York P4LBX20F19001 OIL Tank, Piping Installation, Electrical Connections, Oil Lines

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Table 3: Minimum Chimney Base

Temperatures (°F)

Nozzle

 

Chimney Height (ft.)

 

11

 

20

28

 

36

 

 

 

Chimney Thermal Resistance < R6

 

 

 

 

 

 

0.50

300

 

400

535

 

725

 

 

 

 

 

 

 

0.65

275

 

340

430

 

535

 

 

 

 

 

 

 

0.75

260

 

320

380

 

475

0.85

250

 

300

355

 

430

1.00

245

 

300

355

 

430

1.10

245

 

290

345

 

400

 

 

 

 

 

 

 

1.20

240

 

275

320

 

365

 

 

 

 

 

 

 

1.50

240

 

275

320

 

365

1.65

235

 

270

300

 

345

Nozzle

 

Chimney Height (ft.)

 

 

 

 

 

 

 

11

 

20

28

 

36

 

 

 

 

 

 

 

 

Chimney Thermal Resistance > R6

 

 

 

 

 

 

0.50

185

 

200

220

 

250

0.65

175

 

185

205

 

220

0.75

175

 

185

195

 

210

 

 

 

 

 

 

 

0.85

165

 

185

195

 

205

 

 

 

 

 

 

 

1.00

165

 

185

195

 

205

 

 

 

 

 

 

 

1.10

165

 

185

195

 

205

1.20

165

 

180

190

 

200

1.50

165

 

175

185

 

195

 

 

 

 

 

 

 

1.65

165

 

175

180

 

190

 

 

 

 

 

 

 

<- less than, > - greater than

OIL TANK

Oil storage tanks must be selected and installed in compliance with applicable codes; in the United States, NFPA 31, Standard for the Installation of Oil Burn- ing Equipment, Chapter 2. and in Can- ada, CAN/CSA-B139, Installation Code for Oil Burning Equipment, Section 6. Observe all local codes and by-laws.

In general, the oil tank must be properly supported and remain stable in both empty and full condition. The oil tank must be fitted with vent and supply pipes to the outdoors. Refer to the above- mentioned codes for sizing. The vent pipe must be no less than 1¼ inches I.P.S., and terminate with an appropriate vent cap in a location where it will not be blocked. The fill pipe must be no less than 2 inches I.P.S., and terminate with an appropriate cap in a location where debris will not enter the fill pipe during oil delivery.

If located indoors, the tank should nor- mally be in the lowest level, (cellar, basement, etc.). It must be equipped with a shut-off valve at the tank outlet used for the oil supply. The oil tank must be located as to not block the furnace / room exit pathway. Observe all clear- ances specified in the above-mentioned codes.

PIPING INSTALLATION

In the United States, NFPA 31, Standard for the Installation of Oil Burning Equip- ment, Chapter 2.

In Canada, the entire fuel system should be installed in accordance with the re- quirements of CAN/CSA B139, and local regulations. Use only approved fuel oil tanks piping, fittings and oil filters.

Ensure that all fittings used in a copper oil line system are high quality flare fit- tings. Do not use compression fittings.

Do not use Teflon tape on any fittings.

Pressurized or gravity feed installations must not exceed 3 PSIG. Pressures greater than 10 PSIG may cause dam- age to the shaft seal. If the height of the oil stored in a tank above the oil burner exceeds 11½ feet, it may be necessary to use a pressure-regulating device ap- proved for this purpose.

The furnace may be installed with a one- pipe system with gravity feed or lift. The maximum allowable lift on a single line system is 8 feet. Lift should be measured from the bottom (outlet) of the tank, to the inlet of the burner. Sizing a single line system is complex because of the difficulty estimating the pressure drop through each fitting, bend and compo- nent in the line. In general, keep single line systems short as possible. 2-stage oil pumps are not available for either the P*HMX or P*LBX furnaces. The following chart shows the allowable line lengths (horizontal + vertical) for single and two- line oil piping systems. All distances are in feet.

Table 4: Oil Lines

Copper Tubing Oil Line Length (Feet)

Single-Pipe Two-Pipe

Lift

 

 

 

 

 

 

(Feet)

½” OD

½” OD

 

OD

 

OD

 

0

53

100

68

100

1

49

100

65

100

 

 

 

 

 

2

45

100

63

100

 

 

 

 

 

3

41

100

60

100

 

 

 

 

 

4

37

100

58

100

 

 

 

 

 

Continue

5

33

100

55

100

6

29

100

53

100

 

 

 

 

 

7

25

99

50

100

 

 

 

 

 

8

21

83

48

100

9

17

68

45

100

 

 

 

 

 

10

13

52

42

100

 

 

 

 

 

12

- - -

- - -

37

100

 

 

 

 

 

14

- - -

- - -

32

100

16

- - -

- - -

27

100

 

 

 

 

 

18

- - -

- - -

22

88

 

 

 

 

 

In retrofit applications, where an existing oil line system is in place, a vacuum check will help determine the efficacy of the existing oil line system The vacuum in a system should not exceed 6” Hg. for a single pipe system, nor 12” Hg. for a two-pipe system.

NOTE: The oil burner requires the use of a bypass plug when converting from single-pipe to two-pipe oil piping sys- tems. See burner manufacturer’s instruc- tions.

