TP NO
max. 3.500 m³/h max. 220 m L.C. -40 °C to +300 °C max. PN 63 key facts
DESIGN OPERATING RANGE Special constructions and higher outputs available.
TYPICAL APPLICATION CUSTOM MATERIALS Further materials upon request.Flow Rate
Delivery Head
Temperature Range
Pressure Rating
Design according to DIN EN ISO 2858 / 5199
Submerging Depth up to 10.000 mm
Design based on API 610 available on Request
Flow Rate
Q
3.500 m³/h
Delivery Head
H
max. 220 m L.C.
Temperature Range
t
-40 °C to +300 °C
Pressure Rating
p
max. PN 63
Pump casing:
1.4408 or 1.0619
Impeller:
1.4408
Shaft:
1.4571
Shaft sheath:
1.4571
Internal Bearing:
Silicon Carbide
Bearing Carrier:
1.0038
Shaft Seal:
Acc. to product and/or customer specifications
UP
up to 21.500 m³/h up to 8,5 m L.C. -50 °C to +400 °C up to PN 10 key facts
DESIGN OPERATING RANGE Special constructions and higher outputs available. TYPICAL APPLICATIONFlow Rate
Delivery Head
Temperature Range
Pressure Rating
Propeller pump for integration into a tank
Made of welded cast steel
Adjustable propeller blades screwed to the hub
Bearing close-coupled with integrated tank flange
Shaft mounted in grease packed roller bearings
Shaft seal: face seal or gland packing
Flow direction can be reversed by repositioning the propeller blades
P
max. 12.000 m³/h max. 12 m L.C. -120 °C to +250 °C max. PN 100 key facts
DESIGN OPERATING RANGE Special constructions and higher outputs available TYPICAL APPLICATION Special configurations CUSTOM MATERIALS Further Materials upon Request DESIGN VARIANTS The pumps are outfitted with a heat jacket and pump casing (H1) and/or a heat jacket in the bearing lantern (H2). Both heat jackets can be realized either separately or in conjunction with a bypass line. The heat jackets in the standard construction are rated for operating pressure of 16 bar at 200 °C (steam) or 6 bar at 350 °C. The heat jackets can also be used for cooling. When solids-containing liquids are being transported, the internal filter prevents inadmissibly large particles from entering the flow channels, and from there the magnetic coupling and internal bearings. These external connections allow for external flushing, feeding and/or venting. Connection E1 is used in situations where a continuous feed into the magnet drive is desired. Connection E2 is used suitable for short-term flushing, or for external venting of the magnetic coupling. The double isolation shell should be used in situations requiring a high level of safety. The unit consists of two interlocking isolation shells, both of which are rated for the relevant operating conditions. If one of the two units is damaged, the casing still remains leaktight. The gap between the two units can be monitored. Inducers are often used in cases where the installation’s NPSH values are extremely low. Inducers substantially reduce pump NPSH throughout the installation without altering pump characteristics. Inducer J can be retrofitted on existing pumps, in most cases with only a minimum amount of pump modification. Flow Rate
Delivery Head
Temperature Range
Pressure Rating
Horizontally Mounted Propeller Pump
Pipe-Bend Casing made of Welded Cast Steel
Adjustable Propeller Blades screwed to the Hub
Shaft Seal: Face Seal or Gland Packing
Propeller can reverse Direction
Flow Rate
Q
12.000 m³/h
Delivery Head
H
max. 12 m L.C.
Temperature Range
t
-120 °C to +250 °C
Pressure Rating
p
max. PN 100
Components
A-8
S-8
Casing
316 Austenite
Stahlguss
Impeller
316 Austenite
316 Austenite
Containment Shell
Hastelloy C
Hastelloy C
Pump Shaft
316 Austenite
316 Austenite / C-Steel
Bearing Lantern / Bearing Carrier
Stahlguss
Stahlguss
Drive Shaft
C-Steel
C-Steel
DSP-2C
max. 1.800 m³/h max. 40 bar -120 °C to +350 °C max. PN 400 KEY FACTS
DESIGN OPERATING RANGE Higher Flow Rates upon Request Higher Pressure Ratings upon Request TYPICAL APPLICATION CUSTOM MATERIALS Upon Request, Klaus Union Screw Pumps, Series DSP-2C, can be supplied also in Hastelloy, Inconel, other High Nickel Alloys or Titanium.
