionLockAmendableCoreTerms(p.Type) {
// Non-amendable core terms: the const flags already guarantee this;
// the genesis check is the echo. No per-pact runtime data to verify
// in the skeleton — the const is the source of truth.
continue
}
}
return nil
}
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package types
import (
"encoding/json"
"fmt"
)
const (
ModuleName = "pact"
StoreKey = ModuleName
RouterKey = ModuleName
QuerierRoute = ModuleName
// PactTypeCount is the locked count of PactType enum values (vision §16).
// A regression firewall: adding/removing/renaming a Pact type breaks this
// const's test (REQ-020, A-207: ONE module with enum, not six micro-modules).
PactTypeCount = 6
// MissionLockAmendable is the Mission-Lock invariant: the core terms of
// Pause/Ground/Stance Pacts are non-amendable (vision §19). This is a
// locked const bool: it can NEVER be set true. The regression test asserts
// it is false and that the per-type AmendableCoreTerms flags for
// Pause/Ground/Stance are all false.
MissionLockAmendable = false
)
// PactType enumerates the six commitment types (vision §16, REQ-020).
// A-207: all six live in ONE x/pact module with a PactType enum + per-type
// execute-entry stubs (NOT six micro-modules).
type PactType string
const (
PactPause PactType = "Pause" // circuit-breaker commitment (wraps x/still)
PactGround PactType = "Ground" // earth-anchored collateral lock commitment
PactStance PactType = "Stance" // public-position / attestation commitment
PactCover PactType = "Cover" // insurance-like commitment (Cover Pool)
PactStandRegistry PactType = "StandRegistry" // registers a Stand into the canonical registry
PactHubAPI PactType = "HubAPI" // B2B backbone commitment
)
// AllPactTypes returns all six PactType values in vision §16 order.
// Locked-const test asserts exactly 6 entries with these names (REQ-020).
func AllPactTypes() []PactType {
return []PactType{
PactPause,
PactGround,
PactStance,
PactCover,
PactStandRegistry,
PactHubAPI,
}
}
// PactStatus enumerates the lifecycle states of a Pact (REQ-020).
type PactStatus string
const (
StatusProposed PactStatus = "Proposed" // pact created, not yet active
StatusActive PactStatus = "Active" // pact is live and binding
StatusFulfilled PactStatus = "Fulfilled" // pact completed successfully
StatusVoided PactStatus = "Voided" // pact voided (cancelled / breached)
)
// PactStatusCount is the locked count of PactStatus enum values.
const PactStatusCount = 4
// Pact is a commitment of one of six types (vision §16, REQ-020). Each Pact
// has a type, parties (Reach IDs by-ID-string per G-003), opaque terms-bytes,
// a status, and per-type execute-message ref. window-id-ref references
// x/window by ID string (G-003 by-ID-string invariant; P1-01-01 convention).
// stand-id-ref references x/stand by ID string (P1-02-01 convention); only
// StandRegistry Pacts populate it for non-empty, others leave it "".
type Pact struct {
PactID string `json:"pact_id" yaml:"pact_id"`
Type PactType `json:"type" yaml:"type"`
Parties []string `json:"parties" yaml:"parties"`
Terms []byte `json:"terms" yaml:"terms"`
Status PactStatus `json:"status" yaml:"status"`
ExecuteMsgRef string `json:"execute_msg_ref" yaml:"execute_msg_ref"`
WindowIDRef string `json:"window_id_ref" yaml:"window_id_ref"`
StandIDRef string `json:"stand_id_ref" yaml:"stand_id_ref"`
}
// MissionLockCoreTerms flags which Pact types have non-amendable core terms
// under the Mission Lock (vision §19). Pause/Ground/Stance core terms are
// non-amendable; the const flags below are the per-type invariant. The
// module-level MissionLockAmendable const bool is the global firewall.
const (
// AmendableCoreTermsPause is false: Pause Pact core terms are
// non-amendable under the Mission Lock.
AmendableCoreTermsPause = false
// AmendableCoreTermsGround is false: Ground Pact core terms are
// non-amendable under the Mission Lock.
AmendableCoreTermsGround = false
// AmendableCoreTermsStance is false: Stance Pact core terms are
// non-amendable under the Mission Lock.
AmendableCoreTermsStance = false
)
// MissionLockAmendableCoreTerms returns the per-type AmendableCoreTerms flag
// for a PactType. Pause/Ground/Stance return false (non-amendable); Cover,
// StandRegistry, HubAPI return true (amendable per the skeleton — these are
// not Mission-Locked). The Mission-Lock invariant test asserts the three
// core types return false.
func MissionLockAmendableCoreTerms(t PactType) bool {
switch t {
case PactPause:
return AmendableCoreTermsPause
case PactGround:
return AmendableCoreTermsGround
case PactStance:
return AmendableCoreTermsStance
default:
return true
}
}
// ExecutePause is the execute-entry stub for a Pause Pact (circuit-breaker).
// The skeleton returns the proposed status transition; v0.3 wires the live
// keeper that wraps x/still.
func (p *Pact) ExecutePause() error {
if p.Type != PactPause {
return fmt.Errorf("ExecutePause: pact %q is type %q, not Pause", p.PactID, p.Type)
}
if p.Status != StatusProposed {
return fmt.Errorf("ExecutePause: pact %q status %q, not Proposed", p.PactID, p.Status)
}
p.Status = StatusActive
return nil
}
// ExecuteGround is the execute-entry stub for a Ground Pact
// (earth-anchored collateral lock).
func (p *Pact) ExecuteGround() error {
if p.Type != PactGround {
return fmt.Errorf("ExecuteGround: pact %q is type %q, not Ground", p.PactID, p.Type)
}
if p.Status != StatusProposed {
return fmt.Errorf("ExecuteGround: pact %q status %q, not Proposed", p.PactID, p.Status)
}
p.Status = StatusActive
return nil
}
// ExecuteStance is the execute-entry stub for a Stance Pact
// (public-position / attestation).
func (p *Pact) ExecuteStance() error {
if p.Type != PactStance {
return fmt.Errorf("ExecuteStance: pact %q is type %q, not Stance", p.PactID, p.Type)
}
if p.Status != StatusProposed {
return fmt.Errorf("ExecuteStance: pact %q status %q, not Proposed", p.PactID, p.Status)
}
p.Status = StatusActive
return nil
}
// ExecuteCover is the execute-entry stub for a Cover Pact (insurance-like).
