Compressor Upgrade, Replacement Planning & Lifecycle Decision Engineering

COMPRESSOR UPGRADE, REPLACEMENT PLANNING & LIFECYCLE DECISION ENGINEERING

It requires baseline condition from hours, service history, failures, actual demand, specific power where measured, air quality and criticality; explicitly warns that controls, VFD, cooling, treatment, piping or storage may solve the problem without replacing a healthy compressor; requires lifecycle scenarios to compare capital, energy, maintenance, downtime risk, parts availability and future demand over a stated period; and requires replacement candidates to be compared at equivalent pressure, air-quality and test conditions—not motor kW alone. These controls are expanded without inventing ROI, payback or savings.

Provisional new-series slug: /compressed-air-engineering/upgrade-replacement-planning-lifecycle-decision/ | CTA: Build My Compressor Lifecycle Decision

Do not replace a compressor because it is old. do not keep it because it still runs. decide from duty, condition, risk, performance, supportability and the full lifecycle evidence

The governing discipline is equivalence. Existing and candidate equipment must be compared at the pressure, air quality, flow definition/test basis and operating duty actually required. Motor nameplate power, catalogue maximum flow or purchase price alone cannot establish the better lifecycle pathway.

1 — Asset Identity

Lifecycle Decision Foundation: govern asset identity as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

2 — Make/Model/Serial

Lifecycle Decision Foundation: govern make/model/serial as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

3 — Airend Identity

Lifecycle Decision Foundation: govern airend identity as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

4 — Controller Identity

Lifecycle Decision Foundation: govern controller identity as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

5 — Motor Identity

Lifecycle Decision Foundation: govern motor identity as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

6 — Operating Hours

Lifecycle Decision Foundation: govern operating hours as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

7 — Load Hours Boundary

Lifecycle Decision Foundation: govern load hours boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

8 — Commissioning Year Boundary

Lifecycle Decision Foundation: govern commissioning year boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

9 — Criticality

Lifecycle Decision Foundation: govern criticality as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

10 — Current Duty

Lifecycle Decision Foundation: govern current duty as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

11 — Future Duty

Lifecycle Decision Foundation: govern future duty as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

12 — Air-Quality Requirement

Lifecycle Decision Foundation: govern air-quality requirement as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

13 — Service History

Lifecycle Decision Foundation: govern service history as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

14 — Failure History

Lifecycle Decision Foundation: govern failure history as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

15 — Revision Control

Lifecycle Decision Foundation: govern revision control as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

16 — Airend Condition

Remaining Condition: govern airend condition as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

17 — Motor Condition

Remaining Condition: govern motor condition as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

18 — Drive Condition

Remaining Condition: govern drive condition as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

19 — Cooling Condition

Remaining Condition: govern cooling condition as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

20 — Separator Condition

Remaining Condition: govern separator condition as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

21 — Controls/Vfd Condition

Remaining Condition: govern controls/VFD condition as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

22 — Dryer Condition

Remaining Condition: govern dryer condition as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

23 — Filter/Drain Condition

Remaining Condition: govern filter/drain condition as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

24 — Receiver Boundary

Remaining Condition: govern receiver boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

25 — Piping Condition

Remaining Condition: govern piping condition as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

26 — Vibration Trend

Remaining Condition: govern vibration trend as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

27 — Thermal Trend

Remaining Condition: govern thermal trend as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

28 — Oil-Analysis Trend

Remaining Condition: govern oil-analysis trend as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

29 — Open Defects

Remaining Condition: govern open defects as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

30 — Condition Confidence

Remaining Condition: govern condition confidence as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

31 — Actual Demand

Measured Duty Baseline: govern actual demand as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

32 — Peak Demand

Measured Duty Baseline: govern peak demand as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

33 — Minimum Demand

Measured Duty Baseline: govern minimum demand as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

34 — Pressure Requirement

Measured Duty Baseline: govern pressure requirement as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

35 — Dynamic Pressure

Measured Duty Baseline: govern dynamic pressure as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

36 — Fad Boundary

Measured Duty Baseline: govern FAD boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

37 — Flow Measurement Method

Measured Duty Baseline: govern flow measurement method as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

38 — Specific Power Where Measured

Measured Duty Baseline: govern specific power where measured as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

39 — Load/Unload Profile

Measured Duty Baseline: govern load/unload profile as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

40 — Vsd Profile

Measured Duty Baseline: govern VSD profile as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

41 — Operating Hours

Measured Duty Baseline: govern operating hours as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

42 — Production Pattern

Measured Duty Baseline: govern production pattern as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

43 — Seasonal Variation

Measured Duty Baseline: govern seasonal variation as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