Flow Rate
Differential Pressure
Temperature Range
Pressure Rating
Design according to API 676, 3rd Edition
Wellenabdichtung über Gleitringdichtung, Wellendichtringe oder Stopfbuchspackung
Shaft Seal: Face Seal or Gland Packing
Mechanical Seals according API 610/682
Modular Construction (Multi-Part-Casing)
Adaptive Feet with Centerline Mounting
Performance Range
Flow Rate
Q= max. 1.800 m³/h
Differential Pressure
P= max. 40 bar
Viscosity
max. 100.000 mm²/s (cSt)
Pressure Ratings
Standard Construction
PN 25 at +120 °C
Temperature Range
t= -120 °C to +350 °C
Pressure Rating
P= max. PN 400
Pump Casing
Cast Carbon Steel; Cast Stainless Steel; Duplex Stainless Steel; Super Duplex Stainless Steel
Liner
Cast Carbon Steel; Cast Stainless Steel; Duplex Stainless Steel; Super Duplex Stainless Steel; Wear Resistant Coating
Rotors
Carbon Steel, nitrated; Martensitic Stainless Steel, nitrated; Stainless Steel, hardened; Duplex Stainless Steel, hardened; Wear Resistant Coating
Shaft Seals
Standard Cartridge Seals depending on the actual operating conditions following ANSI B73.1 / API 610 / API 682
DESIGN VARIANTS
The pumps are outfitted with a foot heating (H4) and/or a heat jacket in the bearing lantern (H2). Both can be realized either separately or in conjunction with a bypass line. Both heating systems are rated for operating pressure of 16 bar at 200 °C (steam) or 6 bar at 350 °C in the standard construction. They can also be used for cooling.
NOV
max. 3.500 m³/h max. 220 m L.C. -120 °C to +450 °C max. 400 PN key facts
DESIGN OPERATING RANGE Special configurations available up to PN 400, Higher outputs available TYPICAL APPLICATION CUSTOM MATERIALS Further Materials upon Request IDENTIFICATION CODE: NACHSETZZEICHEN (AUSFÜHRUNGEN): DESIGN VARIANTS The pumps are outfitted with a heat jacket and pump casing (H1) and/or a heat jacket in the bearing lantern (H2). Both heat jackets can be realized either separately or in conjunction with a bypass line. The heat jackets in the standard construction are rated for operating pressure of 16 bar at 200 °C (steam) or 6 bar at 350 °C. The heat jackets can also be used for cooling. Inducers are often used in cases where the installation’s NPSH values are extremely low. Inducers substantially reduce pump NPSH throughout the installation without altering pump characteristics. Inducer J can be retrofitted on existing pumps, in most cases with only a minimum amount of pump modification. Flow Rate
Delivery Head
Temperature Range
Pressure Rating
Design according to DIN EN ISO 2858 / 5199
Modular System
Shaft Seal Packing; Single or Double Mechanical Seal (also available as a Cartridge Unit)
Heating for Casing and Casing Cover available
Mechanical Seal-Cover available
Flow Rate
Q
3.500 m³/h
Delivery Head
H
max. 220 m L.C.
Temperature Range
t
-120 °C to +450 °C
Pressure Rating
p
max. PN 400
Pump casing:
1.4408 or 1.0619
Impeller:
1.4408
Casing cover:
1.4571
Shaft:
1.4462
Shaft sheath:
1.4571
Bearing lantern:
1.0619
Bearing carrier:
0.7043
Shaft seal:
Acc. to product and/or customer specifications
Bearing carrier
Realization
Comments
NOV
Standard
Oiled, with deep groove ball bearing
H1
heated pump casing
H2
jacketed bearing lantern
J
inducer
SLM NVT
up to 3.500 m³/h up to 220 m L.C. -40 °C bis +300°C up to PN 63 key facts
DESIGN PERFORMANCE RANGE Special constructions up to PN100. Higher outputs available. TYPICAL APPLICATIONS MATERIALS Tank flange: 1.4571 or according to customer’s specifications. Other materials available. DESIGN VARIANTS:Flow Rate
Delivery Head
Temperature Range
Pressure Rating
Design according to DIN EN ISO 2858 / DIN EN ISO 15783
Maintenance-Free Permanent Magnet Drive
Modular Design
No Dynamic Seal, Separation of Liquid Chamber and Atmosphere by Means of Containment Shell
Submerging depth up to 6.000 mm
Flow rate Q 3.500 m³/h
Delivery head H
up to 220 m L.C.