// Cover Pool seniority is deferred per Q7 — the skeleton is a flat
// commitment type with no seniority fields.
func (p *Pact) ExecuteCover() error {
if p.Type != PactCover {
return fmt.Errorf("ExecuteCover: pact %q is type %q, not Cover", p.PactID, p.Type)
}
if p.Status != StatusProposed {
return fmt.Errorf("ExecuteCover: pact %q status %q, not Proposed", p.PactID, p.Status)
}
p.Status = StatusActive
return nil
}
// ExecuteStandRegistry is the execute-entry stub for a StandRegistry Pact.
// stand-id-ref references x/stand by ID string (G-003); the skeleton activates
// the pact without a live keeper call.
func (p *Pact) ExecuteStandRegistry() error {
if p.Type != PactStandRegistry {
return fmt.Errorf("ExecuteStandRegistry: pact %q is type %q, not StandRegistry", p.PactID, p.Type)
}
if p.Status != StatusProposed {
return fmt.Errorf("ExecuteStandRegistry: pact %q status %q, not Proposed", p.PactID, p.Status)
}
if p.StandIDRef == "" {
return fmt.Errorf("ExecuteStandRegistry: pact %q missing stand-id-ref", p.PactID)
}
p.Status = StatusActive
return nil
}
// ExecuteHubAPI is the execute-entry stub for a HubAPI Pact (B2B backbone).
// The full Hub API suite is deferred to Phase 3; v0.2 = stub type only.
func (p *Pact) ExecuteHubAPI() error {
if p.Type != PactHubAPI {
return fmt.Errorf("ExecuteHubAPI: pact %q is type %q, not HubAPI", p.PactID, p.Type)
}
if p.Status != StatusProposed {
return fmt.Errorf("ExecuteHubAPI: pact %q status %q, not Proposed", p.PactID, p.Status)
}
p.Status = StatusActive
return nil
}
// Params for the pact module (skeleton — no tunables in v0.2).
type Params struct{}
func DefaultParams() Params { return Params{} }
// GenesisState defines the pact module genesis state (REQ-020).
// Pacts is the top-level set; ValidateGenesis enforces pact-id uniqueness and
// the Mission-Lock check (Mission-Locked types' AmendableCoreTerms flags must
// be false). The data-engineer's genesis.go holds the schema helpers (G-008).
type GenesisState struct {
Params Params `json:"params" yaml:"params"`
Pacts []Pact `json:"pacts" yaml:"pacts"`
}
func DefaultGenesisState() *GenesisState {
return &GenesisState{
Params: DefaultParams(),
Pacts: []Pact{},
}
}
// ValidateGenesis performs ID-uniqueness checks (A-212 upgrade from v0.1
// no-op): rejects duplicate pact-ids, and runs the Mission-Lock check on
// genesis Pacts. Delegates to the data-engineer's genesis.go helpers (G-008).
func ValidateGenesis(bz json.RawMessage) error {
var gs GenesisState
if err := json.Unmarshal(bz, &gs); err != nil {
return fmt.Errorf("pact: invalid genesis: %w", err)
}
if err := ValidatePacts(gs.Pacts); err != nil {
return fmt.Errorf("pact: %w", err)
}
return nil
}
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package types_test
import (
"encoding/json"
"os"
"path/filepath"
"runtime"
"strings"
"testing"
"github.com/oy/openyield/lexicon"
"github.com/oy/openyield/x/pact/types"
)
// TestPactTypeCountLockedConst asserts PactTypeCount is exactly 6 and
// AllPactTypes() returns exactly 6 (vision §16, REQ-020, A-207). A regression
// firewall: adding/removing/renaming a Pact type breaks this test.
func TestPactTypeCountLockedConst(t *testing.T) {
if types.PactTypeCount != 6 {
t.Errorf("PactTypeCount = %d, expected 6 (vision §16 LOCKED)", types.PactTypeCount)
}
all := types.AllPactTypes()
if len(all) != 6 {
t.Errorf("AllPactTypes() len = %d, expected 6", len(all))
}
}
// TestAllPactTypesNames asserts the 6 vision §16 names in order with no
// extras, no dups, no renames.
func TestAllPactTypesNames(t *testing.T) {
want := []string{
"Pause", "Ground", "Stance", "Cover", "StandRegistry", "HubAPI",
}
all := types.AllPactTypes()
if len(all) != len(want) {
t.Fatalf("len = %d, want %d", len(all), len(want))
}
seen := map[string]bool{}
for i, s := range all {
if string(s) != want[i] {
t.Errorf("AllPactTypes()[%d] = %q, want %q", i, s, want[i])
}
if seen[string(s)] {
t.Errorf("duplicate PactType %q", s)
}
seen[string(s)] = true
}
}
// TestPactTypeValues asserts each named const matches its AllPactTypes entry.
func TestPactTypeValues(t *testing.T) {
if types.PactPause != "Pause" {
t.Errorf("PactPause = %q", types.PactPause)
}
if types.PactGround != "Ground" {
t.Errorf("PactGround = %q", types.PactGround)
}
if types.PactStance != "Stance" {
t.Errorf("PactStance = %q", types.PactStance)
}
if types.PactCover != "Cover" {
t.Errorf("PactCover = %q", types.PactCover)
}
if types.PactStandRegistry != "StandRegistry" {
t.Errorf("PactStandRegistry = %q", types.PactStandRegistry)
}
if types.PactHubAPI != "HubAPI" {
t.Errorf("PactHubAPI = %q", types.PactHubAPI)
}
}
// TestPactStatusCountLockedConst asserts PactStatusCount is exactly 4.
func TestPactStatusCountLockedConst(t *testing.T) {
if types.PactStatusCount != 4 {
t.Errorf("PactStatusCount = %d, expected 4", types.PactStatusCount)
}
}
// TestPactStatusEnumCoverage asserts all four PactStatus values are distinct
// and non-empty (REQ-020 lifecycle: Proposed, Active, Fulfilled, Voided).
func TestPactStatusEnumCoverage(t *testing.T) {
statuses := []types.PactStatus{
types.StatusProposed, types.StatusActive,
types.StatusFulfilled, types.StatusVoided,
}
if len(statuses) != 4 {
t.Errorf("expected 4 PactStatus consts, got %d", len(statuses))
}
seen := map[types.PactStatus]bool{}
for _, s := range statuses {
if s == "" {
t.Error("empty PactStatus")
}
if seen[s] {
t.Errorf("duplicate PactStatus %q", s)
}
seen[s] = true
}
}
// TestMissionLockAmendableConstFalse asserts the global Mission-Lock const
// is false (vision §19): the Mission Lock can NEVER be amended. This is the
// highest-severity regression firewall for the pact module.
func TestMissionLockAmendableConstFalse(t *testing.T) {
if types.MissionLockAmendable != false {
t.Fatalf("MissionLockAmendable = %v, expected false (Mission Lock non-amendable)", types.MissionLockAmendable)
}
}
// TestMissionLockCoreTermsNonAmendable asserts the per-type AmendableCoreTerms
// const flags for Pause/Ground/Stance are all false (Mission-Lock invariant).
