Outdoor

 

Indoor

 

PGC42

 

 

 

 

PGC48

 

 

PGC60 and PGB58

 

Air Temp.

 

Air

Indoor

Pressure @ Unit

Amps

Indoor

 

Pressure @ Unit

Amps

Indoor

Pressure @ Unit

Amps

at

 

Temp.

Air Temp.

Gauge Fittings

Air Temp.

 

Gauge Fittings

Air Temp.

Gauge Fittings

 

 

 

 

 

Condenser

at Evap.

Difference

 

 

 

 

Difference

 

 

 

 

Difference

 

 

 

Inlet

 

Inlet

 

 

 

 

 

 

 

 

 

 

 

 

Between

Low

 

High

Total to

Between

 

Low

High

Total to

Between

Low

High

Total to

(Dry Bulb)

 

(Wet Bulb)

 

 

 

Coil Inlet

Side

 

Side

Unit

Coil Inlet

 

Side

Side

Unit

Coil Inlet

Side

Side

Unit

 

 

 

 

 

 

 

 

and Outlet

 

 

 

 

and Outlet

 

 

 

 

and Outlet

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

A

B

C

 

D

E

B

 

C

D

E

B

C

D

E

° F.

 

° F.

° F.

PSIG

 

PSIG

Amps

° F.

 

PSIG

PSIG

Amps

° F.

PSIG

PSIG

Amps

 

 

77

7

86

 

332

23.1

8

 

88

327

23.8

9

83

343

34.9

115

 

72

12

85

 

331

23.1

13

 

88

327

23.8

15

83

342

34.8

 

 

67

18

85

 

332

23.1

18

 

88

327

23.8

21

82

342

34.7

 

 

62

23

84

 

332

23.2

24

 

87

326

23.7

26

81

341

34.6

 

 

77

8

85

 

313

22.2

8

 

88

308

23.2

10

82

323

33.3

110

 

72

13

85

 

313

22.2

13

 

87

308

23.2

15

82

322

33.2

 

 

67

18

84

 

312

22.1

18

 

87

308

23.1

21

81

322

33.2

 

 

62

23

83

 

311

22.1

24

 

86

307

23.1

27

80

321

33.1

 

 

77

8

84

 

294

21.3

8

 

87

291

22.5

10

82

303

31.8

105

 

72

13

84

 

293

21.2

13

 

86

290

22.5

15

81

303

31.8

 

 

67

18

83

 

294

21.3

18

 

86

290

22.5

21

80

303

31.8

 

 

62

23

82

 

293

21.2

24

 

85

290

22.4

27

80

302

31.7

 

 

77

8

84

 

277

20.4

8

 

86

274

21.9

10

81

285

30.5

100

 

72

13

83

 

276

20.4

13

 

86

273

21.9

15

80

285

30.4

 

 

67

18

83

 

275

20.4

19

 

85

273

21.8

21

80

285

30.5

 

 

62

24

82

 

274

20.3

24

 

84

272

21.8

27

79

284

30.4

 

 

77

8

83

 

259

19.6

8

 

85

256

21.3

10

80

268

29.2

95

 

72

13

82

 

258

19.6

13

 

85

257

21.2

16

80

267

29.2

 

 

67

18

82

 

257

19.5

19

 

84

256

21.2

22

79

267

29.2

 

 

62

24

81

 

256

19.5

25

 

84

255

21.1

28

78

266

29.1

 

 

77

8

82

 

241

18.8

8

 

84

240

20.6

10

79

251

28.1

90

 

72

13

82

 

241

18.8

14

 

84

240

20.6

16

79

250

28.0

 

 

67

19

81

 

240

18.8

19

 

83

240

20.6

22

78

250

28.0

 

 

62

24

80

 

240

18.8

25

 

83

239

20.5

28

77

249

27.9

 

 

77

8

82

 

226

18.1

9

 

84

225

20.0

11

79

234

27.0

85

 

72

13

81

 