Temperature t -40 °C bis +200 °C
Pressure rating p
up to PN 63
Pump casing: 1.4408 or 1.0619
Impeller: 1.4408
Containment shell: 1.4571/2.4610
Inner magnet carrier: 1.4571
Radial journal bearing: Silicon Carbide
Intermediate lantern: 1.4571
Bearing Bracket: 0.7043
Discharge pipe: 1.4571
Support tube: 1.4571
H1 heated pump casing
H2 heated intermediate lantern
F Internal filter
E1 External feed and flushing connections
E2 external flushing / venting, internal flush flow ports are open
E1F external flush flow with main circuit filter
SLM AV
up to 200 m³/h up to 155 m L.C. -200 °C to +450 °C up to PN 400 KEY FACTS
DESIGN OPERATING RANGE Higher flow rates upon request TYPICAL APPLICATION CUSTOM MATERIALS Further materials are available. up to 200 m³/h up to 155 m -120 °C to +400 °C up to PN 400 key facts
TYPICAL APPLICATION OPERATING RANGE Higher flow rates upon request CUSTOM MATERIALS Further Materials are available Close-Coupled Design: NACHSETZZEICHEN (AUSFÜHRUNGEN):Flow Rate
Delivery Head
Temperature Range
Pressure Rating
Design according to ASME B73.3-2015
Maintenance-Free Permanent Magnet Drive
Modular Design
No Dynamic Seal, Separation of Liquid Chamber and Atmosphere by Means of Containment Shell
Flow Rate
Q
200 m³/h
Delivery Head
H
up to 155 m L.C.
Temperature
t
-200 °C to +450 °C
Pressure Rating
p
up to PN 400
Pump casing:
1.4408
Impeller:
1.4408
Containment Shell:
1.4571/2.4610
Magnet Carrier:
1.4571
Radial journal Bearings:
Silicon Carbide
Intermediate Lantern:
1.0619
Bearing Carrier:
0.7043
Flow Rate
Delivery Head
Temperature Range
Pressure Rating
Flow Rate
Q=
3.500 m³/h
Delivery Head
H=
up to 220 m
Temperature
t=
-120 °C to +400 °C
Pressure Rating
p=
up to PN 400
Variants
Design
Note
SLM AVB
Close-Coupled Pump
Motor lantern (without shaft coupling)
H1
Heated Pump Casing
H2
Heated Bearing Lantern
S
Thermal Barrier without Secondary Seal
W
Thermal Barrier with Secondary Seal
F
Internal Filter
E1
External feed, internal partial flow holes closed off
E2
External Flushing / Venting, internal partial flow holes open
E1F
External partial flow with main flow filter according to DGRL
D
Double Containment Shell
J
Inducer
DESIGN VARIANTS
The pumps are outfitted with a heat jacket and pump casing (H1) and/or a heat jacket in the bearing lantern (H2). Both heat jackets can be realized either separately or in conjunction with a bypass line. The heat jackets in the standard construction are rated for operating pressure of 16 bar at 200 °C (steam) or 6 bar at 350 °C. The heat jackets can also be used for cooling.
The thermal barrier acts as a structural element between the bearing carrier (in the bearing carrier model) or drive motor (in the close coupled model), whereas the hydraulic system allows for heat transfer. This reduces ball bearing temperatures in the gearing when hot liquids are being transported. A radial shaft sealing ring can also be integrated into the thermal barrier for purposes of sealing the magnet driver. The sealing ring acts as a secondary seal that prevents the product from leaking into the environment through a leak in the isolation shell. In order for this secondary seal to be used, the magnet driver chamber must be monitored so that leaks can be detected in good time.
When solids-containing liquids are being transported, the internal filter prevents inadmissibly large particles from entering the flow channels, and from there the magnetic coupling and internal bearings.
These external connections allow for external flushing, feeding and/or venting. Connection E1 is used in situations where a continuous feed into the magnet drive is desired. Connection E2 is used suitable for short-term flushing, or for external venting of the magnetic coupling.
The double isolation shell should be used in situations requiring a high level of safety. The unit consists of two interlocking isolation shells, both of which are rated for the relevant operating conditions. If one of the two units is damaged, the casing still remains leaktight. The gap between the two units can be monitored.
Inducers are often used in cases where the installation’s NPSH values are extremely low. Inducers substantially reduce pump NPSH throughout the installation without altering pump characteristics. Inducer J can be retrofitted on existing pumps, in most cases with only a minimum amount of pump modification.