44 — Future Expansion

Measured Duty Baseline: govern future expansion as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

45 — Measurement Confidence

Measured Duty Baseline: govern measurement confidence as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

46 — Failure Frequency

Reliability & Criticality: govern failure frequency as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

47 — Repeat Failure

Reliability & Criticality: govern repeat failure as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

48 — Breakdown Consequence

Reliability & Criticality: govern breakdown consequence as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

49 — Production Loss Boundary

Reliability & Criticality: govern production loss boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

50 — Quality Consequence

Reliability & Criticality: govern quality consequence as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

51 — Standby Coverage

Reliability & Criticality: govern standby coverage as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

52 — Temporary-Air Boundary

Reliability & Criticality: govern temporary-air boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

53 — Single-Point Failure

Reliability & Criticality: govern single-point failure as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

54 — Repair Duration Boundary

Reliability & Criticality: govern repair duration boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

55 — Parts Lead Time

Reliability & Criticality: govern parts lead time as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

56 — Specialist Dependency

Reliability & Criticality: govern specialist dependency as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

57 — Obsolete Controls

Reliability & Criticality: govern obsolete controls as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

58 — Condition Uncertainty

Reliability & Criticality: govern condition uncertainty as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

59 — Residual Risk

Reliability & Criticality: govern residual risk as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

60 — Criticality Class

Reliability & Criticality: govern criticality class as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

61 — Parts Availability

Supportability & Obsolescence: govern parts availability as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

62 — Parts Lead Time

Supportability & Obsolescence: govern parts lead time as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

63 — Controller Obsolescence

Supportability & Obsolescence: govern controller obsolescence as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

64 — Vfd Obsolescence

Supportability & Obsolescence: govern VFD obsolescence as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

65 — Motor Availability

Supportability & Obsolescence: govern motor availability as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

66 — Airend Support

Supportability & Obsolescence: govern airend support as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

67 — Dryer Support

Supportability & Obsolescence: govern dryer support as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

68 — Documentation Availability

Supportability & Obsolescence: govern documentation availability as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

69 — Software/Tool Boundary

Supportability & Obsolescence: govern software/tool boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

70 — Technician Competence Boundary

Supportability & Obsolescence: govern technician competence boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

71 — Supplier Support Boundary

Supportability & Obsolescence: govern supplier support boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

72 — Reman/Exchange Boundary

Supportability & Obsolescence: govern reman/exchange boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

73 — Future Support Risk

Supportability & Obsolescence: govern future support risk as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

74 — Stock Strategy

Supportability & Obsolescence: govern stock strategy as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

75 — Supportability Evidence

Supportability & Obsolescence: govern supportability evidence as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

76 — Controller Upgrade

Upgrade Candidates: govern controller upgrade as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

77 — Sequencer Upgrade

Upgrade Candidates: govern sequencer upgrade as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

78 — Vfd Boundary

Upgrade Candidates: govern VFD boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

79 — Cooling Improvement

Upgrade Candidates: govern cooling improvement as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

80 — Ventilation Improvement

Upgrade Candidates: govern ventilation improvement as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

81 — Dryer/Treatment Upgrade

Upgrade Candidates: govern dryer/treatment upgrade as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

82 — Filter/Dp Reduction

Upgrade Candidates: govern filter/DP reduction as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

83 — Drain Improvement

Upgrade Candidates: govern drain improvement as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

84 — Piping Improvement

Upgrade Candidates: govern piping improvement as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

85 — Storage Improvement

Upgrade Candidates: govern storage improvement as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

86 — Pressure Optimisation

Upgrade Candidates: govern pressure optimisation as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

87 — Leak Reduction

Upgrade Candidates: govern leak reduction as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

88 — Motor/Drive Improvement

Upgrade Candidates: govern motor/drive improvement as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

89 — Instrumentation

Upgrade Candidates: govern instrumentation as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

90 — Condition Monitoring

Upgrade Candidates: govern condition monitoring as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

91 — Routine Repair

Repair / Airend Pathways: govern routine repair as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

92 — Major Repair

Repair / Airend Pathways: govern major repair as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

93 — Airend Assessment

Repair / Airend Pathways: govern airend assessment as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

94 — Controlled Rebuild Boundary

Repair / Airend Pathways: govern controlled rebuild boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

95 — Oem Reman/Exchange Boundary

Repair / Airend Pathways: govern OEM reman/exchange boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

96 — New Airend Boundary

Repair / Airend Pathways: govern new airend boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

97 — Motor Repair Boundary

Repair / Airend Pathways: govern motor repair boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

