practica tuberias
TRANSCRIPT
-
8/19/2019 Practica Tuberias
1/26
Tablas de datos experimentales
Tubo recto
CorridaGv
l
min
Tramo C-D
CCl4
∆ H cm
Tramo I-J
CCl4
∆ H cm
Tramo M-NHg∆Hcm
1 9 1.7 1.5 0.72 12 3 2.5 1.23 16 5.1 4.5 1.94 20 7.6 5.5 2.7
Ramal de accesorios
CorridaGv
litro!mi"
Tramo #-$Codo %Hg&
'H (m
Tramo )-*Com+,rta%C
Cl4&'H (m
Tramo G-HGloo %Hg&
'H (m
Tramo /-(to%CCl4&'H (m
1 0.2 4.5 0. 52 10 0. 6.5 1.1 7.53 12 1 10.5 1.4 114 16 1.3 17.3 2.7 19.3
c
m p g
g H P )( ρ ρ −∆=∆
ara
∆ P
d (ada dato
-
8/19/2019 Practica Tuberias
2/26
• IN)# D) T$/ )CT/
Tramo C-D %CCl4&
2
2
2
33
2
1 945.981.9
81.9
)10001585(107.1 m
kgf
skgf
mkg
s
m
m
kg
m
kg
m x P =
−
−−=∆
−
2
2
2
33
2
2 55.17
81.9
81.9
)10001585(100.3m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
2
2
2
33
2
3 83.29
81.9
81.9
)10001585(101.5m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
2
2
2
33
2
4 4.44
81.9
81.9)10001585(10.7
m
kgf
skgf
mkg sm
m
kg
m
kg m x P =
−
−−=∆
−
2
2
2
33
2
1 77.8
81.9
81.9
)10001585(105.1m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
Tramo I-J %CCl4&
-
8/19/2019 Practica Tuberias
3/26
2
2
2
33
2
2 2.14
81.9
81.9
)10001585(105.2m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
2
2
2
33
2
3 32.2
81.9
81.9)10001585(105.4
m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
2
2
2
33
2
4 17.32
81.9
81.9
)10001585(105.5
m
kgf
skgf mkg
s
m
m
kg
m
kg m x P =
−−
−=∆ −
Tramo M-N %Hg&
2
2
2
33
2
1 2.88
81.9
81.9)10001300(107.0
m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
2
2
2
33
2
2 2.151
81.9
81.9
)10001300(102.1m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
-
8/19/2019 Practica Tuberias
4/26
2
2
2
33
2
3 4.239
81.9
81.9
)10001300(109.1m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
2
2
2
33
2
4 2.340
81.9
81.9)10001300(107.2
m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
•
#M# D) #CC)I/I/.
2
2
2
33
2
1 2.25
81.9
81.9
)10001300(102.0m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
Tramo #-$ (odo %Hg&
2
2
2
33
2
2 8.100
81.9
81.9
)10001300(108.0m
kgf
skgf
mkg sm
m
kg
m
kg m x P =
−
−−=∆
−
2
2
2
33
2
3 12
81.9
81.9
)10001300(101m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
-