SLM NHO
Single-stage centrifugal pump with Magnet Drive for high temperature applications max. 1.200 m³/h max. 215 m L.C. -120 °C to +450 °C max. PN 40 key facts
DESIGN OPERATING RANGE Special constructions up to PN400. Higher outputs available. TYPICAL APPLICATION CUSTOM MATERIALS Further materials upon request. max. 1.200 m³/h max. 215 m -120 °C to +450 °C max. PN 40 Key facts
DESIGN OPERATING RANGE TYPICAL APPLICATION CUSTOM MATERIALS NACHSETZZEICHEN (AUSFÜHRUNGEN):slm nho
Flow Rate
Delivery Head
Temperature Range
Pressure Rating
Design according to DIN EN ISO 2858 / DIN EN ISO 15783
Temperature Range up to 450 °C
Maintenance-Free Permanent Magnet Drive
Modular Design
No Dynamic Seal, Separation of Liquid Chamber and Atmosphere by Means of Containment Shell
Flow Rate
Q
1.200 m³/h
Delivery Head
H
max. 215 m L.C.
Temperature Range
t
-120 °C to +450 °C (uncooled)
Pressure Rating
p
max. PN 40
Pump casing:
1.0619 or 1.4408
Impeller:
1.4408
Containment shell:
1.4571/2.4610 or Titanium
Magnet carrier:
1.4571
Radial journal bearings:
Silicon Carbide
Bearing carrier:
0.7043
Flow Rate
Delivery Head
Temperature Range
Pressure Rating
50Hz
60Hz
Flow Rate
Q
3.500 m³/h
4.200 m³/h
Delivery Head
H
150 m
215 m
Temperature Range
t
-50 °C bis +250 °C bis +300 °C
Typ NVN/NVS TYP NVO
Pressure Rating
p
PN16
H1
heated pump casing
H2
jacketed bearing lantern
S
thermal barrier without secondary seal
W
thermal barrier with secondary seal
F
internal filter
E1
external feeding, internal secondary-flow boring enclosed
E2
external flushing and venting; internal secondary-flow boring non-enclosed
E1F
external secondary flow with main flow filter per DGRL
J
inducer
DESIGN VARIANTS
The pumps are outfitted with a heat jacket and pump casing (H1) and/or a heat jacket in the bearing lantern (H2). Both heat jackets can be realized either separately or in conjunction with a bypass line. The heat jackets in the standard construction are rated for operating pressure of 16 bar at 200 °C (steam) or 6 bar at 350 °C. The heat jackets can also be used for cooling.
The thermal barrier acts as a structural element between the bearing carrier (in the bearing carrier model) or drive motor (in the close coupled model), whereas the hydraulic system allows for heat transfer. This reduces ball bearing temperatures in the gearing when hot liquids are being transported. A radial shaft sealing ring can also be integrated into the thermal barrier for purposes of sealing the magnet driver. The sealing ring acts as a secondary seal that prevents the product from leaking into the environment through a leak in the isolation shell. In order for this secondary seal to be used, the magnet driver chamber must be monitored so that leaks can be detected in good time.
When solids-containing liquids are being transported, the internal filter prevents inadmissibly large particles from entering the flow channels, and from there the magnetic coupling and internal bearings.
These external connections allow for external flushing, feeding and/or venting. Connection E1 is used in situations where a continuous feed into the magnet drive is desired. Connection E2 is used suitable for short-term flushing, or for external venting of the magnetic coupling.
Inducers are often used in cases where the installation’s NPSH values are extremely low. Inducers substantially reduce pump NPSH throughout the installation without altering pump characteristics. Inducer J can be retrofitted on existing pumps, in most cases with only a minimum amount of pump modification.
