
Wieland-Werke AG
Organization
89079 Ulm
Germany (UTC+1)
7:00 am - 5:00 pm
7:00 am - 11:30 am
12:45 pm - 2:30 pm
Facts
employees
covered area m²
over all area m²
Metal Information
Current metal prices
Locations
Global proximity you can count on


Wieland-Werke AG – Vöhringen
Wieland-Werke AG
Wielandstraße 26
89269
Vöhringen
Germany

Wieland-Werke AG – Villingen-Schwenningen
Wieland-Werke AG
Lantwattenstraße 11
78050
Villingen-Schwenningen
Germany

Wieland-Werke AG – Velbert
Wieland-Werke AG
Ziegeleiweg 20
42555
Velbert
Germany
Products
Our products at a glance
Product categories












Headline
Back to product overviewRotor Components
Rotors
High Voltage Components
Welded Multi-Metal Strips
Shunts
Shunt-based Current Sensors
Enhanced surface tubes
Low-finned tubes
Medium-high finned tubes
High finned tubes
Safety tubes
Coaxial heat exchanger WKE | WKC
Wieland WRK
Wieland safety heat exchanger
Finned tube heat exchanger WRW
Customized heat exchangers
Round rod
Square rod
Hexagonal rod
Rectangular rod
Sectional rod
Machining
WICONNEC®
ECOBRASS
ecoline®: Lead-free solutions
Precision continuous casting
Forging Stock
Strip
Hot-dip tin coated strip
Multi-gauge strip
Sheets and Plates
Thrust washers
Turned bushings
Rolled bushings
Special parts
Smooth industrial tubes
Innergrooved industrial tubes
Plumbing tubes
Refrigeration and medical gas tubes
Alloy tubes
Ball Bearings
Roller Bearings
Surfaces and coatings for rolled products
Wire
WITRONIC®
WICONNEC

Wieland offers you ready-to-install copper rotor bars of consistently high quality at maximum cost efficiency. This is guaranteed by our fully automated processes across the entire value stream.
In addition, the rotor bars can be manufactured in complex geometries, varying lengths, straight or twisted, and with or without notches. This enables unique rotor designs - from development to series product - from the smallest sample batch to mass production.

We also offer engineering support during the development of your application-specific design. Furthermore, Wieland offers two different processes to produce rotors to meet your individual requirements. Both processes offer manufacturing with a very high degree of material filling without air inclusions, and we can draw on a wide range of experience from prototypes to series production.
The fabricated Wieland copper rotor is a new and innovative design, which is designed according to your requirements. Due to the disc-shaped design of the short-circuit ring, different materials can be combined individually, and fulfill the requirements for higher power densities and rotation speeds.

Additionally, the fabricated design has a higher mechanical strength and enables a very scalable, flexible, and economical approach for rotor production.
Overview of possible materials:
(All copper-based materials are produced in-house and are available in various strength levels)
Properties | Wieland K10 | Wieland K14 | Wieland K75 |
Application | Rotor bar | Short circuit ring | Short circuit ring |
Density [g/cm³] | 8,94 | 8,94 | 8,88 |
Electrical Conductivity [MS/m] | ≥58,6 | ≥58 | ≥48 |
Tensile strength Rm [MPa] | 200 – 350 | 220 – ≥360 | 430 – 640 |
Hardness [HV] | 35 – 115 | 45 – ≥110 | 130 – 200 |
Datasheet |
Through our unique and patented Laminar Squeeze Casting technology, Wieland eTraction Systems has succeeded in developing the Zero Porosity Rotor - ZPR®. As shown in the CT scans below, we outperform the industry in both the copper and aluminum rotors.


As a result, Wieland eTraction Systems is quality leader within the global rotor manufacturing industry, offering the ZPR® from the smallest sample lot to volume production.
The benefits of a Zero Porosity Rotor - ZPR® are as follows:
- Unique product quality
- Stable process capability
- Significantly higher electrical conductivity
- Higher efficiency of your electric motor

We offer individual solutions and support in development by taking DFM (= Design for Manufacturing) into account and can also offer prototypes from our prototype shop. We are happy to accompany you through all sample phases up to series production.
For contacting in the electric drive train or between the battery and the electric machine, Wieland offers you a wide variety of designs (e.g. fully overmolded; assembled) of ready-to-install connector units and overmolded busbars. The design of these is based on your requirements, which enables contacting in the tightest of spaces.
To evaluate your design and the corresponding requirements, please contact us via the contact address below.

