The cloth is woven from this chapter's 5 exhibits: each weft is one exhibit's own data, normalised; each warp group is a section. The probe reads the exhibit's own value where it crosses. Procedural visualisation, not a measurement.
EX 01
EX 02
EX 04
EX 05
The chapter as a draft: 7 sections, 4 exhibit wefts, one shuttle.
Lead exhibit · 01Stacked compositionillustrativeAccepted output can conceal the work needed to recover quality
01 / 03
Read-out
Method and source
Assumed cohort: 1,000 distinct garments with recorded initial inspection outcomes. At cut-off, 820 first-pass accepted plus 120 accepted after rework plus 60 rejected or pending equals 1,000. Final accepted output is 940. Recovery counts garments, not correction events. Pending work is not assumed to be scrap.
Unit: illustrative garments in a closed inspection cohort. Status: illustrative. Illustrative figures are teaching examples, not measured factory results.
The chapter's warpBar: share of the reading · square: an exhibit
A greenfield garment factory should treat its first shift as the start of both production and evidence generation. The answer is not to postpone management information until output stabilises, nor to buy a model that promises to infer control. It is to record a small set of defined work events, preserve the conditions around them and use the resulting measures in owned decisions. GFT's position is capture before model: the line must learn to describe its own performance before any later analytical system can describe it credibly.
¶ 01
This principle does not require a heavy digital platform. A controlled manual record can be sufficient when its definitions, responsibilities and correction rules are clear. It does require measurement to be designed with the operation rather than added as a reporting burden. The first records will be imperfect and the process will change. Their value lies in making that change visible, comparable and open to challenge.
¶ 02
1.14 min · 10 paragraphs · 1 exhibit
A greenfield line begins with uncertainty, not a stable average
Related · chapter 0210 paragraphs step it
Related exhibit 06 · chapter 02TrajectoryillustrativeA useful ramp view separates output, yield and competence
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Read-out
Method and source
Illustrative GFT cohort trajectories over eight production weeks for one style and method revision. Good output, first-pass yield and demonstrated skill coverage move at different rates and dip at Week 5 when an unapproved speed push outruns skill and method stability. Rationale from S11 and S12; values are an illustrative model, not a GFT factory observation.
Unit: illustrative cohort index (0 to 100). Status: illustrative. Sources: S11, S12. Illustrative figures are teaching examples, not measured factory results.
A new line has no demonstrated steady state. Methods are still being translated into practice, operators are developing task-specific capability, supervisors are learning where work accumulates and machines are being adjusted to real materials. An average computed across these conditions is not a stable benchmark. It is a mixture of different learning conditions, and its apparent precision can conceal more than it explains.
Research on production ramp-up describes the underlying problem directly: while a new production process is ill understood, low yields and low production rates occur together. The same research analyses learning, capacity utilisation and quality as interacting outcomes rather than independent scores.[S11] Its principal models concern other manufacturing settings, so they do not supply a garment-factory ramp rate. They do support a transferable management caution: early output and early yield must be read as evidence about process understanding, not as two independent verdicts on effort.
The first shift therefore needs context beside quantity. A piece count should retain the style, operation, method revision, line, shift and counting boundary. Where the measure depends on individual or team work, the record should identify the relevant skill assessment and machine condition without turning a broad contextual field into an unsupported claim about personal capability. These attributes allow a later reviewer to ask whether two observations are comparable before calculating a trend.
Consider a daily average that combines a mature method on one style with a newly released method on another. The total may move even when neither cohort changes. A change in style mix can imitate improvement or deterioration. Recording the cohort does not eliminate this problem, but it makes the mixture visible and prevents the factory from treating compositional change as learning. The next chapter develops comparable ramp populations in detail; the requirement here is to preserve their raw material from the outset.
Speed needs the same discipline. Faster completion can coincide with more correction, longer queues or greater fatigue. The first record should therefore distinguish pieces started, pieces completed, first-pass good pieces and pieces requiring correction at a named boundary. A single production total cannot tell management whether the line became more capable or merely pushed more work through a weaker process. This is a measurement distinction, not yet a target-setting rule.
