OPERATION and MAINTENANCE MANUAL

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OPERATION and MAINTENANCE MANUAL COMPRESSOR MODELS HP375WJD-T3 (C54) XP375WJD-T3 (C48) P425WJD-T3 (C46) HP375WJD-FX-T3 (E68) XP375WJD-FX-T3 (E69) P425WJD-FX-T3 (E58) This manual contains important safety information. Do not destroy this manual. This manual must be available to the personnel who operate and maintain this compressor. Doosan Infracore Portable Power 1293 Glenway Drive Statesville, N.C. 28625 DoosanPortablePower.com P/N: 23209307 (5-2014) Rev F 2 TABLE OF CONTENTS Operating & Maintenance Manual TITLE PAGE FOREWORD. 9 Information . 10 DECALS . 13 DECALS . 14 SAFETY . 21 Safety . 22 General Information . 22 Compressed Air . 23 Materials . 24 Battery. 24 Radiator. 24 Transport. 25 Safety Chains/Connections and Their Adjustment . 25 NOISE EMISSION. 27 NOISE EMISSION CONTROL MAINTENANCE LOG . 28 Noise Emission Warranty . 28 Introduction . 29 Maintenance Schedule . 29 A. Compressed Air Leaks. 29 B. Safety and Control Systems. .29 C. Acoustic Materials . 29 D. Fasteners . 30 E. Enclosure Panels . 30 F. Air Intake and Engine Exhaust . 30 G. Cooling Systems . 30 H. Isolation Mounts. 30 I. Engine Operation. 30 J. Fuels and Lubricants . 30 GENERAL ARRANGEMENT . 33 General Arrangement . 34 Compressor. 36 Lubricating Oil Specification . 38 Engine. 39 Commissioning . 39 3 TABLE OF CONTENTS Operating & Maintenance Manual TITLE PAGE OPERATING INSTRUCTIONS. 41 Operating Instructions . 42 Prior to Starting . 42 Control Panel . 44 Diagnostic/Auto Shutdown (Standard) . 44 . 46 Starting the Machine . 50 Push After Warm Up . 51 Dual Pressure when Fitted . 51 Stopping the Machine . 51 Emergency Stopping. 51 Re-Starting After an Emergency . 52 Monitoring During Operation. 52 Decommissioning . 52 Engine. 53 Engine Serial Number Plate . .53 Fuels, Lubricants and Coolant . .53 Diesel Fuel . 53 Required Fuel Properties . 53 Sulfur Content: . 53 Bio-Diesel Fuel . 54 Handling and Storing Bio-Diesel Fuel. 54 Diesel Fuel Storage . ..

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Heat Transfer Model of a Rotary Compressor S
Purdue University Purdue e-Pubs International Compressor Engineering Conference School of Mechanical Engineering 1992 Heat Transfer Model of a Rotary Compressor S. K. Padhy General Electric Company Follow this and additional works at: https://docs.lib.purdue.edu/icec Padhy, S. K., "Heat Transfer Model of a Rotary Compressor" (1992). International Compressor Engineering Conference. Paper 935. https://docs.lib.purdue.edu/icec/935 This document has been made available through Purdue e-Pubs, a service of the Purdue University Libraries. Please contact [email protected] for additional information. Complete proceedings may be acquired in print and on CD-ROM directly from the Ray W. Herrick Laboratories at https://engineering.purdue.edu/ Herrick/Events/orderlit.html HEAT TRANSFER MODEL OF A ROTARY COMPRESSOR Sisir K. Padhy General Electric C_ompany Appliance Park 5-2North, Louisville, KY 40225 ABSTRACT Energy improvements for a rotary compressor can be achieved in several ways such as: reduction of various electrical and mechanical losses, reduction of gas leakage, better lubrication, better surface cooling, reduction of suction gas heating and by improving other parameters. To have a ' better understanding analytical/numerical analysis is needed. Although various mechanical models are presented to understand the mechanical losses, dynamics, thermodynamics etc.; little work has been done to understand the compressor from a heat uansfer stand point In this paper a lumped heat transfer model for the rotary compressor is described. Various heat sources and heat sinks are analyzed and the temperature profile of the compressor is generated. A good agreement is found between theoretical and experimental results. NOMENCLATURE D, inner diameter D.
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Why Does the Wisconsin Boiler and Pressure Vessel Code, 636 41
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Performance Comparison Between an Absorption-Compression Hybrid Refrigeration System and a Double-Effect Absorption Refrigeration Sys-Tem
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