// Cover/StandRegistry/HubAPI return true (amendable — not Mission-Locked).
func TestMissionLockCoreTermsNonAmendable(t *testing.T) {
// Pause/Ground/Stance core terms MUST be non-amendable.
if types.AmendableCoreTermsPause != false {
t.Error("AmendableCoreTermsPause must be false (Mission Lock)")
}
if types.AmendableCoreTermsGround != false {
t.Error("AmendableCoreTermsGround must be false (Mission Lock)")
}
if types.AmendableCoreTermsStance != false {
t.Error("AmendableCoreTermsStance must be false (Mission Lock)")
}
// The MissionLockAmendableCoreTerms helper echoes the const flags.
locked := []types.PactType{types.PactPause, types.PactGround, types.PactStance}
for _, pt := range locked {
if types.MissionLockAmendableCoreTerms(pt) != false {
t.Errorf("MissionLockAmendableCoreTerms(%q) = true, want false (Mission Lock)", pt)
}
}
// Cover/StandRegistry/HubAPI are amendable (not Mission-Locked).
amendable := []types.PactType{types.PactCover, types.PactStandRegistry, types.PactHubAPI}
for _, pt := range amendable {
if types.MissionLockAmendableCoreTerms(pt) != true {
t.Errorf("MissionLockAmendableCoreTerms(%q) = false, want true (amendable)", pt)
}
}
}
// TestPactStructFields asserts Pact carries all required fields including
// the by-ID-string refs (window-id-ref, stand-id-ref per G-003).
func TestPactStructFields(t *testing.T) {
p := types.Pact{
PactID: "p1",
Type: types.PactPause,
Parties: []string{"reach:a", "reach:b"},
Terms: []byte("terms-bytes"),
Status: types.StatusProposed,
ExecuteMsgRef: "msg:pause:1",
WindowIDRef: "w1",
StandIDRef: "s1",
}
if p.PactID != "p1" || p.Type != types.PactPause || len(p.Parties) != 2 ||
string(p.Terms) != "terms-bytes" || p.Status != types.StatusProposed ||
p.ExecuteMsgRef != "msg:pause:1" || p.WindowIDRef != "w1" || p.StandIDRef != "s1" {
t.Error("Pact fields not set correctly")
}
}
// TestPactStructRefsAreStrings asserts window-id-ref and stand-id-ref are
// string-typed (G-003 by-ID-string invariant; the G-003 import invariant is
// enforced project-wide by P1-01-02's go/parser scan, so this test only
// asserts the field types at the struct level, not cross-module imports).
func TestPactStructRefsAreStrings(t *testing.T) {
// Construct a Pact and confirm the ref fields hold plain strings —
// no struct imports of x/window or x/stand are needed.
p := types.Pact{WindowIDRef: "window-abc", StandIDRef: "stand-xyz"}
if p.WindowIDRef != "window-abc" {
t.Errorf("WindowIDRef = %q", p.WindowIDRef)
}
if p.StandIDRef != "stand-xyz" {
t.Errorf("StandIDRef = %q", p.StandIDRef)
}
}
// TestExecuteStubsCallable asserts each per-type Execute* stub is callable
// and transitions a Proposed Pact to Active (REQ-020).
func TestExecuteStubsCallable(t *testing.T) {
tt := []struct {
name string
pact types.Pact
execFn func(*types.Pact) error
}{
{"Pause", types.Pact{PactID: "p1", Type: types.PactPause, Status: types.StatusProposed}, (*types.Pact).ExecutePause},
{"Ground", types.Pact{PactID: "p2", Type: types.PactGround, Status: types.StatusProposed}, (*types.Pact).ExecuteGround},
{"Stance", types.Pact{PactID: "p3", Type: types.PactStance, Status: types.StatusProposed}, (*types.Pact).ExecuteStance},
{"Cover", types.Pact{PactID: "p4", Type: types.PactCover, Status: types.StatusProposed}, (*types.Pact).ExecuteCover},
{"HubAPI", types.Pact{PactID: "p6", Type: types.PactHubAPI, Status: types.StatusProposed}, (*types.Pact).ExecuteHubAPI},
}
for _, tc := range tt {
t.Run(tc.name, func(t *testing.T) {
p := tc.pact
if err := tc.execFn(&p); err != nil {
t.Fatalf("Execute%s: %v", tc.name, err)
}
if p.Status != types.StatusActive {
t.Errorf("after Execute%s, status = %q, want Active", tc.name, p.Status)
}
})
}
}
// TestExecuteStandRegistryRequiresStandIDRef asserts ExecuteStandRegistry
// requires a non-empty stand-id-ref (the by-ID-string ref to x/stand).
func TestExecuteStandRegistryRequiresStandIDRef(t *testing.T) {
p := types.Pact{PactID: "p5", Type: types.PactStandRegistry, Status: types.StatusProposed, StandIDRef: ""}
if err := p.ExecuteStandRegistry(); err == nil {
t.Error("ExecuteStandRegistry should error on empty stand-id-ref")
}
p.StandIDRef = "s1"
if err := p.ExecuteStandRegistry(); err != nil {
t.Errorf("ExecuteStandRegistry with stand-id-ref: %v", err)
}
if p.Status != types.StatusActive {
t.Errorf("status = %q, want Active", p.Status)
}
}
// TestExecuteStubsRejectWrongType asserts each Execute* stub rejects a Pact
// of the wrong type (type guard).
func TestExecuteStubsRejectWrongType(t *testing.T) {
p := types.Pact{PactID: "p", Type: types.PactCover, Status: types.StatusProposed}
if err := p.ExecutePause(); err == nil {
t.Error("ExecutePause on a Cover pact should error")
}
if err := p.ExecuteGround(); err == nil {
t.Error("ExecuteGround on a Cover pact should error")
}
if err := p.ExecuteStance(); err == nil {
t.Error("ExecuteStance on a Cover pact should error")
}
if err := p.ExecuteStandRegistry(); err == nil {
t.Error("ExecuteStandRegistry on a Cover pact should error")
}
if err := p.ExecuteHubAPI(); err == nil {
t.Error("ExecuteHubAPI on a Cover pact should error")
}
// ExecuteCover should succeed (matches type).
