System Diagrams Symbol Library – Black Background David Sellers

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Presentation transcript:

System Diagrams Symbol Library – Black Background David Sellers Facility Dynamics Engineering 2015-11-06

Notes The symbols are set up for a 0.10 inch grid To get things to line up, the symbols need to be symmetric around the alignment axis. To get that to happen there are “hidden” parts in the symbols. The hidden parts are set to the same color as the background, which is what “hides” them. For example, on a black background, this plug valve symbol appears as follows. But on a non-black background, you would see this. The black line is what will cause the symbol to line up vertically with the middle of something else if you pick the “Align – Center” option. The horizontal alignment (“Align – Middle”) will happen with out an extra hidden line since the symbol size is an even multiple of -.10 inches in the vertical direction. The reason that you have to do this (assuming you want things to line up on the grid, which is a good practice) is that the “Align – Middle” and “Align – Center” commands align all of the selected objects based on the average of their initial positions. So, that needs to be some even multiple of the grid spacing. Even then, the alignments may put you in the middle of a grid reference. But once the objects are aligned to that point, if you keep them highlighted and use the arrow keys (with the snap to grid feature on), they will snap to the nearest grid point and end up on the grid.

Water Systems

Piping Strainer with Blow Down Valve Pressure Relief Valve Pressure Reducing Valve Suction Diffuser Butterfly Valve Plug Valve Gauge Check Valve TT Temperature Transmitter Thermometer in Well Venturi Check Valve PT Pressure Transmitter Thermometer Well FlSw Flow Venturi Flow Switch Gate Valve Fan Coil Solenoid Valve Ball Valve Fan Coil Service Valve Balance Valve 2-Way Control Valve Triple Duty Valve 3-Way Control Valve

Piping Butterfly Valve Gate Valve Ball Valve Triple Duty Valve

Piping Triple Duty Valve

Equipment Chiller ??? Make and Model Cool ?,??? gpm from ??°F to ??°F using ?,??? Gpm of ??° condenser water ??? kW at full load Evaporator Condenser Centrifugal Chiller Plate and Frame Heat exchanger

Equipment Pump ??? Make and Model ?,??? gpm at ?? ft.w.c. Pump ?,??? rpm ?? hp ?? bhp Pump

Equipment Pump ??? Make and Model ?,??? gpm at ?? ft.w.c. Pump ?,??? rpm ?? hp ?? bhp Pump Air Separator Cold water make-up from a back flow preventer Expansion Tank with Make-up

Equipment Pump with service valves and check valve Pump ??? Make and Model ?,??? gpm at ?? ft.w.c. ?,??? rpm ?? hp ?? bhp DP Pump with service valves and check valve Heat Exchanger 1 LPS LPR Heat Exchanger

Equipment Outdoor Air AHU Finned Tube Radiation Load

Equipment Domestic Hot Water Storage Tank and Heater Boiler ??? Make and Model Heat ?,??? gpm from ??°F to ??°F

Equipment Induced Draft Cooling Tower Forced Draft Cooling Tower Make and Model ???,???,??? Btu/hr heat rejection ??/?? hp/bhp fan at ?,??? Rpm ??/?? °F Entering/Leaving Water Temperature at ??°F twb Induced Draft Cooling Tower Forced Draft Cooling Tower Cooling Tower ???? Make and Model ???,???,??? Btu/hr heat rejection ??/?? hp/bhp fan at ?,??? Rpm ??/?? °F Entering/Leaving Water Temperature at ??°F twb

Corridor Make-up Unit Preheat Coil Coil Circulation Pump Make and Model ?,??? gpm at ?? ft.w.c. ?,??? rpm ?? hp ?? bhp Pumped Preheat Coil Heating Coil 1 ??,??? cfm Entering air - ??.?°F Leaving air - ??.?°F Airside ∆p - ??.? in.w.c. ??? Gpm Entering water - ??.? °F Leaving water - ??.? °F Waterside ∆p - ??.? ft.w.c. Maximum face velocity – 500 fpm Minimum rows - ?

Typical Air Handling Unit Heating Coil ??,??? cfm Entering air - ??.?°F Leaving air - ??.?°F Airside ∆p - ??.? in.w.c. ??? Gpm Entering water - ??.? °F Leaving water - ??.? °F Waterside ∆p - ??.? ft.w.c. Maximum face velocity – 500 fpm Minimum rows - ?

Heating Coils – Typical Circuit Typical Meeting Room Reheat Coil Total Flow for the Branch - ??? gpm Typical Coil ??? cfm Entering air - ??.?°F Leaving air - ??.?°F Airside ∆p - ??.? in.w.c. ??? Gpm Entering water - ??.? °F Leaving water - ??.? °F Waterside ∆p - ??.? ft.w.c. Maximum face velocity – 500 fpm Minimum rows - ?