Exhibit 1 reconciles the illustrative cohort without treating pending work as scrap. The categories are mutually exclusive at the reporting cut-off; reinspection does not create another garment in the denominator.
The exhibit makes an accounting distinction rather than a causal claim. It cannot reveal why a defect arose, how long correction took or whether a pending garment will eventually pass. Those questions need event histories and follow-up. Management should retain the unresolved category until the later outcome is known and preserve the original close when it updates the record.
This reconciliation also protects the interpretation of missing work. A bundle that has not crossed the boundary is not automatically a rejected garment. A missing inspection entry is not evidence of a defect-free garment. The daily close should carry explicit categories for unfinished, uninspected and unrecorded work. Otherwise the denominator changes silently and a clerical gap becomes an apparent operating result.
Early targets should reflect this uncertainty. A target can direct attention to a desired condition, but it should not declare the initial average to be a reliable capacity baseline. During the earliest shifts, the more useful contract is to observe defined cohorts, test the measurement method and state what would count as evidence of learning. Tight comparison against an assumed steady state would reward the wrong behaviour and could discourage the recording of problems precisely when the factory most needs to see them.
1.22 min · 7 paragraphs · 1 exhibit
The local-processing gap raises the cost of weak operating control
The inherited evidence register records a substantial difference between Cameroon's cotton production and local transformation: about 95 percent of cotton fibre is exported raw and about 5 percent is processed locally. It also records a national ambition for 50 percent local processing by 2030, restated in the national development strategy.[R06][R07] These are approximate sector observations and a policy target, with the original publication dates not recorded in the inherited register. They are not current GFT operating measures.
¶ 01 · 2 sources
It also records a national ambition for 50 percent local processing by 2030R06, R07
Exhibit 02Bar chartsourcedThe processing gap makes operating evidence strategically important
01 / 03
Read-out
Method and source
The first two values are approximate inherited baseline shares and sum to 100 percent. The third is a separate policy target for local processing by 2030, not an observed share or a factory sales forecast. Original publication dates were not recorded in the inherited register.
Unit: percent of cotton fibre. Status: sourced. Sources: R06, R07.
The exhibit shows the scale of the industrial proposition, not its commercial inevitability. Moving from raw export towards local processing requires more than additional equipment. Each added stage must convert inputs into accepted output under conditions that can be repeated, costed and improved. Weak operating control makes the gap harder to close because the organisation cannot locate where material, time and quality are lost.
¶ 01
The figures do not establish demand for any proposed garment factory. They say nothing by themselves about product specification, order size, customer eligibility, delivered cost or the route from national ambition to realised factory utilisation. This paper therefore does not convert the policy target into a sales assumption. It addresses a different question: if a greenfield operation is commissioned, what evidence must exist for its sponsors and managers to understand and govern production?
¶ 02
That distinction changes the design priority. A feasibility model can estimate a future operating condition from assumptions, but only actual records can test whether the condition has occurred. The first shift is where assumed work content meets observed work, where expected quality meets inspection outcomes and where planned resource use meets meter readings. A performance-management system should preserve those comparisons rather than overwrite the plan with an unexplained actual.
¶ 03
The strategic consequence is practical. Local value addition depends on learning that remains inside the operating organisation. If each problem is resolved through informal intervention and no durable record survives, the factory repeats the same uncertainty with each style and shift. If events, causes and responses are recorded consistently, the organisation can turn isolated corrections into reusable method knowledge.
¶ 04
Note
1.32 min · 8 paragraphs · 1 exhibit
The earliest records become the factory's institutional memory
A factory remembers through its records or through the recollection of individuals. The second route is fragile during ramp-up. People change roles, methods are revised and the explanation for an unusual shift becomes difficult to reconstruct. A contemporaneous record preserves what was known at the time, including uncertainty. It allows a later team to distinguish an observed event from a story assembled after the result was already known.