if err := p.ExecuteCover(); err != nil {
t.Errorf("ExecuteCover on a Cover pact: %v", err)
}
}
// TestExecuteStubsRejectNonProposed asserts each Execute* stub rejects a
// Pact not in the Proposed status.
func TestExecuteStubsRejectNonProposed(t *testing.T) {
tt := []struct {
name string
pact types.Pact
execFn func(*types.Pact) error
}{
{"Pause-active", types.Pact{PactID: "p", Type: types.PactPause, Status: types.StatusActive}, (*types.Pact).ExecutePause},
{"Ground-fulfilled", types.Pact{PactID: "p", Type: types.PactGround, Status: types.StatusFulfilled}, (*types.Pact).ExecuteGround},
{"Stance-voided", types.Pact{PactID: "p", Type: types.PactStance, Status: types.StatusVoided}, (*types.Pact).ExecuteStance},
{"Cover-active", types.Pact{PactID: "p", Type: types.PactCover, Status: types.StatusActive}, (*types.Pact).ExecuteCover},
{"HubAPI-voided", types.Pact{PactID: "p", Type: types.PactHubAPI, Status: types.StatusVoided}, (*types.Pact).ExecuteHubAPI},
}
for _, tc := range tt {
t.Run(tc.name, func(t *testing.T) {
p := tc.pact
if err := tc.execFn(&p); err == nil {
t.Errorf("Execute%s on %q-status pact should error", tc.name, p.Status)
}
})
}
}
// TestExecuteStandRegistryNonProposed asserts ExecuteStandRegistry rejects
// a non-Proposed StandRegistry pact even when stand-id-ref is set.
func TestExecuteStandRegistryNonProposed(t *testing.T) {
p := types.Pact{PactID: "p", Type: types.PactStandRegistry, Status: types.StatusActive, StandIDRef: "s1"}
if err := p.ExecuteStandRegistry(); err == nil {
t.Error("ExecuteStandRegistry on Active pact should error")
}
}
// TestDefaultGenesisStateEmpty asserts DefaultGenesisState returns a
// non-nil empty slice for Pacts.
func TestDefaultGenesisStateEmpty(t *testing.T) {
gs := types.DefaultGenesisState()
if gs == nil {
t.Fatal("DefaultGenesisState returned nil")
}
if gs.Pacts == nil || len(gs.Pacts) != 0 {
t.Errorf("Default Pacts should be non-nil empty slice; got len=%d nil=%v", len(gs.Pacts), gs.Pacts == nil)
}
}
// TestValidateGenesisRejectsDupPactIDs asserts A-212: duplicate pact-ids
// are rejected (upgrade from v0.1's no-op ValidateGenesis).
func TestValidateGenesisRejectsDupPactIDs(t *testing.T) {
gs := types.GenesisState{
Pacts: []types.Pact{
{PactID: "p1", Type: types.PactPause},
{PactID: "p1", Type: types.PactGround}, // dup
},
}
bz, _ := json.Marshal(gs)
if err := types.ValidateGenesis(bz); err == nil {
t.Error("ValidateGenesis should reject duplicate pact-ids")
}
}
// TestValidateGenesisRejectsEmptyPactID asserts empty pact-id is rejected.
func TestValidateGenesisRejectsEmptyPactID(t *testing.T) {
gs := types.GenesisState{
Pacts: []types.Pact{{PactID: "", Type: types.PactPause}},
}
bz, _ := json.Marshal(gs)
if err := types.ValidateGenesis(bz); err == nil {
t.Error("ValidateGenesis should reject empty pact-id")
}
}
// TestValidateGenesisRejectsUnknownType asserts an unknown PactType is
// rejected (data-engineer schema validation).
func TestValidateGenesisRejectsUnknownType(t *testing.T) {
gs := types.GenesisState{
Pacts: []types.Pact{{PactID: "p1", Type: types.PactType("Bogus")}},
}
bz, _ := json.Marshal(gs)
if err := types.ValidateGenesis(bz); err == nil {
t.Error("ValidateGenesis should reject unknown pact type")
}
}
// TestValidateGenesisRejectsBadJSON asserts malformed JSON is rejected.
func TestValidateGenesisRejectsBadJSON(t *testing.T) {
if err := types.ValidateGenesis(json.RawMessage(`{not json`)); err == nil {
t.Error("ValidateGenesis should reject malformed JSON")
}
}
// TestValidateGenesisAcceptsClean asserts a clean genesis validates.
func TestValidateGenesisAcceptsClean(t *testing.T) {
gs := types.GenesisState{
Pacts: []types.Pact{
{PactID: "p1", Type: types.PactPause, Status: types.StatusProposed},
{PactID: "p2", Type: types.PactCover, Status: types.StatusActive},
},
}
bz, _ := json.Marshal(gs)
if err := types.ValidateGenesis(bz); err != nil {
t.Errorf("ValidateGenesis should accept clean genesis, got: %v", err)
}
}
// TestMissionLockCheckIsNoOp asserts the genesis-side MissionLockCheck helper
// is a no-op (the const flags are the true firewall). It must return nil for
// any slice of Pacts — the Mission Lock is enforced at compile time by the
// const bools, not at genesis load.
func TestMissionLockCheckIsNoOp(t *testing.T) {
pacts := []types.Pact{
{PactID: "p1", Type: types.PactPause},
{PactID: "p2", Type: types.PactGround},
{PactID: "p3", Type: types.PactStance},
{PactID: "p4", Type: types.PactCover},
}
if err := types.MissionLockCheck(pacts); err != nil {
t.Errorf("MissionLockCheck should be a no-op (const flags are the firewall), got: %v", err)
}
}
// TestModuleConsts asserts the four Cosmos-convention module consts.
func TestModuleConsts(t *testing.T) {
if types.ModuleName != "pact" {
t.Errorf("ModuleName = %q", types.ModuleName)
}
if types.StoreKey != "pact" {
t.Errorf("StoreKey = %q", types.StoreKey)
}
if types.RouterKey != "pact" {
t.Errorf("RouterKey = %q", types.RouterKey)
}
if types.QuerierRoute != "pact" {
t.Errorf("QuerierRoute = %q", types.QuerierRoute)
}
}
// TestDefaultParams asserts DefaultParams returns a zero-value Params.
func TestDefaultParams(t *testing.T) {
_ = types.DefaultParams() // no panics
}
// --- Lexicon assertion (REQ-012) -------------------------------------------------
// TestLexiconNoBannedTermsInPactPackage scans every non-test .go file in
// the pact/types package directory for the 9 banned terms (case-insensitive).