98 — Controls Replacement

Repair / Airend Pathways: govern controls replacement as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

99 — Cooler Replacement

Repair / Airend Pathways: govern cooler replacement as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

100 — Dryer Replacement

Repair / Airend Pathways: govern dryer replacement as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

101 — Package Refurbishment

Repair / Airend Pathways: govern package refurbishment as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

102 — Remaining-Life Uncertainty

Repair / Airend Pathways: govern remaining-life uncertainty as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

103 — Specialist Capability

Repair / Airend Pathways: govern specialist capability as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

104 — Post-Work Validation

Repair / Airend Pathways: govern post-work validation as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

105 — Correlation

Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

106 — Candidate Identity

Replacement Candidate Comparison: govern candidate identity as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

107 — Rated Pressure

Replacement Candidate Comparison: govern rated pressure as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

108 — Fad/Test Basis

Replacement Candidate Comparison: govern FAD/test basis as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

109 — Specific Power Boundary

Replacement Candidate Comparison: govern specific power boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

110 — Turndown

Replacement Candidate Comparison: govern turndown as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

111 — Control Method

Replacement Candidate Comparison: govern control method as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

112 — Cooling

Replacement Candidate Comparison: govern cooling as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

113 — Air Quality/Treatment

Replacement Candidate Comparison: govern air quality/treatment as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

114 — Ambient/Altitude Correction

Replacement Candidate Comparison: govern ambient/altitude correction as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

115 — Electrical Requirement

Replacement Candidate Comparison: govern electrical requirement as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

116 — Footprint/Access

Replacement Candidate Comparison: govern footprint/access as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

117 — Noise Boundary

Replacement Candidate Comparison: govern noise boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

118 — Maintenance Requirement

Replacement Candidate Comparison: govern maintenance requirement as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

119 — Warranty/Support Boundary

Replacement Candidate Comparison: govern warranty/support boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

120 — Current Performance Data

Replacement Candidate Comparison: govern current performance data as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

121 — Analysis Period

Lifecycle Scenario Economics: govern analysis period as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

122 — Capital Cost

Lifecycle Scenario Economics: govern capital cost as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

123 — Installation Cost

Lifecycle Scenario Economics: govern installation cost as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

124 — Electrical/Piping Cost

Lifecycle Scenario Economics: govern electrical/piping cost as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

125 — Treatment Cost

Lifecycle Scenario Economics: govern treatment cost as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

126 — Energy Consumption

Lifecycle Scenario Economics: govern energy consumption as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

127 — Maintenance Cost

Lifecycle Scenario Economics: govern maintenance cost as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

128 — Parts Cost

Lifecycle Scenario Economics: govern parts cost as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

129 — Downtime Risk Boundary

Lifecycle Scenario Economics: govern downtime risk boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

130 — Rental/Backup Boundary

Lifecycle Scenario Economics: govern rental/backup boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

131 — Residual Value Boundary

Lifecycle Scenario Economics: govern residual value boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

132 — Financing Boundary

Lifecycle Scenario Economics: govern financing boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

133 — Energy-Price Assumption

Lifecycle Scenario Economics: govern energy-price assumption as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

134 — Production Assumption

Lifecycle Scenario Economics: govern production assumption as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

135 — Sensitivity Analysis

Lifecycle Scenario Economics: govern sensitivity analysis as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

136 — Scenario Definitions

Decision Governance: govern scenario definitions as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

137 — Assumptions Register

Decision Governance: govern assumptions register as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

138 — Data Source

Decision Governance: govern data source as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

139 — Uncertainty

Decision Governance: govern uncertainty as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

140 — Technical Review

Decision Governance: govern technical review as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

141 — Commercial Review

Decision Governance: govern commercial review as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

142 — Operations Review

Decision Governance: govern operations review as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

143 — Risk Review

Decision Governance: govern risk review as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

144 — Preferred Pathway Boundary

Decision Governance: govern preferred pathway boundary as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

145 — Approval

Decision Governance: govern approval as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

146 — Implementation Plan

Decision Governance: govern implementation plan as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

147 — M&V Plan

Decision Governance: govern M&V plan as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

148 — Post-Project Verification

Decision Governance: govern post-project verification as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.

149 — Lessons Learned

Decision Governance: govern lessons learned as a lifecycle-decision input rather than a sales assumption. Record the source, measurement/test basis, operating condition, current asset state, candidate-equipment basis, stated analysis period, cost/energy assumptions, uncertainty and decision owner. Do not infer ROI, payback, energy-saving percentage, remaining life or replacement superiority without project-specific evidence. Keep measured values, manufacturer data, estimates and scenario assumptions visibly distinct.