8/19/2019 Practica Tuberias
5/26
2
2
2
33
2
4 8.13
81.9
81.9
)10001300(103.1m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
Tramo )-* Com+,rta %CCl4&
2
2
2
33
2
1 32.2
81.9
81.9
)10001585(105.4
m
kgf
skgf mkg
s
m
m
kg
m
kg m x P =
−
−−=∆
−
2
2
2
33
2
2 02.38
81.9
81.9
)10001585(105.m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
2
2
2
33
2
3 42.1
81.9
81.9)10001585(105.10
m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
2
2
2
33
2
4 20.101
81.9
81.9
)10001585(103.17m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
-
8/19/2019 Practica Tuberias
6/26
Trato G-H Gloo %Hg&
2
2
2
33
2
1 8.100
81.9
81.9
)10001300(108.0m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
2
2
2
33
2
2 .138
81.9
81.9)10001300(101.1
m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
2
2
2
33
2
3 4.17
81.9
81.9)10001300(104.1
m
kgf
skgf
mkg sm
m
kg
m
kg m x P =
−
−−=∆
−
2
2
2
33
2
4 2.340
81.9
81.9)10001300(107.2
m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
2
2
2
33
2
1 2.29
81.9
81.9
)10001585(105m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
Tramo /- %CCl4&
2
2
2
33
2
2 87.43
81.9
81.9
)10001585(105.7m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
-
8/19/2019 Practica Tuberias
7/26
2
2
2
33
2
3 35.4
81.9
81.9
)10001585(1011m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
2
2
2
33
2
4 9.112
81.9
81.9)10001585(103.19
m
kgf
skgf
mkg s
m
m
kg
m
kg m x P =
−
−−=∆
−
Tubo recto
CorridaGv
l
min
Tramo C-D
CCl4
∆ P kgf
m2
Tramo I-J
CCl4
∆ P kgf
m2
Tramo M-N%Hg&
∆ P kgf
m2
1 9 9.9 .7 .22 12 17.5 14.6 151.23 16 29. 26.3 239.4
4 20 44.4 32.1 340.2
Ramal de accesorios
CorridaGv
litro!mi"
Tramo #-$Codo %Hg&
∆ P kgf
m2
Tramo )-*Com+,rta%C
Cl4&
∆ P kgf
m2
Tramo G-HGloo %Hg&
∆ P kgf
m2
Tramo /-(to%CCl4&
∆ P kgf
m2
1 25.2 26.3 100. 29.22 10 100. 3.0 13.6 43.3 12 126 61.4 176.4 64.34 16 163. 101.2 340.2 112.9
-
8/19/2019 Practica Tuberias
8/26
T$/ )CT/ D) #-$ 8 0.619m
T$/ )CT/ D) )-* 8 1.074 m
T$/ )CT/ D) G-H 8 0.194m
Cálculos
Tubo recto
Serie de cálculo para el tramo C-D CCl4
ρCCl4
=1585 Kg
m3
ρ H 2
O=1000 Kg
m3
g=9.81m
s2 gc=9.81
Kg∗m
Kgf ∗s2
L=1.5m di=0.0254m μ H 2
O=0.001 Kg
m3
εhierro fundido=0.26mm
G#T/ /M:TIC/ %m3!&
Gv1=9