All fuel systems should include an oil filter between the fuel oil storage tank and the oil burner. For best results, in- stall the oil filter as close to the burner as possible. When using an indoor oil tank, the oil filter may be installed at the tank downstream from the shut-off valve. If firing the furnace under the 0.65 gph rate, a 7 to 10 micron line filter should be installed as close to the oil burner as possible.

ELECTRICAL CONNECTIONS

The furnace is listed by the Canadian Standards Association (CSA). All models except for the P4LBX20F19001 are fac- tory wired and require minimal field wir- ing. The P4LBX20F19001 model is pre- wired except for the wiring connections to the blower motor. The wires from the furnace section are routed through the grommet in the blower section blower division panel, and then connected to the blower motor. In the United States, the wiring must be in accordance with the National Fire Protection Association NFPA-70, National Electrical Code, and with local codes and regulations. In Can- ada, all field wiring should conform to CAN/CSA C22.1 Canadian Electrical Code, Part 1, and by local codes, where they prevail.

The furnace should be wired to a sepa- rate and dedicated circuit in the main electrical panel; however, accessory equipment such as electronic air clean-

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Contents Installation Manual ContentsIntroduction Heat LossLocation of Unit DOWN-FLOW Installation Horizontal Installation NON-SUSPENDED InstallationCombustion AIR Suspended InstallationAIR Conditioning Chimney VentingCommon Chimney Problems Draft Regulator ControlOIL Tank Piping InstallationMinimum Chimney Base Temperatures F Electrical ConnectionsNeutral Wire normally the white wire is Never Moved to AD Circulating AIR BlowerJust the Blower Speed Burner Electrodes ProcedureOIL Burner OIL Burner SET-UPFurnace Installation SET-UP Stack TemperatureSmoke Test Note Maintenance and Service Operating InstructionsDelavan Table A-1 Beckett OIL Burner SET-UPBTU/Hr Pressure Rate PlateTable A-2 Direct Drive Blower SET-UP Table A-3 Belt Drive Blower SET-UPOutput Motor Blower SET-UP Cooling Capacity Furnace Furnace Motor Temp CFM Blower Rise Speed Table A-4 Direct Drive Blower CharacteristicsTable A-5 Belt Drive Blower Characteristics Model FLAGeneral Dimensions P2LBX16F14501 General Dimensions P4LBX20F19001 General Dimensions P3DHX12F08001 General Dimensions P2DHX16F12001 Page Page R7184 Detailed Sequence of Operation Thermostat calls for heatOperation R7184 LED Diagnostic Light R8184N NotesPreliminary Steps Table C-2 R7184 Troubleshooting But Control locks out and starts Before Oil Table C-3 System and General Troubleshooting Problem Possible Cause RemedyLow oil pump pressure Check stack temperature. Stack temperatures will normally P4LBX20F19001 Assembly Notes P3DHX Series Downflow Configuration NotesP3DHX12F08001 Vestibule KIT Repair Part List P3DHX12F08001A Repair Part List P2DHX16F12001A Repair Part List P2LBX16F14501A Repair Part List P4LB Series Replacement Part Contact Information Page Unitary 5005 Norman Products York Group Drive 73069

P4LBX20F19001, P2DHX16F12001, P3DHX12F08001, P2LBX16F14501 specifications

The York P2LBX16F14501, P3DHX12F08001, P2DHX16F12001, and P4LBX20F19001 are high-performance HVAC units designed to meet diverse heating and cooling needs in both residential and commercial environments. These models are notable for their energy efficiency, advanced technologies, and user-friendly features.

The York P2LBX16F14501 is particularly known for its advanced inverter-driven scroll compressors that offer precise temperature control, enhanced efficiency, and significant noise reduction. This model is equipped with a multi-speed blower that helps maintain consistent airflow while ensuring optimum comfort levels. Its compact design allows for flexible installation options, making it suitable for various applications.

In contrast, the York P3DHX12F08001 focuses on delivering robust heating solutions, incorporating a variable-speed fan motor designed for improved energy savings and optimal performance. This unit excels in environments with fluctuating temperature demands, providing reliable heating without sacrificing energy efficiency. With built-in diagnostics, maintenance becomes more manageable, allowing for timely interventions to prevent excessive downtime.

The York P2DHX16F12001 stands out with its dual-fuel capability, allowing users to seamlessly switch between gas and electric sources depending on the prevailing energy costs. This versatility not only ensures year-round comfort but also offers substantial savings on energy bills. The model's high SEER (Seasonal Energy Efficiency Ratio) rating is indicative of its capability to deliver cooling efficiently during peak summer months.

Lastly, the York P4LBX20F19001 is designed for larger spaces, featuring a higher capacity that makes it ideal for commercial applications. This unit leverages advanced refrigerant technologies, enabling it to operate effectively across a wider range of temperatures. Its intelligent control systems can be integrated with building management systems, providing real-time monitoring and remote access to ensure peak operational efficiency.

All four models share a commitment to sustainable design and longevity, integrating modern materials that enhance durability and reduce the environmental footprint. Each unit is engineered with user comfort and energy efficiency in mind, representing York's dedication to innovation and quality in the HVAC industry.