Garment-floor research shows that source capture is technically feasible. One study describes RFID systems recording front-line production data every day in varied, small-batch garment production.[S19] Another uses power monitoring attached to sewing machines to collect consumption data remotely and extract working times for sewing tasks.[S20] These studies demonstrate possible sources of operational evidence. They do not establish that either technology is the correct starting point for every new factory, nor that a sensor stream automatically carries the right operational meaning.
The record must precede the capture device. Before selecting RFID, power monitoring or another input, management needs to state which event matters and how it will be used. A machine becoming active is not necessarily a garment becoming good. A tag crossing a reader is not necessarily a unit completing an operation. A power pattern may support an inferred work interval, but the inference still needs validation against the actual method, product and quality outcome. Source capture reduces reconstruction only when the event definition is sound.
¶ 03
GFT would therefore begin with a disciplined manual record and automate fields where doing so improves timeliness or reduces demonstrated capture error. Manual does not mean informal. The sheet or lightweight application needs controlled identifiers, required fields, explicit cut-offs and a correction history. A blank entry should remain distinguishable from zero. A late entry should retain both event time and entry time. A corrected value should preserve its predecessor and reason rather than silently rewriting the shift.
¶ 04
Exhibit 3 defines a practical minimum register. Its purpose is to connect each measure family to a source event and an immediate decision, not to prescribe an exhaustive data model.
Exhibit 03RegisterillustrativeThe first-shift register joins evidence to an immediate use
Family
Production
Source event
Pieces cross a named boundary
Context retained
Style, method, line, shift and disposition
Immediate use
Reconcile flow and locate interruption
01 / 06
Read-out
Open the full register (6 rows)
Production
Pieces cross a named boundary
Style, method, line, shift and disposition
Reconcile flow and locate interruption
Quality
Inspection records an outcome
Operation, defect, first-pass state and correction
Contain and investigate the failure
Delivery
Order reaches a promised milestone
Order, quantity, promise and actual event
Protect or revise the customer plan
Cost
Paid time and accepted output close
Direct work, support, training and rework
Explain cost per accepted garment
People
Competence and attendance are assessed
Method revision, assessor, shift and exception
Staff work fairly and close skill gaps
Sustainability
Meter or waste record closes
Boundary, source, estimate flag and output denominator
Explain absolute use and intensity
Method and source
Illustrative minimum design for a greenfield cut, make, trim and finishing operation. Fields are added only when they support a defined decision. Formula and unit discipline follows S01, metric balance follows S02 and declared boundaries follow S30.
Unit: illustrative GFT record design. Status: illustrative. Sources: S01, S02, S30. Illustrative figures are teaching examples, not measured factory results.
The table is deliberately organised around events. It prevents a common failure in which each function builds a separate report with a different meaning for output. Production, quality, cost and sustainability should be able to reconcile to the same accepted quantity at the same boundary. Where their scopes legitimately differ, the difference should be explicit. A sustainability calculation may use a monthly meter close while a production huddle uses a shift close; neither should borrow the other's denominator without carrying that time basis.
¶ 01
Institutional memory also depends on vocabulary. Defect names, interruption causes and method identifiers should be stable enough to compare, while remaining open to controlled revision. The aim is not a perfect taxonomy on the first day. It is a governed starting vocabulary whose changes are dated and whose old records remain interpretable. Otherwise a definitional improvement can look like a change in factory performance.
¶ 02
Finally, memory must include unsuccessful responses. If a supervisor changes a work allocation and the problem persists, that test is useful evidence. Recording only apparent successes creates an archive of unjustified confidence. The first-shift system should retain the observed problem, the response and the subsequent result so later improvement work begins with what has already been tried.
¶ 03
Interlude · the cloth half-woven
5 exhibits carry this chapter's argument.
Woven: sections 1.0 to 1.3Still to weave: 1.4 to 1.7
Key figures from chapter 07 · Exhibit 34Key figuresillustrativeOTIF reconciles the due-order population with fulfilled promises
80Orders dueIllustrative denominator
64Received on time and in fullIllustrative numerator
16Not OTIFSix short, four late, two received late after dispatch, four other
80%OTIF64 divided by 80, multiplied by 100
01 / 04
Read-out
Method and source
Illustrative worked example. 64 OTIF orders + 16 orders not OTIF = 80 orders due. OTIF rate = 64 / 80 x 100 = 80 percent. These are assumed values used to demonstrate the calculation.
