IHF Fluoroplastic Alloy Chemical Pump Single Stage

IHF Fluoroplastic Alloy Chemical Pump Single Stage

IHF Fluoroplastic Alloy Chemical Pump (Single-Stage) | Fluoroplastic-lined pump for strong corrosion

  • Fluoroplastic wetted end: For strong acids/alkalis.
  • End-suction single stage: Stable transfer, easy install.
  • Sealing for containment: Mechanical seal options.
  • Service-ready build: Standard parts, easy maintenance.
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Product Overview

The IHF single-stage fluoroplastic alloy chemical pump is designed and manufactured in accordance with relevant national standards and is developed on proven non-metallic corrosion-resistant pump technology. The pump adopts a composite construction with a metal casing lined with fluoroplastic (FEP/F46), combining the mechanical strength of metal with the corrosion resistance of fluoroplastic, and is suitable for continuous operation under highly corrosive service conditions.

Model Designation

IHF Fluoroplastic Alloy Chemical Pump type

Key Features

  • Metal casing with FEP (F46) fluoroplastic lining, balancing pressure capability and corrosion resistance, with high-temperature adaptability.

  • High mechanical strength design for stable operation and low vibration.

  • Rational hydraulic and structural configuration for corrosive chemical duties.

  • Reliable mechanical seal arrangement with controlled leakage risk.

  • Easy dismantling and maintenance, suitable for long-term continuous service and life-cycle management.

Engineering Summary

This pump is a single-stage, single-suction centrifugal chemical pump. The core wetted components are manufactured using an integrated process of overall sintering with metal inserts and fluoroplastic compression molding. Through an integrated structural design and composite material configuration, the pump achieves a balanced combination of pressure capability and long-term corrosion resistance, ensuring stable operation over a wide temperature range and in highly corrosive media.

Typical Applications

The IHF single-stage fluoroplastic alloy chemical pump is widely used in:

  • Chemical and pharmaceutical processing

  • Petroleum and petrochemical industries

  • Metallurgy, smelting, and power generation

  • Electroplating, dyes, and pesticide production

  • Pulp and paper, food processing, and textile industries

It is capable of continuous handling of highly corrosive media such as sulfuric acid, hydrochloric acid, hydrofluoric acid, nitric acid, strong alkalis, strong oxidants, and organic solvents. For “any concentration” media, the applicable temperature range is –85°C to 200°C, with reliable operation within this range.

System Configuration

The pump features a rational structural layout that facilitates installation, disassembly, and routine maintenance. A reliable mechanical seal system is adopted; during servicing, sealing parts and wear parts can be replaced independently. This design reduces maintenance complexity and extends overall service life, making the pump suitable for long-term continuous operation.

Components & Supply

The IHF single-stage fluoroplastic alloy chemical pump mainly consists of:

  • Pump Casing: Metal casing with internal FEP (F46) fluoroplastic lining.

  • Impeller & Pump Cover: Metal inserts manufactured via overall sintering and forming, fully encapsulated in fluoroplastic.

  • Shaft Sealing System: Externally mounted metal bellows mechanical seal.

    • Stationary ring material: 99.9% alumina ceramic or silicon carbide

    • Rotating ring material: carbon/graphite composite or silicon carbide

Technical Service

Operating Conditions

  • Applicable media: Highly corrosive liquids, including strong acids, strong alkalis, strong oxidants, and organic solvents.

  • Media concentration: No concentration limitation.

  • Operating temperature range: –85°C to 200°C.

  • Duty type: Suitable for continuous, stable operation.

Service Conditions

Stable transfer is supported under highly corrosive media and a wide temperature range. The mechanical seal system allows independent replacement of sealing and wear parts during maintenance, meeting the serviceability requirements of long-term continuous duty.

Protection Functions

A reliable mechanical sealing solution is employed to reduce leakage risk. Together with a serviceable design for sealing and wear parts, it supports inspection and maintenance management and improves operational safety and maintainability for continuous service.