// Production files only — the test file references banned terms via the
// lexicon package helpers (standard lexicon-test bootstrapping pattern;
// no banned literals are inlined in this test file).
func TestLexiconNoBannedTermsInPactPackage(t *testing.T) {
pkgDir := packageDir(t, "github.com/oy/openyield/x/pact/types")
files, err := filepath.Glob(filepath.Join(pkgDir, "*.go"))
if err != nil {
t.Fatalf("glob: %v", err)
}
prodFiles := []string{}
for _, f := range files {
if strings.HasSuffix(f, "_test.go") {
continue
}
prodFiles = append(prodFiles, f)
}
if len(prodFiles) == 0 {
t.Fatal("no production .go files found in pact/types")
}
for _, f := range prodFiles {
bz, err := os.ReadFile(f)
if err != nil {
t.Fatalf("read %s: %v", f, err)
}
if found, ok := lexicon.FindBannedTerm(string(bz)); ok {
t.Errorf("%s: banned term %q (REQ-012 lexicon firewall)", filepath.Base(f), found)
}
}
}
// TestLexiconNoBannedTermsInPactTestFile asserts this test file itself does
// not contain any banned term as a literal (the firewall scans test files
// too; the lexicon helpers must be used rather than inlining banned terms).
// This is the self-bootstrapping check.
func TestLexiconNoBannedTermsInPactTestFile(t *testing.T) {
_, thisFile, _, ok := runtime.Caller(0)
if !ok {
t.Fatal("runtime.Caller failed")
}
bz, err := os.ReadFile(thisFile)
if err != nil {
t.Fatalf("read self: %v", err)
}
if found, ok := lexicon.FindBannedTerm(string(bz)); ok {
t.Fatalf("pact test file contains banned term %q — use lexicon helpers, not literals", found)
}
}
// packageDir resolves a Go import path to its filesystem directory by
// walking up from this test file (v0.2 skeleton has zero external deps).
func packageDir(t *testing.T, importPath string) string {
t.Helper()
_, file, _, ok := runtime.Caller(0)
if !ok {
t.Fatal("runtime.Caller failed")
}
// file = .../oy/x/pact/types/types_test.go -> repoRoot = .../oy (4 dirs up)
repoRoot := filepath.Dir(filepath.Dir(filepath.Dir(filepath.Dir(file))))
rel := strings.TrimPrefix(importPath, "github.com/oy/openyield/")
return filepath.Join(repoRoot, rel)
}
+195
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package types
import (
"encoding/json"
"fmt"
"sync"
)
const (
ModuleName = "partner"
StoreKey = ModuleName
RouterKey = ModuleName
QuerierRoute = ModuleName
// PartnerTierCount is the locked count of PartnerTier enum values
// (vision §13, D-026). A regression firewall: adding/removing/renaming a
// tier breaks this const's test (REQ-018).
PartnerTierCount = 4
)
// PartnerTier enumerates the four partner tiers (vision §13, REQ-018, D-026).
// Op processes Pass-Acts; MasterOp is a senior Op; Pier is a credential /
// identity provider (e-Residency/biometrics); Anchor is institutional.
// "Op" is used (not "operator" — the latter implies a banned financial term
// per RESEARCH §1.6; "Op" is vision-§13 lexicon-clean).
type PartnerTier string
const (
TierOp PartnerTier = "Op" // processes Pass-Acts
TierMasterOp PartnerTier = "MasterOp" // senior Op
TierPier PartnerTier = "Pier" // credential / identity provider
TierAnchor PartnerTier = "Anchor" // institutional
)
// AllPartnerTiers returns all four PartnerTier values in vision §13 order.
// Locked-const test asserts exactly 4 entries with these names (REQ-018).
func AllPartnerTiers() []PartnerTier {
return []PartnerTier{
TierOp,
TierMasterOp,
TierPier,
TierAnchor,
}
}
// PartnerStatus enumerates the lifecycle states of a Partner (REQ-018).
type PartnerStatus string
const (
StatusPending PartnerStatus = "Pending" // partner registered, not yet active
StatusActive PartnerStatus = "Active" // partner is live
StatusSuspended PartnerStatus = "Suspended" // partner temporarily halted
StatusRevoked PartnerStatus = "Revoked" // partner permanently revoked
)
// PartnerStatusCount is the locked count of PartnerStatus enum values.
const PartnerStatusCount = 4
// CredentialType enumerates the kinds of credentials a Pier can reference
// (REQ-018). The ref-uri is opaque; Pier credential routing is deferred per
// Q5 (v0.3 will wire the live routing). The skeleton defines the type enum
// so genesis / registry entries carry a typed credential kind.
type CredentialType string
const (
CredentialEresidency CredentialType = "Eresidency" // e-Residency-style identity
CredentialBiometric CredentialType = "Biometric" // biometric identity
CredentialVouch CredentialType = "Vouch" // vouch-based attestation
CredentialCustom CredentialType = "Custom" // opaque custom credential
)
// CredentialRef references an external credential provider (REQ-018).
// provider-id references a Partner (typically a Pier) by ID string
// (G-003 by-ID-string invariant). ref-uri is an opaque URI; Pier credential
// routing is deferred per Q5, so the skeleton keeps the ref opaque.
type CredentialRef struct {
ProviderID string `json:"provider_id" yaml:"provider_id"`
CredentialType CredentialType `json:"credential_type" yaml:"credential_type"`
RefURI string `json:"ref_uri" yaml:"ref_uri"`
}
// Partner is a registered actor on the Partner Spectrum (vision §13, REQ-018).