Unit: illustrative orders and percent. Status: illustrative. Illustrative figures are teaching examples, not measured factory results.
Measurement serves decisions rather than reporting volume
Step 1 of 6Work event
Exhibit 04 · illustrativeA measure earns its place only when it leads to an owned decision
Work event
Work event. Starting point. Leads to Validated record. · illustrative
A measure earns its place when it changes a decision.
Validated record
Validated record. From Work event, Verified result (Retest). Leads to Defined measure. · illustrative
Defined measure
Defined measure. From Validated record. Leads to Owned review. · illustrative
Owned review
Owned review. From Defined measure. Leads to Decision and action. · illustrative
Decision and action
Decision and action. From Owned review. Leads to Verified result. · illustrative
Verified result
Verified result. From Decision and action. Leads to Validated record (Retest). · illustrative
The method behind it: GFT note.
Method and source · Exhibit 04
Illustrative design, not an implemented system claim. S01 supports explicit KPI definitions and S02 supports balanced process and outcome measures. The return path makes action verification part of the same chain.
Unit: illustrative GFT decision chain. Status: illustrative. Sources: S01, S02. Illustrative figures are teaching examples, not measured factory results.
1.4 · the bodyExhibit 04 above; its figures are illustrative where marked.
A measure earns its place when it changes a decision. More fields do not automatically create more control; they can increase capture effort, delay the close and diffuse accountability. Garment-sector guidance recommends balance among financial, behavioural and core-process metrics, together with a mixture of in-process and end-of-process measures.[S02] This supports a scorecard that sees causes and consequences together, rather than a dashboard dominated by whatever is easiest to count.
The admission test begins with purpose. ISO 22400 presents manufacturing KPIs through their formulas and corresponding elements, time behaviour, units and other characteristics.[S01] Before a proposed indicator reaches a dashboard, GFT would state the decision it informs, the source event, the calculation, the review cadence and the role with authority to act. A metric that lacks any of these elements is a reporting candidate, not yet an operating control.
The decision must be specific. “Monitor sewing” is too broad to guide record design. “Reallocate work when an operation accumulates beyond its agreed flow condition” identifies a management action and points to the events that must be observed. “Review resource intensity” is similarly incomplete until the team names the boundary, denominator and decision forum. Precision at this stage reduces later disputes about what the number was supposed to mean.
¶ 03
Exhibit 4 shows the required chain. It includes a return path because an action whose result is not checked has not completed the management cycle.
The chain exposes weak links that a visual dashboard can hide. If the source event is ambiguous, validation cannot rescue the measure. If the review has no decision rights, the measure produces escalation without resolution. If the result is never retested, the organisation records activity rather than effectiveness. Each link needs an accountable role, although a small start-up team may combine several roles in one person.
¶ 05
Balance also requires measures that sit at different distances from the work. End-of-process outcomes confirm what happened, but they arrive too late to explain every correction. In-process signals can support intervention, but they can also encourage local optimisation if their consequences are not visible. Output should therefore sit beside first-pass quality; staffing decisions beside demonstrated competence and working-time conditions; resource intensity beside absolute use and accepted production.
¶ 06
Exhibit 5 offers an illustrative workshop map of the six GFT families. Its coordinates are not performance data. They are a prompt for testing whether each family has both a line-level action and a wider business consequence.
The useful output of this map is not the geometry. It is the discussion about where each decision belongs. Production and quality signals may require action close to the shift, while a customer-promise revision or a cost response may require wider authority. Sustainability can involve line practice, engineering investment and reporting policy. A single forum should not pretend to hold every decision right.
¶ 08
Ownership follows the same logic. The business owner protects the measure's purpose and acts on its result. The data steward protects the definition and record quality. The review chair ensures that the decision occurs and its result is revisited. These accountabilities are distinct even when the start-up organisation assigns them to a small team. “Everyone owns the KPI” usually means that no one resolves a disputed definition or an overdue action.