Selection Criteria

Selection should be based on the actual media type (strong acids/alkalis/oxidants/organic solvents), operating temperature range (–85°C to 200°C), and concentration conditions (no limitation), and should be matched with the seal material options (stationary and rotating ring materials) to meet the requirements of continuous, stable operation.

Installation & Dimensions

Outline Drawing

IHF Fluoroplastic Alloy Chemical Pump type jiegoushiyitu

Performance Data

No.
Name
No.
Name
1
Pump Body
7
Mechanical Seal Gland
2
Impeller Frame
8
Stationary Ring
3
Impeller
9
Rotary Ring
4
Pump Body Lining
10
Pump Shaft
5
Pump Cover Lining
11
Bearing Housing
6
Pump Cover
12
Coupling

Performance Parameters

Model
Speed
Flow Rate Q
Head
Efficiency
Power
Required NPSH
Shaft Power
Motor Power
r/min
m3/h
L/s
m
%
KW
KW
m
IHF32-25-125
2900
3.5
5
6.5
0.97
1.39
1.8
21
20
18
40
44
42
0.5
0.62
0.76
1.5
2.3
IHF32-25-125A
2900
3.1
4.5
5.8
0.06
1.25
1.61
17.6
16
14.4
38
41
40
0.7
0.48
0.57
1.1
2.3
IHF32-25-160
2900
3.5
5
6.5
0.97
1.39
1.8
33
32
30
34
40
42
0.93
1.1
1.26
2.2
2.3
IHF32-25-160A
2900
3.1
4.5
5.8
0.86
1.25
1.61
29
28
26
30
35
36
0.81
0.97
1.14
1.5
2.3
IHF40-32-125
2900
4.4
6.5
8.3
1.22
1.8
2.31
21
20
18
40
45
43
0.63
0.79
0.95
2.2
2.5
IHF40-32-125A
2900
3.9
5.6
7.4
1.08
1.56
2.06
17.6
16
14.4
38
42
40
0.49
0.58
0.72
1.5
2.5
IHF40-32-160
2900
4.4
6.5
8.3
1.22
1.8
2.31
33
32
30
34
40
39
1.16
1.42
1.71
2.2
2.5
IHF40-32-160A
2900
3.9
5.6
7.4
1.08
1.56
2.06
29
28
26
32
38
37
0.96
1.23
1.41
1.5
2.5
Model
Speed
Flow Rate Q
Head
Efficiency
Power
Required NPSH
Shaft Power
Motor Power
r/min
m3/h
L/s
m
%
KW
KW
m
IHF50-32-125
2900
8.8
12.5
16.3
2.44
3.47
4.53
21.5
20
17.5
45
54
53
1.15
1.26
1.47
2.2
3.0
IHF50-32-125A
2900
8
11
14.5
2.22
3.05
4.03
17
16
14
42
52
51
0.88
0.92
1.08
1.5
3.0
IHF50-32-160
2900
8.8
12.5
16.3
1.08
1.56
2.06
33
32
30
41
48
47
1.93
2.27
2.84
4
3.0
IHF50-32-160A
2900
8.2
11.7
15.2
2.28
3.25
4.22
29
28
26
39
47
46
1.16
1.88
2.34
3
3.0
IHF50-32-200
2900
8.8
12.5
16.3
2.44
3.47
4.53
52
50
48
34
42
41
3.7
4.1
5.2
7.5
3.0
IHF50-32-200A
2900
8.2
11.7
15.2
2.28
3.25
4.22
45
44
42
31
40
39
3.24
3.5
4.45
5.5
3.0
IHF50-32-250
2900
8.8
12.5
16.3
1.08
1.56
2.06
82
80
76
27
35
34
7.3
7.8
10
11
3.0
IHF50-32-250A
2900