// reach-id references x/identity Reach by string (G-003 by-ID-string
// invariant). credential-ref references a credential provider (typically a
// Pier) by ID string. region is a free-form locale tag.
type Partner struct {
PartnerID string `json:"partner_id" yaml:"partner_id"`
Tier PartnerTier `json:"tier" yaml:"tier"`
Name string `json:"name" yaml:"name"`
ReachID string `json:"reach_id" yaml:"reach_id"`
Region string `json:"region" yaml:"region"`
CredentialRef CredentialRef `json:"credential_ref" yaml:"credential_ref"`
Status PartnerStatus `json:"status" yaml:"status"`
}
// Keeper is a registry keeper stub for Partners (REQ-018). The skeleton
// provides in-memory add/get/list/by-tier operations; v0.3 wires the live
// keeper backed by the store. It is safe for concurrent use (the live keeper
// will use the SDK store, which is single-threaded per-block; the stub uses
// a mutex so the skeleton's tests can exercise concurrent paths).
type Keeper struct {
mu sync.Mutex
partners map[string]Partner
}
// NewKeeper returns an empty registry keeper stub.
func NewKeeper() *Keeper {
return &Keeper{partners: make(map[string]Partner)}
}
// AddPartner registers a Partner by ID. Returns an error if the ID is empty
// or already registered.
func (k *Keeper) AddPartner(p Partner) error {
if p.PartnerID == "" {
return fmt.Errorf("partner: empty partner-id")
}
k.mu.Lock()
defer k.mu.Unlock()
if _, exists := k.partners[p.PartnerID]; exists {
return fmt.Errorf("partner: duplicate partner-id %q", p.PartnerID)
}
k.partners[p.PartnerID] = p
return nil
}
// GetPartner returns a Partner by ID and true, or zero-value and false.
func (k *Keeper) GetPartner(id string) (Partner, bool) {
k.mu.Lock()
defer k.mu.Unlock()
p, ok := k.partners[id]
return p, ok
}
// ListPartners returns all registered Partners (unordered).
func (k *Keeper) ListPartners() []Partner {
k.mu.Lock()
defer k.mu.Unlock()
out := make([]Partner, 0, len(k.partners))
for _, p := range k.partners {
out = append(out, p)
}
return out
}
// ListByTier returns all registered Partners matching the given tier.
func (k *Keeper) ListByTier(tier PartnerTier) []Partner {
k.mu.Lock()
defer k.mu.Unlock()
out := []Partner{}
for _, p := range k.partners {
if p.Tier == tier {
out = append(out, p)
}
}
return out
}
// Params for the partner module (skeleton — no tunables in v0.2).
type Params struct{}
func DefaultParams() Params { return Params{} }
// GenesisState defines the partner module genesis state (REQ-018).
// Partners is the top-level set; ValidateGenesis enforces partner-id uniqueness.
type GenesisState struct {
Params Params `json:"params" yaml:"params"`
Partners []Partner `json:"partners" yaml:"partners"`
}
func DefaultGenesisState() *GenesisState {
return &GenesisState{
Params: DefaultParams(),
Partners: []Partner{},
}
}
// ValidateGenesis performs ID-uniqueness checks (A-212 upgrade from v0.1
// no-op): rejects duplicate partner-ids.
func ValidateGenesis(bz json.RawMessage) error {
var gs GenesisState
if err := json.Unmarshal(bz, &gs); err != nil {
return fmt.Errorf("partner: invalid genesis: %w", err)
}
seen := make(map[string]bool, len(gs.Partners))
for _, p := range gs.Partners {
if p.PartnerID == "" {
return fmt.Errorf("partner: empty partner-id")
}
if seen[p.PartnerID] {
return fmt.Errorf("partner: duplicate partner-id %q", p.PartnerID)
}
seen[p.PartnerID] = true
}
return nil
}
+426
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package types_test
import (
"encoding/json"
"os"
"path/filepath"
"runtime"
"strings"
"testing"
"github.com/oy/openyield/lexicon"
"github.com/oy/openyield/x/partner/types"
)
// TestPartnerTierCountLockedConst asserts PartnerTierCount is exactly 4
// and AllPartnerTiers() returns exactly 4 (vision §13, REQ-018, D-026). A
// regression firewall: adding/removing/renaming a tier breaks this test.
func TestPartnerTierCountLockedConst(t *testing.T) {
if types.PartnerTierCount != 4 {
t.Errorf("PartnerTierCount = %d, expected 4 (vision §13 LOCKED)", types.PartnerTierCount)
}
all := types.AllPartnerTiers()
if len(all) != 4 {
t.Errorf("AllPartnerTiers() len = %d, expected 4", len(all))
}
}
// TestAllPartnerTiersNames asserts the 4 vision §13 names in order with no
// extras, no dups, no renames. "Op" (not "operator") per vision §13 — the
// latter implies a banned financial term per RESEARCH §1.6; "Op" is
// lexicon-clean.
func TestAllPartnerTiersNames(t *testing.T) {
want := []string{"Op", "MasterOp", "Pier", "Anchor"}
all := types.AllPartnerTiers()
if len(all) != len(want) {
t.Fatalf("len = %d, want %d", len(all), len(want))
}
seen := map[string]bool{}
for i, s := range all {
if string(s) != want[i] {
t.Errorf("AllPartnerTiers()[%d] = %q, want %q", i, s, want[i])
}
if seen[string(s)] {
t.Errorf("duplicate PartnerTier %q", s)
}
seen[string(s)] = true
}
}
// TestPartnerTierValues asserts each named const matches its AllPartnerTiers
// entry.
func TestPartnerTierValues(t *testing.T) {
if types.TierOp != "Op" {
t.Errorf("TierOp = %q", types.TierOp)
}
if types.TierMasterOp != "MasterOp" {
t.Errorf("TierMasterOp = %q", types.TierMasterOp)
}
if types.TierPier != "Pier" {
t.Errorf("TierPier = %q", types.TierPier)
}
if types.TierAnchor != "Anchor" {
t.Errorf("TierAnchor = %q", types.TierAnchor)
}
}
// TestPartnerStatusCountLockedConst asserts PartnerStatusCount is exactly 4.
func TestPartnerStatusCountLockedConst(t *testing.T) {
if types.PartnerStatusCount != 4 {
t.Errorf("PartnerStatusCount = %d, expected 4", types.PartnerStatusCount)
}
}
// TestPartnerStatusEnumCoverage asserts all four PartnerStatus values are
// distinct and non-empty (REQ-018 lifecycle: Pending, Active, Suspended, Revoked).
func TestPartnerStatusEnumCoverage(t *testing.T) {
statuses := []types.PartnerStatus{
types.StatusPending, types.StatusActive,
types.StatusSuspended, types.StatusRevoked,
}
if len(statuses) != 4 {
t.Errorf("expected 4 PartnerStatus consts, got %d", len(statuses))
}
seen := map[types.PartnerStatus]bool{}
for _, s := range statuses {
if s == "" {
t.Error("empty PartnerStatus")
}
if seen[s] {
t.Errorf("duplicate PartnerStatus %q", s)
}
seen[s] = true
}
}
// TestCredentialTypeEnumCoverage asserts the CredentialType values are
// distinct and non-empty (Pier credential routing deferred per Q5; the
// enum is the typed kind for genesis / registry entries).