SLM NV
up to 3.500 m³/h up to 220 m L.C. -120 °C to +450 °C up to PN 400 key facts
DESIGN OPERATING RANGE TYPICAL APPLICATION CUSTOM MATERIALS up to 3.500 m³/h up to 220 m -120 °C to +400 °C up to PN 400 key facts
DESIGN OPERATING RANGE TYPICAL APPLICATION CUSTOM MATERIALS up to 1.200 m/h up to 215 m -50 °C to +300 °C up to PN 400 KEY FACTS
DESIGN OPERATING RANGE TYPICAL APPLICATION CUSTOM MATERIALS DESIGN VARIANTS: AUSFÜHRUNGSVARIANTEN The pumps are outfitted with a heat jacket and pump casing (H1) and/or a heat jacket in the bearing lantern (H2). Both heat jackets can be realized either separately or in conjunction with a bypass line. The heat jackets in the standard construction are rated for operating pressure of 16 bar at 200 °C (steam) or 6 bar at 350 °C. The heat jackets can also be used for cooling. The thermal barrier acts as a structural element between the bearing carrier (in the bearing carrier model) or drive motor (in the close coupled model), whereas the hydraulic system allows for heat transfer. This reduces ball bearing temperatures in the gearing when hot liquids are being transported. A radial shaft sealing ring can also be integrated into the thermal barrier for purposes of sealing the magnet driver. The sealing ring acts as a secondary seal that prevents the product from leaking into the environment through a leak in the isolation shell. In order for this secondary seal to be used, the magnet driver chamber must be monitored so that leaks can be detected in good time. When solids-containing liquids are being transported, the internal filter prevents inadmissibly large particles from entering the flow channels, and from there the magnetic coupling and internal bearings. This isolation shell generates no Eddy Current losses in the magnet drive. This isolation shell offers maximum pump effi ciency and is particularly benefi cial where heat input into the pumped liquid is to be avoided. These external connections allow for external flushing, feeding and/or venting. Connection E1 is used in situations where a continuous feed into the magnet drive is desired. Connection E2 is used suitable for short-term flushing, or for external venting of the magnetic coupling. The self-cleaning discharge fi lter is used for applications where liquids with a moderate percentage of solids are handled. The flush flow is picked up externally from the discharge filter and re-introduced into the magnet coupling. The internal flush flow ports are closed. This construction type is used for applications where liquids with a high percentage of solids are handled. The casing cover is equipped with two external connections for feeding and draining of the isolation shell area. The specially designed journal bearings prevent any solids within the pumped liquid from entering the magnet drive. The double isolation shell should be used in situations requiring a high level of safety. The unit consists of two interlocking isolation shells, both of which are rated for the relevant operating conditions. If one of the two units is damaged, the casing still remains leaktight. The gap between the two units can be monitored. Inducers are often used in cases where the installation’s NPSH values are extremely low. Inducers substantially reduce pump NPSH throughout the installation without altering pump characteristics. Inducer J can be retrofitted on existing pumps, in most cases with only a minimum amount of pump modification. The secondary sealing consists of a highperformance radial shaft seal ring, which ensures that there is no immediate leakage of the liquid to the atmosphere in the drive shaft area in the event of an isolation shell failure.Flow Rate
Delivery Head
Temperature Range
Pressure Rating
Design according to DIN EN ISO 2858 / DIN EN ISO 15783
Maintenance-Free Permanent Magnet Drive
Modular Design
No Dynamic Seal, Separation of Liquid Chamber and Atmosphere by Means of Containment Shell
Greased-for-Life Anti-Friction Bearings as standard
Flow Rate
Q
3.500 m³/h
Delivery Head
H
up to 220 m L.C.
Temperature Range
t
-200 °C to +450 °C
Pressure Rating
p
up to PN 400
Flow Rate
Delivery Head
Temperature Range
Pressure Rating
Flow Rate
Q=
3.500 m³/h
Delivery Head
H=
up to 220 m
Temperature Range
t=
-120 °C to +450 °C
Pressure Rating
p=
up to PN 400
Flow Rate
Delivery Head
Temperature Range
Pressure Rating
Pressure Rating: up to PN 400
Design according to DIN EN ISO 2858 / DIN EN ISO 15783
Maintenance-Free Permanent Magnet Drive
Modular Design
No Dynamic Seal, Separation of Liquid Chamber and Atmosphere by Means of Containment Shell
Greased-for-Life Anti-Friction Bearings as standard
Flow Rate
Q
3.500 m³/h
Delivery Head
H
up to 220 m
Temperature Range
t
-120 °C to +450 °C
Pressure Rating
p
up to PN 400
H1
Heated Pump Casing
H2
Heated Bearing Lantern
S
Thermal Barrier without Secondary Seal
W
Thermal Barrier with Secondary Seal
F
Internal Filter
Z, C
Containment Shell of Zirconium Oxide (Z); Containment Shell plasic-coated CFK (C)
E1
External feed, internal partial flow holes closed off
E2
External Flushing/ Venting, internal partial flow holes open
E1F
External partial flow with main flow filter according to DGRL
OT
Pump without partial flow, see description SLM NV OT
Double Containment Shell
Double Containment Shell
J
Inducer
L
Secondary seal between Anti-Friction Bearings