ASHRAE Designing For Operational Excellence 2022
$68.25
Designing for Operational Excellence — Intentional Design for Effective Operation and Maintenance
Published By | Publication Date | Number of Pages |
ASHRAE | 2022 | 110 |
Operational excellence is the result of consistent and reliable building performance that optimizes the total cost of ownership, minimizes environmental impact, and yields maximum beneficial use to both the building’s owner and its occupants. In application, operational excellence is the culmination of an effectively operated building environment, yielding the utmost efficiencies of well-designed and well-constructed systems that result in the maximized use of a building at the minimum level of wasted resources. Design enables operational excellence by providing the foundational structure and systems to effectively serve a building’s needs. Designers have the unique ability to impact the long-term operation of a building through integrated and thoughtfully designed systems. As the planning, design, and construction of any particular structure represents only a fraction of the life-cycle cost of a building, it is critical that the design is informed and intentional to provide adequate maintenance capabilities and operational efficiencies over the entire life of the building systems. Major advances have been made in the technology related to building equipment and control systems, but there is still a large gap between the designed, expected operation and the actual operation of a building. This gap impacts the indoor environmental quality and the energy use of many buildings around the world. Designing for Operational Excellence helps bring operations to the forefront of the design process, enabling designers to design buildings and systems that focus on long-term operational excellence and detailing the process and considerations for incorporating operational excellence into any building’s design. The guide gives building owners, designers, commissioning providers, and building operators the guidance they need to understand the operational needs of buildings, to design and operate systems in this environment, and to provide safe, comfortable, efficient, and affordable conditions in the built environment.
PDF Catalog
PDF Pages | PDF Title |
---|---|
6 | ABOUT THE AUTHORS |
8 | CONTENTS |
9 | LIST OF CASE STUDIES |
10 | FOREWORD |
12 | PREFACE AND ACKNOWLEDGMENTS |
14 | 1 – INTRODUCTION OPERATIONAL EXCELLENCE DEFINED THE IMPACT OF DESIGN ON OPERATIONAL EXCELLENCE |
15 | MEASURING OPERATIONAL EXCELLENCE WITH KEY PERFORMANCE INDICATORS GLOSSARY |
16 | 2 – SETTING PROJECT GOALS |
17 | OWNER’S PROJECT REQUIREMENTS |
19 | KEY PERFORMANCE INDICATORS |
20 | 3 – DECISION MAKING BASED ON TOTAL COST OF OWNERSHIP TOTAL COST OF OWNERSHIP LIFE-CYCLE COST ANALYSIS |
21 | COSTS INCLUDED IN LCCA |
22 | SCALING LCCA TO THE PROJECT |
23 | LCCA EXAMPLES |
26 | 4 – CONSTRUCTION BUDGETING AND PROJECT FUNDING |
27 | CONTINUOUS BUDGETING PROCESS |
28 | OPERATIONAL BUDGET ESTIMATE PROJECT FUNDING AND FINANCING ENERGY EFFICIENCY MEASURES |
30 | 5 – EVALUATING THE APPLICATION OF INNOVATIVE TECHNOLOGIES APPLICABILITY |
31 | COST IMPACT CONSTRUCTION IMPACT |
32 | RELIABILITY |
33 | OPERATIONAL KNOWLEDGE QUESTIONS TO ASK |
34 | 6 – COLLABORATION AND COORDINATION CONSTRUCTABILITY |
35 | CONSIDERATIONS FOR CONSTRUCTABILITY MAINTAINABILITY |
36 | DESIGN PRINCIPLES FOR MAINTAINABILITY |
38 | BUILDING INFORMATION MODELING |
39 | COORDINATION |
40 | CLOUD-BASED COLLABORATION |
41 | DIGITAL TWIN BIM FOR OPERATIONS |
42 | AUGMENTED REALITY |
44 | 7 – BENCHMARKING OPERATIONS AND MAINTENANCE BENCHMARKING METRICS TO BENCHMARK |
46 | HOW TO BENCHMARK ENERGY BENCHMARKING |
48 | 8 – COMMISSIONING TYPES OF COMMISSIONING |
49 | STANDARDS AND BEST PRACTICES |
50 | WORKING WITH THE NEW CONSTRUCTIONCOMMISSIONING PROVIDER |
54 | 9 – TRANSITION TO OPERATIONS OPERATOR TRAINING |
56 | COMPUTERIZED MAINTENANCEMANAGEMENT SYSTEM |
58 | RESOLVING CONSTRUCTION ISSUES |
60 | 10 – ENVIRONMENTAL IMPACT EFFORTS TO MINIMIZE ENERGYAND POWER NEEDS |
61 | REDUCING ATMOSPHERIC EMISSIONSDUE TO ENERGY PRODUCTION |
62 | WATER CONSERVATION |
64 | SOLID AND LIQUID WASTE DISPOSAL REFRIGERANTS |
65 | SUMMARY |
66 | 11 – OCCUPANT SATISFACTION THERMAL COMFORT |
67 | AIR TEMPERATURE (DRY BULB) |
68 | RELATIVE HUMIDITY |
69 | INDOOR ENVIRONMENTAL QUALITY |
70 | OTHER CONSIDERATIONS |
73 | MEASURING OCCUPANT SATISFACTION |
76 | 12 – FIRE SAFETY AND REGULATORY COMPLIANCE PATHS OF EGRESS FIRE SAFETY DESIGN |
79 | ELEVATOR SYSTEMS |
80 | 13 – RESILIENCY AND REDUNDANCY RESILIENCY |
81 | REDUNDANCY |
83 | DATA CENTERS |
85 | SUMMARY |
86 | 14 – ENERGY EFFICIENCY MECHANICAL SYSTEM CONSIDERATIONS |
89 | EXISTING BUILDING CONSIDERATIONS |
90 | 15 – BUILDING AUTOMATION SYSTEM |
91 | SYSTEM ARCHITECTURE SEQUENCES OF OPERATION POINT NAMING |
92 | GRAPHIC USER INTERFACE POINT TO POINT CHECKOUT |
94 | 16 – MEASUREMENT AND VERIFICATION ASHRAE GUIDELINE 14 |
95 | INTERNATIONAL PERFORMANCE MEASUREMENTAND VERIFICATION PROTOCOL |
96 | M&V PLAN ACCURACY EXECUTION |
98 | 17 – FAULT DETECTION AND DIAGNOSTICS |
99 | FAULTS DEFINED |
100 | METHODS FOR IMPLEMENTING FDD |
101 | CONSIDERATIONS |
102 | 18 – CONCLUSION |
104 | REFERENCES AND BIBLIOGRAPHY REFERENCES |
107 | BIBLIOGRAPHY |