func TestCredentialTypeEnumCoverage(t *testing.T) {
cts := []types.CredentialType{
types.CredentialEresidency, types.CredentialBiometric,
types.CredentialVouch, types.CredentialCustom,
}
if len(cts) != 4 {
t.Errorf("expected 4 CredentialType consts, got %d", len(cts))
}
seen := map[types.CredentialType]bool{}
for _, c := range cts {
if c == "" {
t.Error("empty CredentialType")
}
if seen[c] {
t.Errorf("duplicate CredentialType %q", c)
}
seen[c] = true
}
}
// TestCredentialRefStruct asserts CredentialRef carries all required fields
// (provider-id, credential-type, ref-uri — opaque URI).
func TestCredentialRefStruct(t *testing.T) {
c := types.CredentialRef{
ProviderID: "pier-1",
CredentialType: types.CredentialEresidency,
RefURI: "oy:cred:pier-1/eresidency/abc123",
}
if c.ProviderID != "pier-1" || c.CredentialType != types.CredentialEresidency ||
c.RefURI != "oy:cred:pier-1/eresidency/abc123" {
t.Error("CredentialRef fields not set correctly")
}
}
// TestPartnerStructFields asserts Partner carries all required fields
// including the by-ID-string reach-id (G-003).
func TestPartnerStructFields(t *testing.T) {
p := types.Partner{
PartnerID: "pt1",
Tier: types.TierPier,
Name: "Pier One",
ReachID: "reach:pier-1",
Region: "EU",
CredentialRef: types.CredentialRef{
ProviderID: "pier-1",
CredentialType: types.CredentialBiometric,
RefURI: "oy:cred:bio/x",
},
Status: types.StatusActive,
}
if p.PartnerID != "pt1" || p.Tier != types.TierPier || p.Name != "Pier One" ||
p.ReachID != "reach:pier-1" || p.Region != "EU" ||
p.CredentialRef.ProviderID != "pier-1" || p.Status != types.StatusActive {
t.Error("Partner fields not set correctly")
}
}
// --- Registry keeper stub tests (REQ-018) ---------------------------------------
// TestKeeperAddGetRoundTrip asserts AddPartner + GetPartner round-trips a
// Partner by ID.
func TestKeeperAddGetRoundTrip(t *testing.T) {
k := types.NewKeeper()
p := types.Partner{
PartnerID: "pt1",
Tier: types.TierOp,
Name: "Op One",
ReachID: "reach:op-1",
Status: types.StatusActive,
}
if err := k.AddPartner(p); err != nil {
t.Fatalf("AddPartner: %v", err)
}
got, ok := k.GetPartner("pt1")
if !ok {
t.Fatal("GetPartner: not found")
}
if got.PartnerID != "pt1" || got.Tier != types.TierOp {
t.Errorf("GetPartner returned wrong Partner: %+v", got)
}
}
// TestKeeperAddPartnerRejectsEmptyID asserts AddPartner rejects an empty id.
func TestKeeperAddPartnerRejectsEmptyID(t *testing.T) {
k := types.NewKeeper()
if err := k.AddPartner(types.Partner{PartnerID: ""}); err == nil {
t.Error("AddPartner should reject empty partner-id")
}
}
// TestKeeperAddPartnerRejectsDup asserts AddPartner rejects a duplicate id.
func TestKeeperAddPartnerRejectsDup(t *testing.T) {
k := types.NewKeeper()
p := types.Partner{PartnerID: "pt1", Tier: types.TierOp}
if err := k.AddPartner(p); err != nil {
t.Fatalf("first AddPartner: %v", err)
}
if err := k.AddPartner(p); err == nil {
t.Error("AddPartner should reject duplicate partner-id")
}
}
// TestKeeperGetPartnerMissing asserts GetPartner returns false for an
// unregistered id.
func TestKeeperGetPartnerMissing(t *testing.T) {
k := types.NewKeeper()
if _, ok := k.GetPartner("nope"); ok {
t.Error("GetPartner should return false for unregistered id")
}
}
// TestKeeperListPartners asserts ListPartners returns all registered Partners.
func TestKeeperListPartners(t *testing.T) {
k := types.NewKeeper()
_ = k.AddPartner(types.Partner{PartnerID: "a", Tier: types.TierOp})
_ = k.AddPartner(types.Partner{PartnerID: "b", Tier: types.TierAnchor})
list := k.ListPartners()
if len(list) != 2 {
t.Errorf("ListPartners len = %d, want 2", len(list))
}
}
// TestKeeperListPartnersEmpty asserts ListPartners on an empty keeper returns
// a non-nil empty slice (or a usable slice).
func TestKeeperListPartnersEmpty(t *testing.T) {
k := types.NewKeeper()
list := k.ListPartners()
if list == nil {
t.Fatal("ListPartners returned nil")
}
if len(list) != 0 {
t.Errorf("ListPartners len = %d, want 0", len(list))
}
}
// TestKeeperListByTier asserts ListByTier returns only Partners matching the
// given tier (REQ-018 round-trip).
func TestKeeperListByTier(t *testing.T) {
k := types.NewKeeper()
_ = k.AddPartner(types.Partner{PartnerID: "op1", Tier: types.TierOp})
_ = k.AddPartner(types.Partner{PartnerID: "op2", Tier: types.TierOp})
_ = k.AddPartner(types.Partner{PartnerID: "mop1", Tier: types.TierMasterOp})
_ = k.AddPartner(types.Partner{PartnerID: "pier1", Tier: types.TierPier})
_ = k.AddPartner(types.Partner{PartnerID: "anc1", Tier: types.TierAnchor})
tt := []struct {
tier types.PartnerTier
wantN int
}{
{types.TierOp, 2},
{types.TierMasterOp, 1},
{types.TierPier, 1},
{types.TierAnchor, 1},
}
for _, tc := range tt {
t.Run(string(tc.tier), func(t *testing.T) {
got := k.ListByTier(tc.tier)
if len(got) != tc.wantN {
t.Errorf("ListByTier(%q) len = %d, want %d", tc.tier, len(got), tc.wantN)
}
for _, p := range got {
if p.Tier != tc.tier {
t.Errorf("ListByTier(%q) returned Partner with tier %q", tc.tier, p.Tier)
}
}
})
}
}
// TestKeeperListByTierEmpty asserts ListByTier returns an empty (non-nil)
// slice when no Partners match.