l
min∗1
m
3
1000 l ∗1min
60 s =1.5∗10−4
m3
s
Gv2=12
l
min∗1m3
1000 l ∗1min
60s =2.0∗10−4
m3
s
Gv3=16
l
min∗1m3
1000 l ∗1min
60s =2.7∗10−4
m3
s
-
8/19/2019 Practica Tuberias
9/26
Gv4=20
l
min∗1m3
1000 l ∗1min
60s =3.3∗10−4
m3
s
((i;" tra"vral i"tr"a d la t,r
-
8/19/2019 Practica Tuberias
10/26
N>mro d ?"old
ℜ=di∗ ∗ ρ H
2O
μ H 2O
ℜ1=
0.0254m∗0.2960 ms ∗1000 Kg
m3
0.001 Kg
m3
=7519.13
ℜ2=
0.0254m∗0.3947m
s∗1000
Kg
m3
0.001 Kg
m3
=10025.8
ℜ3=
0.0254 m∗0.5262m
s∗1000
Kg
m3
0.001 Kg
m3
=13367.7
ℜ4=
0.0254m∗0.6578 m
s∗1000
Kg
m3
0.001 Kg
m3
=16709.6
,goidad lativa
!= ε
di=
0.26mm
25.4mm=0.010236
!bteniendo el "actor de darc#$ con a#uda de Re # R
f 1=0.045 f 2=0.04 5 f 3=0.045 f 4=0.045
-
8/19/2019 Practica Tuberias
11/26
Ca
-
8/19/2019 Practica Tuberias
12/26
∆ P4=
f ∗ L∗ 2
2∗di∗g ∗ ρ H
2O∗g
gc=
0.045∗1.5m∗(0.6578 ms )2
2∗0.0254m∗9.81 m
s2
∗1000 Kg
m3∗9.81
m
s2
9.81
Kg∗m Kgf ∗s2
∆ P4=54.93
Kgf
m2
Serie de cálculo para el tramo I-J CCl4
ρCCl4=1585 Kg
m3
ρ H 2
O=1000 Kgm
3 g=9.81 m
s2 gc=9.81 Kg∗m
Kgf ∗s2
L=1.5m di=0.0254m μ H 2
O=0.001 Kg
m3
εhierro g$lv$ni%$do=0.15mm
G#T/ /M:TIC/ %m3!&
Gv1=9
l
min∗1m3
1000 l ∗1min
60 s =1.5∗10−4
m3
s
Gv2=12
l
min∗1m3
1000 l ∗1min
60s =2.0∗10−4
m3
s
Gv3=16
l
min∗1m3
1000 l ∗1min
60s =2.7∗10−4
m3
s
-
8/19/2019 Practica Tuberias
13/26
Gv4=20
l
min∗1m3
1000 l ∗1min
60s =3.3∗10−4
m3
s
((i;" tra"vral i"tr"a d la t,rmro d ?"old
ℜ=di∗ ∗ ρ H 2O
μ H 2O
ℜ1=
0.0254m∗0.2960m
s ∗1000
Kg
m3
0.001 Kg
m3
=7519.13
-
8/19/2019 Practica Tuberias
14/26
ℜ2=
0.0254m∗0.3947m
s∗1000
Kg
m3
0.001 Kg
m3
=10025.8
ℜ3=
0.0254 m∗0.5262m
s∗1000
Kg
m3
0.001 Kg
m3
=13367.7
ℜ4=
0.0254m∗0.6578 m
s∗1000
Kg
m3
0.001 Kg
m3
=16709.6
,goidad lativa
!= ε
di=
0.15mm
25.4mm=0.005906
!bteniendo el "actor de darc#$ con a#uda de Re # R
f 1=0.04 f 2=0.04 f 3=0.036 f 4=0.036
Ca
-
8/19/2019 Practica Tuberias
15/26
" =f ∗ L∗ 2
2∗di∗g ∆ P= " ∗# # =
ρ H 2
O∗g
gc
∆ P1=
f ∗ L∗ 2
2∗di∗g∗ ρ H
2O∗g
gc=
0.04∗1.5m∗(0.2960 ms )2
2∗0.0254 m∗9.81 m
s2
∗1000 Kg
m3∗9.81
m
s2
9.81 Kg∗m Kgf ∗s2
∆ P1=10.88
Kgf
m2
∆ P2=
f ∗ L∗ 2
2∗di∗g∗ ρ H
2O∗g
gc=
0.04∗1.5m∗(0.3947 ms )2
2∗0.0254 m∗9.81m
s2
∗1000 Kg
m3∗9.81
m
s2
9.81 Kg∗m Kgf ∗s2
∆ P2=18.49
Kgf
m
2
∆ P3=
f ∗ L∗ 2
2∗di∗g∗ ρ H