8.2
11.7
15.2
2.28
3.25
4.22
71
70
68
25
34
33
4.53
6.56
8.52
7.5
3.0
Model
Speed
Flow Rate Q
Head
Efficiency
Power
Required NPSH
Shaft Power
Motor Power
r/min
m3/h
L/s
m
%
KW
KW
m
IHF65-50-125
2900
17.5
25
32
4.86
6.94
8.89
21.5
20
17.5
56
64
63
1.83
2.13
2.42
3
3.5
IHF65-50-125A
2900
15.6
22.3
29
4.33
6.19
8.06
17
16
14
53
62
61
1.36
1.57
1.79
2.2
3.5
IHF65-50-160
2900
17.5
25
32
4.86
6.94
8.89
33
32
27.5
50
59
57
3.15
3.69
4.2
5.5
3.5
IHF65-50-160A
2900
16.4
23.3
30.4
4.56
6.47
8.44
29
28
24
48
58
56
2.7
3.1
3.54
4
3.5
IHF65-40-200
2900
17.5
25
32
4.86
6.94
8.89
52
50
45.5
45
54
54
5.5
6.3
7.35
11
3.5
IHF65-40-200A
2900
16.4
23.3
30.4
4.56
6.47
8.44
46
44
40
43
53
52
4.3
5
5.2
7.5
3.5
IHF65-40-250
2900
17.5
25
32
4.86
6.94
8.89
82
80
76
39
50
52
10.1
10.9
12.74
18.5
3.5
IHF65-40-250A
2900
16.4
23.3
30.4
4.56
6.47
8.44
71
70
68
36
48
50
8.8
9.3
11.25
15
3.5
Model
Speed
Flow Rate Q
Head
Efficiency
Power
Required NPSH
Shaft Power
Motor Power
r/min
m3/h
L/s
m
%
KW
KW
m
IHF80-65-125
2900
35
50
65
9.72
13.89
18.06
21.5
20
17
64
69
67
3.2
3.95
4.5
5.5
4.0
IHF80-65-125A
2900
31
45
58
31
45
58
17
16
14
62
68
67
2.3
2.88
3.3
4
4.0
IHF80-65-160
2900
35
50
65
9.72
13.89
18.06
33
32
27.5
60
68
67
5.24
6.41
7.27
11
4.0
IHF80-65-160A
2900
31
45
58
31
45
58
29
28
24
58
67
66
4.3
5
5.2
7.5
4.0
IHF80-50-200
2900
35
50
65
9.72
13.89
18.06
52
50
48
52
64
65
9.53
10.64
12.39
15
4.0
IHF80-50-200A
2900
31
45
58
31
45
58
46
44
40
50
63
62
7.35
8.56
10
11
4.0
IHF80-50-250
2900
35
50
65
9.72
13.89
18.06
82
80
72
40
50
51
19.4
21.8
25
30
4.0
IHF80-50-250A
2900
31
45
58
31
45
58
71.5
70
63
39
50
51
15.4
17.6
19.9
22
4.0
Model
Speed
Flow Rate Q
Head
Efficiency
Power
Required NPSH
Shaft Power
Motor Power
r/min
m3/h
L/s
m
%
KW
KW
m
IHF100-80-125
2900
70
100
130
19.4
27.8
36.1
23
20
14
70
75
65
6.26
7.26
7.63
11
5.0
IHF100-80-125A
2900
62.6
89
116
17.4
24.7
32.2
18
16
11
68
73
65
4.5
5.3
5.74
7.5
5.0
IHF100-80-160
2900
70
100
130
19.4
27.8
36.1
33
32
27.5
68
74
65
9.53
11.78
13.03
15
5.0
IHF100-80-160A
2900
65.4
93.5
121
18.2
26
33.6
32
28
21
66
73
65
8.6
9.3
10.6
11
5.0
IHF100-65-200
2900
70
100
130
19.4
27.8
36.1
52
50
48
64
72
71
15.5
18.91
20.94
30
5.0
IHF100-65-200A
2900
65.4
93.5
121
18.2
26
33.6
46
44
40
63
71
70
13
15.02
17.4
22
5.0
