Essay Available:
You are here: Home → Case Study → Literature & Language
Pages:
20 pages/≈5500 words
Sources:
No Sources
Level:
APA
Subject:
Literature & Language
Type:
Case Study
Language:
English (U.S.)
Document:
MS Word
Date:
Total cost:
$ 39.95
Topic:
Pipeline Optimization Project: Engineering Calculations for Heat Transfer and Energy Efficiency (Case Study Sample)
Instructions:
This document contains engineering calculations for a pipeline project, primarily focusing on optimizing oil or fluid transport efficiency. The task involves calculating key pipeline parameters, including heat transfer rates, insulation resistance, pressure drops, and pump power requirements. It also addresses maintaining specific temperatures along the pipeline length to reduce energy costs.
The sample includes formulas and data for heat transfer, thermal conductivity, insulation effectiveness, and pressure loss. These calculations help estimate the ideal materials, insulation thickness, and flow conditions required to achieve efficient pipeline operation under varying environmental conditions. source..
Content:
Oil Distribution Design
Design Criteria
Mass Flow Rate (M) kg/s
44
Specific Heat (Cp) J/kg-k
1930
T∞1-Permafrost Temp (°C)
-4
Ts2- Outside insulation Temp (°C)
0
Length of Pipe (meters)
32000
Insolation Thermo Conductivity (W/m°C)
0.036
h(i) - Inside heat transfer coefficient (W/m²K)
113
h(o) - outside heat transfer coefficient (W/m²K)
7.2
Pip
Pipe inner Diameter (mm)
428.66
Pipe inner Diameter (meters)
0.42866
Pipe outside Diameter (mm)
457.2
Pipe outside Diameter (meters)
0.4572
D(o) of insulation (m) D2
0.8
Thermal Conductivity W/m-°C
0.036
Insulation Thickness (δ)
0.1714
Area
A(i) - Inside Area of the Pipe (m²)
1.346675107
A(o) - Outside Area of the Pipe w/ insulation (m²)
2.513274123
Heat Transfer Coefficient
[1/h(i)A(i)] Inside Convective Resistance (m²-°C/W)
0.006571412
[1/h(o)A(o)] Outside Convective Resistance (m²-
°C/W)
0.055262133
[δ/(k(A(i)+A(o))/2)] Insulation Resistance (m²-°C/W)
2.466929396
Overall Heat Transfer Coefficient U ((W/m²°C)
0.293649354
Inlet Temperature
Conduction from inner pipe to Insulation
8.66124E-05
Conduction from insulation to Permafrost
1158116.716
Inlet Temperature
100
Temperature Distribution
Let "A" be (U*PI*D)/(M*cp)
4.65674E-06
C=-ln(T+4°C)
-4.647341159
Length of Travel (Meters)
Temperature
0
100.31
1000
99.82
2000
99.34
3000
98.86
4000
98.38
5000
97.91
6000
97.43
7000
96.96
8000
96.49
9000
96.03
10000
95.56
11000
95.10
12000
94.64
13000
94.18
14000
93.72
15000
93.27
16000
92.82
17000
92.37
18000
91.92
19000
91.47
20000
91.03
21000
90.59
22000
90.15
23000
89.71
24000
89.28
25000
88.84
26000
88.41
27000
87.98
28000
87.56
29000
87.13
30000
86.71
31000
86.29
32000
85.87
Electrical Results
Total Pressure Drop
3529948.211
Pump Work (Includes loss)
170849493.4
Pump electricity power (pump work /efficiency)
227799324.6
Heating power needed
635.3932338
Heater electricity (Heating power/efficiency)
668.8349829
Total electricity (watts)
227799993.4
Total electricity (watts) per day
2636.573998
Cost Results
Electrical Cost ($/hr)
0.24
Pump electricity power (pump work /efficiency)
Heater electricity (Heating power/efficiency)
ingPipe thickness (mm)14.27ingPipe thickness (mm)14.27
0.02
Pipe Rougness
0.000045
Cross Sectional Area
Cross-sectional area of pipe (m²)
0.144316438
Specific Gravity of Crude Oil at 30° respect to Temperature
Empirical Formula
Velocity (m/s)
Reynold'
Specific Gravity
Density (kg/m^3)
Viscosity (Pa.s)
0.821
820.81
0.050525811
0.371445764
2586.6
640080685800
0.821
821.10
0.052269158
0.371315764
2500.3
0.821
821.38
0.054064137
0.371186459
2417.3
0.822
821.67
0.055911987
0.371057844
2337.4
0.822
821.95
0.057813965
0.370929915
2260.5
0.822
822.23
0.059771354
0.370802667
2186.