2O∗g
gc=
0.036∗1.5m∗(0.5262 ms )2
2∗0.0254m∗9.81m
s2
∗1000 Kg
m3 ∗9.81
m
s2
9.81 Kg∗m Kgf ∗s2
∆ P3=31.61
Kgf
m2
-
8/19/2019 Practica Tuberias
16/26
∆ P4=
f ∗ L∗ 2
2∗di∗g ∗ ρ H
2O∗g
gc=
0.036∗1.5m∗(0.6578 ms )2
2∗0.0254m∗9.81 m
s2
∗1000 Kg
m3∗9.81
m
s2
9.81
Kg∗m Kgf ∗s2
∆ P4=48.12
Kgf
m2
Serie de cálculo para el tramo M-N (Hg)
ρ Hg=13600 Kg
m3
ρ H 2
O=1000 Kg
m3
g=9.81 m
s2 gc=9.81
Kg∗m
Kgf ∗s2
L=1.5m di=0.0127m μ H 2
O=0.001 Kg
m3
εhierrog $lv$ni%$do=0.15mm
G#T/ /M:TIC/ %m3!&
Gv1=9
l
min∗1m3
1000 l ∗1min60 s
=1.5∗10−4 m3
s
-
8/19/2019 Practica Tuberias
17/26
Gv2=12
l
min∗1m3
1000 l ∗1min
60s =2.0∗10−4
m3
s
Gv3=16
lmin
∗1m3
1000 l ∗1min
60s =2.7∗10−4
m3
s
Gv4=20
l
min∗1m3
1000 l ∗1min
60s =3.3∗10−4
m3
s
((i;" tra"vral i"tr"a d la t,rmro d ?"old
-
8/19/2019 Practica Tuberias
18/26
ℜ=di∗ ∗ ρ H
2O
μ H 2O
ℜ1=
0.0127m∗1.184 m
s
∗1000 Kg
m
3
0.001 Kg
m3
=15038.26
ℜ2=
0.0127m∗1.578 m
s∗1000
Kg
m3
0.001 Kg
m3
=20051.02
ℜ3=
0.0127m∗2.105m
s ∗1000 Kg
m3
0.001 Kg
m3
=26734.69
ℜ4=
0.0127m∗2.631m
s ∗1000
Kg
m3
0.001 Kg
m3
=33418.36
,goidad lativa
!= ε
di=
0.15mm
12.7mm=0.01181
!bteniendo el "actor de darc#$ con a#uda de Re # R
f 1=0.044 f 2=0.044 f 3=0.042 f 4=0.042
-
8/19/2019 Practica Tuberias
19/26
Ca
-
8/19/2019 Practica Tuberias
20/26
∆ P3=31.61
Kgf
m2
∆ P4=
f ∗ L∗ 2
2∗di∗g ∗ ρ H
2O∗g
gc=
0.042∗1.5m∗(2.631 ms )2
2∗0.0254 m∗9.81m
s2
∗1000 Kg
m3 ∗9.81
m
s2
9.81 Kg∗m Kgf ∗s2
∆ P4=48.12
Kgf
m2
Cálculo de las relaciones de caídas de presión
$=
∆ P P C − D
∆ P P & −'
$1=
9.45 Kgf
m2
8.77 Kgf
m2
=1.13$2=
17.55 Kgf
m2
14.62 Kgf
m2
=1.20
$3=
29.83 Kgf
m2
26.32 Kgf m
2
=1.13$4=
44.46 Kgf
m2
32.17 Kgf m
2
=1.38
(=∆ P P ) − *
∆ P P & −'
-
8/19/2019 Practica Tuberias
21/26
(1=
88.2 Kgf
m2
8.77 Kgf
m2
=10.05(2=
151.2 Kgf
m2
14.62 Kgf
m2
=10.33
(3=
239.4 Kgf
m2
26.32 Kgf
m2
=9.09(4=
340.2 Kgf
m2
32.17 Kgf
m2
=10.57
c1=
∆ P+ C − D
∆ P+ & − '
c1=
12.1 Kgf
m2
10.88 K gf
m2
=1.11c2=
20.76 Kgf
m2
18.49 Kgf
m2
=1.12
c3=
35.83 Kgf
m2
31.61 Kgf
m2
=1.13 c4=
54.93 Kgf
m2
48.12 Kgf
m2
=1.14
d=∆ P+ ) − * ∆ P+ & −'
d1=
373.25 Kgf
m2
10.88 Kgf
m2
=34.28d2=
650.21 Kgf
m2
18.49 Kgf
m2
=35.16
d3=
1137.20 Kgf
m
2
31.61 Kgf
m2
=35.97d4=
1758.53 Kgf
m
2
48.12 Kgf
m2
=36.53