IHF100-65-250
2900
70
100
130
19.4
27.8
36.1
87
80
68
62
69
68
26.6
31.6
35
45
4.0
IHF100-65-250A
2900
65.4
93.5
121
18.2
26
33.6
76.5
70
59
60
68
67
20.25
26.2
28
37
4.5
Model
Speed
Flow Rate Q
Head
Efficiency
Power
Required NPSH
Shaft Power
Motor Power
r/min
m3/h
L/s
m
%
KW
KW
m
IHF32-25-125
1450
1.75
2.5
3.25
0.49
0.69
0.9
5.25
5
4.5
37
40
38
0.068
0.085
0.105
0.75
2.3
IHF32-25-160
1450
1.75
2.5
3.25
0.49
0.69
0.9
8.25
8
7.5
30
38
40
0.131
0.143
0.166
0.75
2.3
IHF40-32-125
1450
2.2
3.25
4.15
0.6
0.9
1.15
5.25
5
4.5
37
41
40
0.085
0.108
0.127
0.75
2.5
IHF40-32-160
1450
2.2
2.5
3.25
0.6
0.9
1.15
8.25
8
7.5
33
36
37
0.14
0.15
0.18
0.75
2.5
Model
Speed
Flow Rate Q
Head
Efficiency
Power
Required NPSH
Shaft Power
Motor Power
r/min
m3/h
L/s
m
%
KW
KW
m
IHF50-32-125
1450
4.4
6.25
8.15
1.2
1.74
2.26
5.37
5
4.37
37
46
45
0.17
0.18
0.75
3.0
IHF50-32-160
1450
4.4
6.25
8.15
1.2
1.74
2.26
8.25
8
7.5
31
41
42
0.31
0.33
0.39
0.75
3.0
IHF50-32-200
1450
4.4
6.25
8.15
1.2
1.74
2.26
13
12.5
12
25
33
36
0.62
0.65
0.74
1.5
3.0
IHF50-32-250
1450
4.4
6.25
8.15
1.2
1.74
2.26
20.5
20
19
20
27
30
1.22
1.26
1.4
2.2
3.0
IHF65-50-125
1450
17.5
25
32
4.86
6.94
8.89
5.37
5
4.37
45
57
58
0.28
0.3
0.33
0.75
3.5
IHF65-50-160
1450
17.5
25
32
4.86
6.94
8.89
8.25
8
6.87
40
53
51
0.49
0.51
0.59
1.1
3.5
IHF65-40-200
1450
17.5
25
32
4.86
6.94
8.89
13
12.5
11.4
36
46
47
0.86
0.93
1.05
1.5
3.5
IHF65-40-250
1450
17.5
25
32
4.86
6.94
8.89
20.5
20
19
32
42
44
1.52
1.62
1.88
3
3.5
Model
Speed
Flow Rate Q
Head
Efficiency
Power
Required NPSH
Shaft Power
Motor Power
r/min
m3/h
L/s
m
%
KW
KW
m
IHF80-65-125
1450
17.5
25
32
4.86
6.94
8.89
5.37
5
4.25
54
64
62
0.47
0.53
0.61
1.1
4.0
IHF80-65-160
1450
17.5
25
32
4.86
6.94
8.89
8.25
8
7.5
50
62
61
0.78
0.88
1
1.5
4.0
IHF80-50-200
1450
17.5
25
32
4.86
6.94
8.89
13
12.5
11.38
51
59
58
1.21
1.44
1.74
3
4.0
IHF80-50-250
1450
17.5
25
32
4.86
6.94
8.89
20.5
20
18
40
50
51
2.4
2.7
3.12
4
4.0
IHF100-80-125
1450
35
50
65
9.72
13.89
18.06
5.75
5
3.5
65
70
64
0.85
0.97
0.98
1.5
4.5
IHF100-80-160
1450
35
50
65
9.72
13.89
18.06
8.5
8
6.5
60
68
67
1.35
1.6
1.69
2.2
4.5
IHF100-65-200
1450
35
50
65
9.72
13.89
18.06
13
12.5
10.5
60
68
63
2.06
2.5
2.95
4
4.5
IHF100-65-250
1450
35
50
65
9.72
13.89
18.06
21.2
20
18.5
58
63
62
3
4.3
4.72
5.5
4.5