The result is a shorter and more demanding measurement contract. It asks less about presentation and more about management behaviour: who can act, what evidence they need, when they review it and how the factory will know whether the action worked. Later chapters specify the metric contracts and review cadence. The opening requirement is to admit no measure that cannot complete this chain.
¶ 10
1.53 min · 7 paragraphs · read with a related exhibit
Sustainability claims inherit the quality of factory records
Related · chapter 097 paragraphs step it
Related exhibit 43 · chapter 09Material flowillustrativeMaterial records must connect accepted product, residual streams and destinations
01 / 10
Read-out
Method and source
Illustrative mass balance, not a GFT or factory result. Assumed input is 1,000 kg. Factory outputs are 800 kg in accepted garments, 140 kg of cutting offcuts, 40 kg of trim and packaging, and a 20 kg unresolved difference, totalling 1,000 kg. Offcut destinations are 80 kg reuse, 50 kg recycling and 10 kg disposal. Trim and packaging destinations are 25 kg recycling and 15 kg disposal. Every real link would require a source record and destination evidence; the unresolved difference cannot be allocated silently.
Unit: illustrative kilograms of fabric and trim in one period. Status: illustrative. Sources: S35. Illustrative figures are teaching examples, not measured factory results.
A per-garment sustainability figure is an accounting result, not an intrinsic label that can be attached to the product by assertion. It depends on a boundary, a numerator, a production denominator and rules for missing or estimated data. The GHG Protocol requires organisations to account for and report emissions sources and activities within their chosen inventory boundary, with specific exclusions disclosed and justified.[S30] The same discipline should shape the factory record before any public claim is drafted.
The first decision is the boundary. A meter inside a cut, make, trim and finishing site can describe activity within that site during a stated period. It does not, on its own, measure upstream fibre, fabric production or downstream distribution. Calling a site-based ratio a complete product footprint would erase precisely the processes that the record did not observe. The boundary must therefore travel with the value wherever it is reported.
The second decision is the denominator. GFT recommends retaining absolute resource totals alongside production-normalised ratios, with both calculated over the same declared period. Both views matter. Intensity can improve because accepted output rises while total resource use remains unchanged; total use can also fall while intensity worsens if production falls faster. These are consequences of dividing resource use by output, not measured effects at a GFT factory. Neither trend should be reported without the other when the decision concerns both operating efficiency and absolute impact.
For a first-shift energy record, the numerator might be electricity read within a declared site and period, while the denominator is accepted garments crossing the same site's completion boundary. The calculation is valid only as that defined ratio. Style mix, operating hours, estimated meter intervals and the acceptance rule remain relevant context. A later comparison should test whether those conditions changed before attributing an intensity movement to better practice.
This is why sustainability cannot be deferred to a later reporting exercise. The necessary source events already exist in production, maintenance, quality and waste routines. If they are captured with inconsistent periods or unclear boundaries, the reporting team must reconstruct them under pressure. Reconstruction may be unavoidable in some cases, but it should be labelled and its uncertainty retained rather than presented as equivalent to contemporaneous measurement.
The operating benefit appears before external disclosure. A reconciled record allows the plant to ask where energy, water or material loss occurs and whether a proposed response changes accepted production. It also prevents a narrow efficiency project from shifting impact outside the chosen boundary. Subsequent chapters define the resource measures in full; this chapter fixes their dependence on the same governed evidence created for operating control.
1.62 min · 8 paragraphs · read with a related exhibit
GFT's position is capture before model
Machine-learning engineering guidance gives a direct warning: if machine learning is not absolutely required, it should not be used before the necessary data exists.[S27] GFT extends that caution to the whole greenfield operating system. The factory should establish the event, measure, decision and response first. Automation and prediction become candidates only after the record can support them and a user can act on their output.
This is not an argument against digital technology. It is an argument for earning complexity. A controlled manual sheet with clear definitions can produce more useful evidence than an automated stream whose identifiers and event meanings are unresolved. Conversely, a validated sensor can be preferable to repetitive manual capture once its error modes are understood. The choice is empirical and operational, not ideological.