0.823
822.51
0.061785456
0.370676098
2115.2
0.823
822.79
0.063857593
0.370550202
2046.6
0.823
823.07
0.06598911
0.370424976
1980.5
0.823
823.35
0.068181374
0.370300416
1916.8
0.824
823.62
0.070435774
0.370176518
1855.4
0.824
823.90
0.072753718
0.370053278
1796.3
0.824
824.17
0.075136639
0.369930691
1739.3
0.824
824.44
0.077585991
0.369808755
1684.4
0.825
824.71
0.080103249
0.369687465
1631.5
0.825
824.98
0.082689912
0.369566818
1580.5
0.825
825.25
0.0853475
0.36944681
1531.2
0.826
825.52
0.088077555
0.369327436
1483.8
0.826
825.78
0.090881642
0.369208693
1438.0
0.826
826.05
0.093761348
0.369090578
1393.8
0.826
826.31
0.096718284
0.368973087
1351.2
0.827
826.57
0.099754081
0.368856216
1310.1
0.827
826.83
0.102870394
0.368739961
1270.4
0.827
827.09
0.106068901
0.368624319
1232.1
0.827
827.35
0.1093513
0.368509287
1195.1
0.828
827.61
0.112719316
0.36839486
1159.4
0.828
827.86
0.116174691
0.368281035
1124.9
0.828
828.12
0.119719195
0.368167809
1091.6
0.828
828.37
0.123354617
0.368055178
1059.4
0.829
828.62
0.127082771
0.367943139
1028.4
0.829
828.87
0.13090549
0.367831688
998.37
0.829
829.12
0.134824634
0.367720822
969.34
0.829
829.37
0.138842082
0.367610537
941.30
Pressure Drop
s Number
Friction
ΔP (
1/2*fD*density*V^2*
43301
0.024742492
0
70279
0.025596209
3379.970847
55689
0.02647521
6989.650457
63902
0.027380102
10839.06581
65413
0.028311501
14938.55763
53654
0.029270035
19298.78682
59147
0.03025634
23930.74095
20375
0.031271066
28845.74072
12391
0.03231487
34055.44655
32145
0.033388422
39571.86514
81144
0.034492401
45407.35609
65237
0.035627499
51574.63853
94407
0.036794415
58086.7978
82577
0.037993863
64957.29215
47425
0.039226564
72199.95945
10208
0.040493253
79829.02394
95594
0.041794674
87859.10296
31503
0.043131582
96305.21374
48959
0.044504743
105182.7802
81942
0.045914936
114507.6397
67256
0.047362947
124296.0498
44395
0.048849577
134564.6953
55423
0.050375636
145330.6947
44854
0.051941945
156611.6073
59543
0.053549336
168425.4396
48578
0.055198653
180790.6528
63179
0.056890751
193726.1688
56604
0.058626495
207251.3773
84054
0.060406761
221386.1427
02588
0.062232438
236150.8106
10391
0.064104424
251566.2146
99372
0.066023628
267653.683
14316
0.067990973
284435.0454
Oil Distribution Design
Design Criteria
Mass Flow Rate (M) kg/s
44
Specific Heat (Cp) J/kg-k
1930
T∞1-Permafrost Temp (°C)
-4
Ts2- Outside insulation Temp (°C)
0
Length of Pipe (meters)
32000
Insolation Thermo Conductivity (W/m°C)
0.036
h(i) - Inside heat transfer coefficient (W/m²K)
113
h(o) - outside heat transfer coefficient (W/m²K)
7.2
Pip
Pipe inner Diameter (mm)
477.82
Pipe inner Diameter (meters)
0.47782
Pipe outside Diameter (mm)
508
Pipe outside Diameter (meters)
0.508
D(o) of insulation (m) D2
0.8
Thermal Conductivity W/m-°C
0.036
Insulation Thickness (δ)
0.146
Area
A(i) - Inside Area of the Pipe (m²)