Operating Manual

Installation & Alignment

  1. Correct installation of the IHF single-stage single-suction fluoroplastic alloy chemical pump is critical to normal operation and service life; therefore, installation and alignment shall be performed carefully.

  2. Pre-embed anchor (foundation) bolts according to the installation dimensions and construct the concrete foundation.

  3. After the foundation concrete has fully cured, place the pump on the foundation and use a level to check the alignment condition of the pump shaft and motor shaft. If it does not meet requirements, adjust by adding or removing shims until aligned, then tighten the anchor bolt nuts.

  4. Check whether the rotating parts of the pump are jammed or rubbing. Ensure strict alignment (coaxiality) between the pump shaft and the motor shaft; use shims for correction if necessary. Rotate the coupling by hand—smooth and uniform rotation without friction indicates acceptable installation.

  5. The suction and discharge pipelines shall be independently supported. Pipeline weight shall not be carried by the pump to avoid damage.

  6. If the pump is installed above the liquid level (within the allowable suction-lift range), install a foot valve at the end of the suction line, and provide a filling plug or valve on the discharge line for priming before start-up. If the pump is installed below the liquid level, install an isolation valve and a strainer on the suction line. The effective strainer area should be 3–4 times the pipeline cross-sectional area to prevent debris from entering the pump.

  7. For high-head pumps, it is recommended to install a check valve downstream of the outlet flow control valve to prevent water hammer caused by sudden shutdown.

  8. The installation elevation shall meet the pump NPSH requirement, while also considering pipeline losses and medium temperature.

Start-up & Shutdown Procedure

  1. Before start-up, the pump shall be fully filled with the pumped liquid. Dry running is strictly prohibited.

  2. Close the discharge valve, switch on the power supply, and immediately confirm that the rotation direction matches the direction indicated on the pump. Reverse rotation is strictly prohibited.

  3. After the pump reaches normal speed, gradually open the discharge valve and adjust to the required operating condition. When the discharge valve is fully closed, the pump shall not run continuously for more than 3 minutes.

  4. When stopping the pump, first close the discharge valve, then cut off the power supply.

Maintenance & Care

  1. Regularly inspect the pump and motor, and replace worn components in a timely manner.

  2. Frequently replenish the bearing housing with high-quality calcium-based grease to maintain proper lubrication.

  3. For long-term shutdown, drain the corrosive medium from the pump, thoroughly clean all parts and internal flow passages, and disconnect the power supply.

  4. The pump shall not operate under no-liquid conditions (no-load running is strictly prohibited).

  5. If the medium contains solid particles, a strainer shall be installed at the pump inlet.

OEM & Custom

Chaodun Pump provides OEM and ODM customization including F46 lining thickness adjustments, special mechanical seal configurations, and motor-matched drive solutions for different chemical applications. Customization is available for temperature, pressure, and corrosion resistance requirements.

FAQs

  1. Q1: What is the IHF Chemical Pump used for?
    It is designed for transferring strong corrosive acids, alkalis, and chemical solutions in industrial applications.
  2. Q2: What materials are used in the pump?
    The casing is lined with F46 fluoroplastic, and the impeller and cover are fully encapsulated with fluoroplastic alloy.
  3. Q3: What is the operating temperature range?
    From -85°C to 200°C depending on the medium.
  4. Q4: Is the pump suitable for high-concentration acids?
    Yes, it can handle strong acids like H₂SO₄, HCl, HF, and HNO₃.
  5. Q5: What seal type does it use?
    External bellows mechanical seal with ceramic or silicon carbide rings.
  6. Q6: Does Chaodun Pump offer OEM and custom solutions?
    Yes, full OEM/ODM services are available including customized materials and configurations.
  7. Q7: What industries commonly use the IHF pump?
    Chemical, pharmaceutical, metallurgy, electroplating, food, textile, and wastewater treatment industries.