¶ 02
Capture before model also separates three tasks that are often confused. Recording an event preserves what happened. Calculating a KPI transforms defined records into a decision-relevant measure. Building a model estimates or predicts something that is not directly recorded. Each task can add value, but the later task inherits weaknesses from the earlier one. A model cannot restore a method revision that was never saved or infer a reliable defect history from inconsistent labels.
¶ 03
Readiness should therefore be tested against the intended decision. The team needs sufficient coverage of the relevant operating conditions, stable or versioned definitions, known missingness and an accountable user. It also needs a simple comparison. If a transparent rule or current supervisor routine performs the decision adequately, a more complex model must demonstrate additional value against that baseline rather than against the absence of any method.
¶ 04
Historical depth alone is not readiness. A long archive can contain repeated definitions, unrecorded corrections and systematic gaps. A shorter archive with explicit cohorts and correction history may be more useful. The key question is whether the data represents the decision population, not whether the factory has accumulated an impressive number of rows.
¶ 05
Note
The same rule protects workers and supervisors from misplaced inference. Early records describe a changing system, not fixed personal capability. Using sparse ramp data to make automated judgements about individuals would confuse process learning with worker performance and could discourage honest recording. The initial purpose of evidence is to improve the production system and its management decisions. Higher-consequence uses require stronger proof and separate governance.
¶ 06
Capture before model thus sets a constructive sequence rather than a permanent refusal. Each well-defined shift record increases the factory's ability to test later sensing, forecasting or decision support. The evidence earns the next step. Digital ambition remains welcome, but it must arrive with a user, a baseline and data whose limitations are visible.
¶ 07
1.72 min · 7 paragraphs · read with a related exhibit
The paper follows the path from definition to verified value
Related · chapter 14 · Exhibit 67Status lampsillustrativeThe board sees operating results and system health together
Read-out · illustrative
Method and source
Illustrative six-tile board scorecard layout combining GFT's six operating KPI families (production, quality, delivery, cost, people, sustainability) with three system-health indicators (data completeness, verified action closure, audited residual benefit), derived from S01, S02, S06, S10, S24, S33, S42, S43 and S44. Tile values state the governed formula and gate role rather than invented factory performance numbers.
Unit: as labelled. Status: illustrative. Sources: S01, S02, S06, S10, S24, S33, S42, S43, S44. Illustrative figures are teaching examples, not measured factory results.
The argument proceeds in the same order as the operating system should develop. It begins with ramp-up as a learning problem, then translates strategic outcomes into controllable measures and tests whether each metric is defined well enough to support comparison. ISO's formula, element, time-behaviour and unit structure provides a reference point for that definition work.[S01] Only after those foundations does the paper examine the six operating families in detail.
The next movement turns records into management. Production measures retain their losses, quality records retain first-pass outcomes, delivery measures retain work content and order events, labour measures connect cost with capability, and resource measures retain boundaries and denominators. Source capture then becomes a governed record, review routines assign decisions, and corrective actions are tested against results. This sequence prevents the paper from treating data architecture, meetings and analytics as separate programmes.
¶ 02
A later movement addresses maturity and implementation. The question is not how quickly a factory can accumulate digital tools, but whether each stage demonstrates reliable capture, active management and verified improvement. Machine-learning candidates enter only after those conditions are visible. The implementation roadmap therefore treats model readiness as an outcome of operating discipline rather than a substitute for it.
¶ 03
The scope is deliberately bounded. This paper concerns a greenfield cut, make, trim and finishing operation and the performance-management system needed from its first shift. It does not specify detailed vision algorithms, demand-forecasting models or full product-footprint methods. Those subjects belong to companion papers and should consume the governed records defined here rather than create parallel meanings for the same production events.
¶ 04
For a sponsor, the immediate test is whether measurement readiness appears in the launch approval beside physical readiness. For a plant director, it is whether the first close reconciles output, quality, time and resource records to declared boundaries. For functional leaders, it is whether each proposed measure has a decision and an owner. For development and technical partners, it is whether reported progress can be traced to source events rather than to an unqualified narrative.
