Tecumseh AJEK513ZXA Performance Data Sheet

Performance Data Sheet

AJEK513ZXA

General Information

Model AJEK513ZXA Refrigerant R-404A
Test Condition Tecumseh Europe Performance Test Voltage 100V ~ 50HZ
Return Gas -6.7°C (20°F) SUPERHEAT Motor Type CSR

Performance Information

Evap

Temp (°C)

-23.3

-20

-15

-10

-6.7

-5

0

Condensing Temperature (°C)

30 40 50 60

Watts

(Capacity)

Watts (Power) 726 688 654 617

Amps 9.62 9.34 9.06 8.79
Watts

(Capacity)

Watts (Power) 801 770 753 742

Amps 9.94 9.87 9.82 9.77
Watts

(Capacity)

Watts (Power) 908 887 894 921

Amps 10.5 10.7 11.0 11.2
Watts

(Capacity)

Watts (Power) 1010 995 1020 1090

Amps 11.0 11.6 12.1 12.7
Watts

(Capacity)

Watts (Power) 1070 1060 1100 1190

Amps 11.4 12.1 12.9 13.6
Watts

(Capacity)

Watts (Power) 1100 1090 1140 1240

Amps 11.6 12.4 13.3 14.1
Watts

(Capacity)

Watts (Power) 1180 1180 1250 1390

Amps 12.3 13.3 14.4 15.4

1230 927 676 475

1510 1170 880 639

2000 1590 1240 927

2590 2100 1660 1270

3030 2480 1980 1530

3270 2690 2160 1680

4060 3380 2750 2160

COEFFICIENTS CAPACITY POWER CURRENT MASS FLOW

C1 6.443290E+03 1.696850E+03 9.369604E+00
C2 2.349630E+02 2.973260E+01 1.357653E-03
C3 -8.823550E+01 -3.184260E+01 8.989062E-02

C4 3.068210E+00 -7.831490E-02 2.499693E-03
C5 -2.155770E+00 -8.872470E-01 4.520646E-03
C6 3.116320E-01 5.342220E-01 3.172780E-04
C7 1.277980E-02 3.252860E-06 0.000000E+00
C8 -2.320450E-02 -2.732940E-03 -5.178320E-05
C9 -3.432890E-04 1.412810E-02 -3.600000E-07

C10 -5.208430E-04 -1.497180E-03 -2.150000E-06

Value = C1 + C2 * Te + C4 * Te^2 + C7 * Te^3 + (C3 + C5 * Te + C8 * Te^2) * Tc + (C6 + C9 * Te) * Tc^2 + C10 * Tc^3

Te = Evaporator Temperature

Tc = Condensing Temperature

Performance Data Sheet

AJEK513ZXA

General Information

Model AJEK513ZXA Refrigerant R-404A
Test Condition Tecumseh Europe Performance Test Voltage 115V ~ 60HZ
Return Gas -6.7°C (20°F) SUPERHEAT Motor Type CSR

Performance Information

Evap

Temp (°C)

-23.3

-20

-15

-10

-6.7

-5

0

Condensing Temperature (°C)

30 40 50 60

Watts

(Capacity)

Watts (Power) 887 836 791 758

Amps 9.43 9.14 8.87 8.60
Watts

(Capacity)

Watts (Power) 956 912 882 870

Amps 9.54 9.47 9.41 9.35
Watts

(Capacity)

Watts (Power) 1060 1030 1020 1040

Amps 9.85 10.1 10.3 10.6
Watts

(Capacity)

Watts (Power) 1150 1140 1160 1220

Amps 10.3 10.8 11.3 11.9
Watts

(Capacity)

Watts (Power) 1210 1210 1250 1340

Amps 10.7 11.4 12.1 12.8
Watts

(Capacity)

Watts (Power) 1240 1250 1300 1400

Amps 10.9 11.7 12.5 13.2
Watts

(Capacity)

Watts (Power) 1320 1350 1440 1590

Amps 11.7 12.7 13.7 14.7

1450 1100 809 578

1780 1380 1050 771

2360 1880 1470 1110

3050 2480 1960 1510

3570 2920 2340 1820

3860 3170 2550 1990

4790 3980 3240 2550

COEFFICIENTS CAPACITY POWER CURRENT MASS FLOW

C1 7.655570E+03 1.530210E+03 8.868804E+00
C2 2.786260E+02 1.362830E+01 3.165100E-02
C3 -1.074710E+02 -1.375100E+01 8.730794E-02

C4 3.624230E+00 -3.115990E-01 4.311071E-03
C5 -2.610370E+00 -2.499450E-01 4.596351E-03
C6 4.273390E-01 2.047050E-01 2.923510E-04
C7 1.501510E-02 2.689240E-04 0.000000E+00
C8 -2.767610E-02 6.662280E-03 -4.107770E-05
C9 9.780000E-05 1.080090E-02 -3.600000E-07

C10 -8.911840E-04 6.736470E-04 -1.980000E-06

Value = C1 + C2 * Te + C4 * Te^2 + C7 * Te^3 + (C3 + C5 * Te + C8 * Te^2) * Tc + (C6 + C9 * Te) * Tc^2 + C10 * Tc^3

Te = Evaporator Temperature

Tc = Condensing Temperature