%ccesorios
Tramo A-B con 2 codos
-
8/19/2019 Practica Tuberias
22/26
1. Cal(,lar la vlo(idad d =,@o " la t,r
-
8/19/2019 Practica Tuberias
23/26
Tabla de Resultados
- Tubo Recto
Tramo &'(
ε
d=0.010236
CorridaGv(m
3
s ) ∆ P P(kgf
m2 ) v ( ms )
Re f D∆ P+ (kgf m2 )
1 1.5x10'4 9.94 0.290 7519.13 0.045 12.10
2 2.0x10'4 17.55 0.3947 10025.80 0.045 20.7
3 2.x10'4 29.83 0.522 1337.73 0.045 35.83
4 3.33x10'4 44.4 0.578 1709.7 0.045 54.93
Tramo )'*
ε
d=0.005906
CorridaGv(m
3
s ) ∆ P P(kg f
m2 ) v (ms )
Re f D∆ P+ (kgf m2 )
1 1.5x10'4 8.77 0.290 7519.13 0.04 10.88
2 2.0x10'4 14.2 0.3947 10025.80 0.04 18.49
3 2.x10'4 2.32 0.522 1337.73 0.03 31.1
4 3.33x10'4 32.17 0.578 1709.7 0.03 48.12
Tramo +',
ε
d=¿ 00!!"!
-
8/19/2019 Practica Tuberias
24/26
CorridaGv(m
3
s ) ∆ P P(kgf
m2 ) v ( ms )
Re f D∆ P+ (kgf m2 )
1 1.5x10'4 88.2 1.18 15038.2 .044 373.25
2 2.0x10'4 151.2 1.57 20051.01 .044 50.21
3 2.x10
'4
239.4 2.10 2734.8 .042 1137.20
4 3.33x10'4 340.2 2.3 33418.3 .042 1758.53
Relaci-n de resiones
Corrida a b c d
1 1.133 10.05 1.111 34.28
2 1.2 10.33 1.122 35.1
3 1.133 9.09 1.13 35.97
4 1.381 10.57 1.141 3.53
Tuber/a # %ccesorios
Tramo %' con 2 codos
Corrida
Gv
(m
3
s
) v
(m
s
) ∆ P
(kgf
m2
) ∆ Pcodos
(kgf
m2
)#e (m) ¿
di
1 1.33310-4 0.46 25.2 16.147 1.1041 57.957
2 1.66710-4 0.55 100. 7.221 3.9759 20.707
3 2.00010-4 0.702 126 106.04 3.2971 173.075
-
8/19/2019 Practica Tuberias
25/26
4 2.66710-4 0.936 163. 12.56 2.226 119.19
Tramo ' con lula de &ompuerta
CorridaGv(m
3
s ) v (m
s ) ∆ P(kgf m2 ) ∆ Pcom0uer-$(kgf
m2 ) #e (m)
¿
di
1 1.33310-4 0.46 26.325 10.61 0.726 3.110
2 1.66710-4 0.55 3.025 14.464 0.659 34.611
3 2.00010-4 0.702 61.425 26.69 0.35 43.37
4 2.6671
0-4 0.936 101.205 40.575 0.719 37.729
Tramo 6' con lula de 6lobo
CorridaGv(m
3
s ) v (m
s ) ∆ P(kgf m2 ) ∆ P glo(o(kgf
m2 ) #e (m)
¿
di
1 1.33310-4 0.46 226. 223.963 15.314 03.6
2 1.6671
0-4 0.55 13.6 134.344 6.124 321.4673 2.0001
0-4 0.702 176.4 170.15 5.29 277.6124 2.6671
0-4 0.936 340.2 329.24 5.32 306.15
Tramo !'
CorridaGv
(m
3
s
) v
(
m
s
)∆ P P
(
kg f
m2
)1 1.33310-4 0.46 29.25
2 1.66710-4 0.55 43.75
3 2.00010-4 0.702 64.35
-
8/19/2019 Practica Tuberias
26/26
4 2.66710-4 0.936 112.905