¶ 05
A close that exposes uncertainty is more useful than a close that conceals it behind a complete-looking report. The review should record unresolved counts, disputed definitions and late source entries as items for correction. It should not force a false reconciliation merely to meet the reporting timetable. This habit establishes a durable rule: confidence must reflect the condition of the evidence, and an honest exception is preferable to an untraceable adjustment.
¶ 06
The first shift will not produce a finished baseline. It will produce something more important: the initial entries in an inspectable operating memory. If the factory preserves context, admits uncertainty and closes the loop from event to action, later performance claims can be tested. If it does not, later sophistication will only make weak evidence faster to circulate.
¶ 07
Check the record
The chapter keeps its sources within reach.
Every knot is a source this chapter cites; select one to read its record, or filter the register by grade. Publication dates and inherited-source limits stay explicit. Read the paper's full evidence summary.
9 sources · 19 citation marks on this pageMost cited: S01, 3 times
Grade AGrade BGrade CKnot size: citations on this page
All 9 records shown
R06 · Grade C · inherited record
Cameroon Trade Hub
Inherited evidence R06
About 95 percent of cotton fibre exported raw against 5 percent processed locally; industrialisation target of 50 percent local processing.
Publication date unrecorded. Inherited source-text record. The original publication has not been independently reopened for this web edition.
R07 · Grade C · inherited record
Ecofin Agency
Inherited evidence R07
SND30 restates the 50 percent local-processing target by 2030.
Publication date unrecorded. Inherited source-text record. The original publication has not been independently reopened for this web edition.
c01-S01 · Grade A
International Organization for Standardization
ISO 22400-2:2014 Automation systems and integration: Key performance indicators for manufacturing operations management, Part 2: Definitions and descriptions
The KPIs are presented by means of their formula and corresponding elements, their time behaviour, their unit/dimension and other characteristics.
2014-01. Register access date: 2026-10-30. Source provenance is supplied by the paper evidence register.
Move the shuttle along the rack to preview any chapter: its sections, exhibits and reading time. Draft web edition. This research is not investment, legal or tax advice; illustrative models are not measured factory results.
The paper's rack · 14 boltsBolt length: reading time
1.1
1.2
1.3
1.4
1.5
1.6
1.7
01Part I: The measurement contract
The first shift must make evidence as well as garments
A factory without an operating baseline cannot rely on hindsight, so GFT treats measurement as part of production from the outset.
1.1A greenfield line begins with uncertainty, not a stable average
1.2The local-processing gap raises the cost of weak operating control
1.3The earliest records become the factory's institutional memory
1.4Measurement serves decisions rather than reporting volume
Effective labour cost joins productivity with capability and fairness
A low nominal wage does not establish a low cost per good garment, so the people scorecard must include skill, supervision, attendance and working-time effects.
8.1Cost per good garment is the controlling labour measure
8.4The skill matrix records demonstrated operations
8.6Supervisor capability is a measurable production asset
Improvement closes only when the cause and result are verified
A corrective-action system should distinguish abnormal variation, test causes, verify effects and update standard work rather than count completed actions.
12.1Problem selection begins with a measurable gap
12.4Common and special causes require different responses
12.7A3 makes the reasoning inspectable
12.10Root causes compete until evidence discriminates
Maturity gates stop digital ambition outrunning discipline
The factory should earn each digital step through reliable records, active management and verified improvement rather than buy a platform to compensate for their absence.
13.1Maturity spans behaviour as well as technology
13.4Clean manual capture is the first digital asset
13.7Active management is a separate gate
13.9History-dependent models wait for usable history
The first eighteen months install a system that can prove value
GFT recommends four gated stages: clean capture, active cadence, verified improvement and a data-driven floor, with value measured in the same system throughout.
14.1Approve the operating contract before the first shift
14.3Months one to three establish clean capture
14.5Months four to eight make the cadence routine
14.8Months nine to twelve prove the improvement loop