func TestKeeperListByTierEmpty(t *testing.T) {
k := types.NewKeeper()
got := k.ListByTier(types.TierAnchor)
if got == nil {
t.Fatal("ListByTier returned nil")
}
if len(got) != 0 {
t.Errorf("ListByTier len = %d, want 0", len(got))
}
}
// --- Genesis tests (REQ-018, A-212) ----------------------------------------------
// TestDefaultGenesisStateEmpty asserts DefaultGenesisState returns a non-nil
// empty slice for Partners.
func TestDefaultGenesisStateEmpty(t *testing.T) {
gs := types.DefaultGenesisState()
if gs == nil {
t.Fatal("DefaultGenesisState returned nil")
}
if gs.Partners == nil || len(gs.Partners) != 0 {
t.Errorf("Default Partners should be non-nil empty slice; got len=%d nil=%v", len(gs.Partners), gs.Partners == nil)
}
}
// TestValidateGenesisRejectsDupPartnerIDs asserts A-212: duplicate partner-ids
// are rejected.
func TestValidateGenesisRejectsDupPartnerIDs(t *testing.T) {
gs := types.GenesisState{
Partners: []types.Partner{
{PartnerID: "pt1", Tier: types.TierOp},
{PartnerID: "pt1", Tier: types.TierAnchor}, // dup
},
}
bz, _ := json.Marshal(gs)
if err := types.ValidateGenesis(bz); err == nil {
t.Error("ValidateGenesis should reject duplicate partner-ids")
}
}
// TestValidateGenesisRejectsEmptyPartnerID asserts empty partner-id is rejected.
func TestValidateGenesisRejectsEmptyPartnerID(t *testing.T) {
gs := types.GenesisState{
Partners: []types.Partner{{PartnerID: "", Tier: types.TierOp}},
}
bz, _ := json.Marshal(gs)
if err := types.ValidateGenesis(bz); err == nil {
t.Error("ValidateGenesis should reject empty partner-id")
}
}
// TestValidateGenesisRejectsBadJSON asserts malformed JSON is rejected.
func TestValidateGenesisRejectsBadJSON(t *testing.T) {
if err := types.ValidateGenesis(json.RawMessage(`{not json`)); err == nil {
t.Error("ValidateGenesis should reject malformed JSON")
}
}
// TestValidateGenesisAcceptsClean asserts a clean genesis validates.
func TestValidateGenesisAcceptsClean(t *testing.T) {
gs := types.GenesisState{
Partners: []types.Partner{
{PartnerID: "pt1", Tier: types.TierOp, Status: types.StatusActive},
{PartnerID: "pt2", Tier: types.TierPier, Status: types.StatusPending},
},
}
bz, _ := json.Marshal(gs)
if err := types.ValidateGenesis(bz); err != nil {
t.Errorf("ValidateGenesis should accept clean genesis, got: %v", err)
}
}
// TestModuleConsts asserts the four Cosmos-convention module consts.
func TestModuleConsts(t *testing.T) {
if types.ModuleName != "partner" {
t.Errorf("ModuleName = %q", types.ModuleName)
}
if types.StoreKey != "partner" {
t.Errorf("StoreKey = %q", types.StoreKey)
}
if types.RouterKey != "partner" {
t.Errorf("RouterKey = %q", types.RouterKey)
}
if types.QuerierRoute != "partner" {
t.Errorf("QuerierRoute = %q", types.QuerierRoute)
}
}
// TestDefaultParams asserts DefaultParams returns a zero-value Params.
func TestDefaultParams(t *testing.T) {
_ = types.DefaultParams() // no panics
}
// --- Lexicon assertion (REQ-012) -------------------------------------------------
// TestLexiconNoBannedTermsInPartnerPackage scans every non-test .go file in
// the partner/types package directory for the 9 banned terms (case-insensitive).
// Production files only — the test file references banned terms via the
// lexicon package helpers (standard lexicon-test bootstrapping pattern; no
// banned literals are inlined in this test file).
func TestLexiconNoBannedTermsInPartnerPackage(t *testing.T) {
pkgDir := packageDir(t, "github.com/oy/openyield/x/partner/types")
files, err := filepath.Glob(filepath.Join(pkgDir, "*.go"))
if err != nil {
t.Fatalf("glob: %v", err)
}
prodFiles := []string{}
for _, f := range files {
if strings.HasSuffix(f, "_test.go") {
continue
}
prodFiles = append(prodFiles, f)
}
if len(prodFiles) == 0 {
t.Fatal("no production .go files found in partner/types")
}
for _, f := range prodFiles {
bz, err := os.ReadFile(f)
if err != nil {
t.Fatalf("read %s: %v", f, err)
}
if found, ok := lexicon.FindBannedTerm(string(bz)); ok {
t.Errorf("%s: banned term %q (REQ-012 lexicon firewall)", filepath.Base(f), found)
}
}
}
// TestLexiconNoBannedTermsInPartnerTestFile asserts this test file itself does
// not contain any banned term as a literal (the firewall scans test files
// too; the lexicon helpers must be used rather than inlining banned terms).
func TestLexiconNoBannedTermsInPartnerTestFile(t *testing.T) {
_, thisFile, _, ok := runtime.Caller(0)
if !ok {
t.Fatal("runtime.Caller failed")
}
bz, err := os.ReadFile(thisFile)
if err != nil {
t.Fatalf("read self: %v", err)
}
if found, ok := lexicon.FindBannedTerm(string(bz)); ok {
t.Fatalf("partner test file contains banned term %q — use lexicon helpers, not literals", found)
}
}
// packageDir resolves a Go import path to its filesystem directory by
// walking up from this test file (v0.2 skeleton has zero external deps).
func packageDir(t *testing.T, importPath string) string {
t.Helper()
_, file, _, ok := runtime.Caller(0)
if !ok {
t.Fatal("runtime.Caller failed")
}
// file = .../oy/x/partner/types/types_test.go -> repoRoot = .../oy (4 dirs up)
repoRoot := filepath.Dir(filepath.Dir(filepath.Dir(filepath.Dir(file))))
rel := strings.TrimPrefix(importPath, "github.com/oy/openyield/")
return filepath.Join(repoRoot, rel)
}