Typical Air Handling Unit Cooling Coil 1 ??,??? cfm Entering air - ??.?°F tdb Entering air - ??.?°F twb Leaving air - ??.?°F tdb Leaving air - ??.?°F twb Airside ∆p - ??.? in.w.c. ??? Gpm Entering water - ??.? °F Leaving water - ??.? °F Waterside ∆p - ??.? ft.w.c. Maximum face velocity – 500 fpm Minimum rows - ? Cooling Coil Typical Air Handling Unit

Cooling Coils – Typical Circuit Typical Guest Room Fan Coil Typical Guest Room Floor Total Flow for the Branch - ??? gpm Cooling Coil 1 ??,??? cfm Entering air - ??.?°F tdb Entering air - ??.?°F twb Leaving air - ??.?°F tdb Leaving air - ??.?°F twb Airside ∆p - ??.? in.w.c. ??? Gpm Entering water - ??.? °F Leaving water - ??.? °F Waterside ∆p - ??.? ft.w.c. Maximum face velocity – 500 fpm Minimum rows - ?

Air Systems

Equipment EF-1 ??,??? cfm at ??.? in.w.c. ??% static efficiency AHU-1 ??,??? cfm at ??.? in.w.c. ??% static efficiency ?,??? rpm, Class ? ??.? bhp, ?? hp motor EF-1 ??,??? cfm at ??.? in.w.c. ??% static efficiency ?,??? rpm, Class ? ??.? bhp, ?? hp motor Propeller Fan Lab Hood

Economizer Section, Louver ?,??? cfm Minimum Outdoor Air ??,??? cfm Maximum Outdoor Air ??,??? cfm Relief Air ??,??? cfm Return Air ??,??? cfm Mixed Air NC Min. OA Damper NO Return Air Damper NC Relief Air Damper NO Max. OA Damper Louver

Filters, Dampers Normally Open (N.O.) Parallel Blade Damper 8 – 24” x 24” x 12” MERV 13 Filters Clean ∆p = 0.15 in.w.c. Dirty ∆p = 0.90 in.w.c. High Efficiency Filter Bank Normally Closed (N.C.) Parallel Blade Damper Normally Open (N.O.) Opposed Blade Damper 8 – 24” x 24” x 2” MERV 7 Filters Clean ∆p = 0.07 in.w.c. Dirty ∆p = 0.50 in.w.c. Low Efficiency Filter Bank/Prefilter Bank Normally Closed (N.C.) Opposed Blade Damper

Fans Fans VFD VFD 5/20/2018 Introduction GreenPrints 2002 – Atalanta, GA

Filters, Dampers Barometric Damper

Coils Cooling Coil 1 Cooling Coil 1 ??,??? cfm ??,??? cfm Entering air - ??.?°F tdb Entering air - ??.?°F twb Leaving air - ??.?°F tdb Leaving air - ??.?°F twb Airside ∆p - ??.? in.w.c. ??? Gpm Entering water - ??.? °F Leaving water - ??.? °F Waterside ∆p - ??.? ft.w.c. Maximum face velocity – 500 fpm Minimum rows - ? Cooling Coil 1 ??,??? cfm Entering air - ??.?°F tdb Entering air - ??.?°F twb Leaving air - ??.?°F tdb Leaving air - ??.?°F twb Airside ∆p - ??.? in.w.c. ??? Gpm Entering water - ??.? °F Leaving water - ??.? °F Waterside ∆p - ??.? ft.w.c. Maximum face velocity – 500 fpm Minimum rows - ? Heating Coil 1 ??,??? cfm Entering air - ??.?°F Leaving air - ??.?°F Airside ∆p - ??.? in.w.c. ??? Gpm Entering water - ??.? °F Leaving water - ??.? °F Waterside ∆p - ??.? ft.w.c. Maximum face velocity – 500 fpm Minimum rows - ? Heating Coil 1 ??,??? cfm Entering air - ??.?°F Leaving air - ??.?°F Airside ∆p - ??.? in.w.c. ??? Gpm Entering water - ??.? °F Leaving water - ??.? °F Waterside ∆p - ??.? ft.w.c. Maximum face velocity – 500 fpm Minimum rows - ?

Evaporative Cooler Direct Evaporative Cooler ??,??? cfm Entering air - ??.?°F tdb Entering air - ??.?°F twb Leaving air - ??.?°F tdb Leaving air - ??.?°F twb Airside ∆p - ??.? in.w.c. ??? Gpm Maximum face velocity – 500 fpm

Fan Coil Unit (Typical) Nominal 500 cfm Loads

Common

Match Line A B Match Line – See Sheet 2 C D