1.501115802
A(o) - Outside Area of the Pipe w/ insulation (m²)
2.513274123
Heat Transfer Coefficient
[1/h(i)A(i)] Inside Convective Resistance (m²-°C/W)
0.00589532
[1/h(o)A(o)] Outside Convective Resistance (m²-
°C/W)
0.055262133
[δ/(k(A(i)+A(o))/2)] Insulation Resistance (m²-°C/W)
2.020509035
Overall Heat Transfer Coefficient U ((W/m²°C)
0.320018181
Inlet Temperature
Conduction from inner pipe to Insulation
7.15706E-05
Conduction from insulation to Permafrost
1158116.716
Inlet Temperature
83
Temperature Distribution
Let "A" be (U*PI*D)/(M*cp)
5.6569E-06
C=-ln(T+4°C)
-4.464610017
Length of Travel (Meters)
Temperature
0
82.89
1000
82.40
2000
81.91
3000
81.43
4000
80.94
5000
80.46
6000
79.99
7000
79.51
8000
79.04
9000
78.57
10000
78.11
11000
77.65
12000
77.18
13000
76.73
14000
76.27
15000
75.82
16000
75.37
17000
74.92
18000
74.48
19000
74.03
20000
73.59
21000
73.15
22000
72.72
23000
72.29
24000
71.86
25000
71.43
26000
71.00
27000
70.58
28000
70.16
29000
69.74
30000
69.33
31000
68.91
32000
68.50
Results
Total Pressure Drop
7641381.846
Pump Work (Includes loss)
369842881.3
Pump electricity power (pump work /efficiency)
493123841.8
Heating power needed
633.0261024
Heater electricity (Heating power/efficiency)
666.3432656
Total electricity (watts)
493124508.1
Total electricity (watts) per day
5707.459585
ingPipe thickness (mm)15.09ingPipe thickness (mm)15.09
0.02
Pipe Rougness
0.000045
Cross Sectional Area
Cross-sectional area of pipe (m²)
0.179315788
Specific Gravity of Crude Oil at 30° respect to Temperature
Empirical Formula
Velocity (m/s)
Reynold'
Specific Gravity
Density (kg/m^3)
Viscosity (Pa.s)
0.831
831.14
0.17103945
0.295230381
685.49
640080381000.831
0.832
0.832
0.832
0.833
0.833
0.833
0.833
0.834
0.834
0.834
0.835
0.835
0.835
0.835
0.836
0.836
0.836
0.836
0.837
0.837
0.837
0.837
0.838
0.838
0.838
0.838
0.839
0.839
0.839
0.839
0.840
831.43
831.72
832.00
832.29
832.57
832.86
833.14
833.42
833.70
833.97
834.25
834.52
834.79
835.06
835.33
835.60
835.86
836.13
836.39
836.65
...
Get the Whole Paper!
Not exactly what you need?
Do you need a custom essay? Order right now:
Other Topics:
- EUROPEAN ARRIVALDescription: EUROPEAN ARRIVAL Literature & Language Case Study...1 page/≈550 words| 2 Sources | APA | Literature & Language | Case Study |
- EMR TRANSITIONS:Challenges and Recommendations for Hospital SystemsDescription: EMR TRANSITIONS:Challenges and Recommendations for Hospital Systems Literature & Language Case Study...6 pages/≈1650 words| 3 Sources | APA | Literature & Language | Case Study |
- Safe lifting ergonomics program for truck-loaders in Nigerian block-making industries: Description: Safe lifting ergonomics program for truck-loaders in Nigerian block-making industries: Literature & Language Case Study...2 pages/≈550 words| 1 Source | APA | Literature & Language | Case Study |