224

18.1

14

 

83

225

20.0

16

78

234

26.9

 

 

67

19

81

 

225

18.1

19

 

83

224

20.0

22

78

233

26.9

 

 

62

24

80

 

223

18.0

25

 

82

224

19.9

28

77

232

26.8

 

 

77

8

81

 

211

17.5

9

 

83

200

19.4

11

78

218

25.9

80

 

72

13

81

 

210

17.5

14

 

82

210

19.4

16

78

218

25.9

 

 

67

19

80

 

211

17.5

20

 

82

209

19.4

22

77

218

25.9

 

 

62

24

79

 

208

17.4

25

 

81

209

19.3

28

76

217

25.8

 

 

77

9

80

 

196

16.9

9

 

82

196

18.8

11

78

204

25.0

75

 

72

14

80

 

196

16.9

14

 

82

196

18.8

16

77

203

24.9

 

 

67

19

79

 

194

16.8

20

 

81

195

18.8

22

76

203

24.9

 

 

62

25

79

 

194

16.8

25

 

80

195

18.8

28

76

202

24.8

A Columns -

All data based on indoor dry bulb of 80° F and rated air flow. As indoor dry bulb temperature increases, a slight increase will occur in indoor air temperature differential

B Columns -

 

between inlet and outlet. Low and high side pressures and power will not change.

 

 

 

 

 

 

 

A properly operating unit should be within ±3° F of the typical (dry bulb) value shown.

 

 

 

 

 

 

 

C Columns -

A properly operating unit should be within ±3 PSIG of the typical value shown.

 

 

 

 

 

 

 

D Columns -

A properly operating unit should be within ±7 PSIG of the typical value shown.

 

 

 

 

 

 

 

E Columns -

A properly operating unit should be within ±2 amps of the typical value shown.

 

 

 

 

 

 

 

Table 8B

28

Page 28
Image 28
Amana PGC(24-60)B, PGB58B installation instructions Psig

PGB58B, PGC(24-60)B specifications

Amana, a trusted name in heating and cooling, offers several high-efficiency gas furnace models, including the PGC(24-60)B and PGB58B. These furnaces combine innovation, reliability, and advanced technology to provide an optimal heating solution for any home.

One of the standout features of the Amana PGC(24-60)B is its modulating heating capability. This technology allows the furnace to operate at different heating levels based on the home’s demands. Instead of simply turning on and off, the PGC adjusts its output to maintain a consistent temperature, promoting energy efficiency and comfort. This not only reduces energy consumption but also minimizes temperature fluctuations, providing a more comfortable indoor environment.

The PGB58B model is designed with a focus on efficiency, boasting an Annual Fuel Utilization Efficiency (AFUE) rating of up to 96%. This means that a higher percentage of the fuel used is converted into heat, making it one of the most efficient choices available. The combination of high-efficiency design and advanced components makes the PGB58B an excellent option for homeowners looking to reduce their energy bills while enjoying reliable heating performance.

Both models come equipped with a durable casing, ensuring longevity and performance. The rust-resistant and heavy-gauge steel construction protects against harsh weather conditions, making them suitable for various climates. Additionally, they feature a multi-speed blower motor, which optimizes airflow and enhances comfort by evenly distributing warm air throughout the home.

Advanced diagnostics and self-monitoring capabilities are integral to these models. The built-in diagnostic system enables quick identification of performance issues, allowing for timely maintenance and reducing repair costs. Furthermore, these furnaces are designed to be compatible with smart home technology, allowing homeowners to control their heating systems remotely and maximize energy efficiency.

In summary, the Amana PGC(24-60)B and PGB58B gas furnaces stand out for their innovative features and commitment to energy efficiency. With modulating heating, high AFUE ratings, durable construction, and smart technology compatibility, they offer reliable heating solutions that ensure comfort while keeping energy costs low. Homeowners can feel confident in their investment, knowing they have chosen a furnace that prioritizes both performance and sustainability.