We carry out all process steps in-house, and because of this we can find the best alloy combination for your application. Our offerings don’t end at only using our alloys. We also can evaluate using materials and alloys from other manufacturers.
With the use of our specially developed resistance alloys, electron beam welded multi-metal strips are ideal as pre-material for shunts.
For other applications, we also offer electron beam welded multi-metal strips. This allows the specific properties of several different alloys to be combined and almost any combination of materials is conceivable.
Contact us using the contact address below and we will be happy to review your inquiry and get back to you.

Wieland offers shunts in various standard dimensions as well as customized designs. For this purpose, development, sample, and series production are located in-house.
Our standard shunts are designed according to uniform sizes and resistance values.
Currently, the Wieland portfolio includes the following basic shunts.
For more information, please refer to the data sheets attached for download:
Variant | Length [mm] | Width [mm] | Power Rating at 70 °C [W] | Resistance values [µ Ω] | Datasheet |
W6918 | 69 | 18 | 36 | 50, 100 | Download |
W8518 | 85 | 18 | 36 | 50, 100 | Download |
W8420 | 84 | 20 | 36 | 50, 100 | Download |
W8436 | 84 | 36 | 50 | 25, 50 | Download |
W8536 | 85 | 36 | 50 | 25, 50 | Download |
Wieland also offers customized shunts (e.g. double shunt) designed to your specifications. To evaluate your design and the corresponding requirements, please feel free to contact us via the contact address below.

QULECTRA is a joint venture of Wieland-Werke AG based in Ulm and Munich Electrification GmbH based in Munich. The two companies share a multi-year partnership in the provision of battery management systems with shunt-based precision resistors. With QULECTRA, the two companies are taking the next step in the development of best-in-class current sensors that point the way to a sustainable future.
More information about QULECTRA and its products can be conveniently found on the QULECTRA-Website.

Optimised heat transfer for your shell-and-tube heat exchanger
The enhanced surface tubes made by Wieland Thermal Solutions have been optimized for use as condenser or evaporator tubes in shell-and-tube heat exchangers used in the refrigeration and air-conditioning industry. These can be designed to be much more compact, saving you energy, installation space, and materials.
Your advantages at a glance
- Significantly higher heat transfer coefficients than smooth or low finned tubes
- More compact and lighter heat exchangers
- Significantly reduced filling quantities of e.g. refrigerants
- Highest efficiencies due to smallest temperature differences
- Precise thermal design with ThermalS
Optimized heat transfer for your shell-and-tube heat exchanger
The enhanced surface tubes made by Wieland Thermal Solutions have been optimized for use as condenser or evaporator tubes in shell-and-tube heat exchangers used in the refrigeration and air-conditioning industry. These can be designed to be much more compact, saving you energy, installation space and materials.
Materials
The functional enhancements of the outer surfaces of the GEWA-B, PB, and Turbo-B/E tubes have been optimized for bulk boiling of refrigerants and similar fluids. Coupled with ideally matched surfaces on the inside of the tubes, optimum heat transfer coefficients can be achieved. GEWA and TURBO Evaporator Tubes are available with outer and inner surfaces adapted for specific needs of your application.
GEWA
- B5 & B6 – For highest performance and efficiency
- B4HSL – For weight optimized alternatives as a "drop-in" solution
- BHV – For media with high viscosities
- BLF | BPL – For applications with high fouling tendency
TURBO
- B – The original boiling tube
- ESP – Efficient and lightweight
- EHPII – The industry standard boiling tube
- EPT – High efficiency in ferrous alloys
Thanks to their functional surface enhancements, the outsides of the GEWA-C and Turbo-C tubes offer optimal drainage performance for condensed refrigerants. Coupled with an ideally matched inner tube surface, optimum heat transfer coefficients can be achieved. GEWA and TURBO Condenser Tubes are available with outer and inner surfaces adapted for specific needs of your application.
GEWA
- C5 – For highest performance and efficiency
- C+SL/LW – For weight optimized alternatives as a "drop-in" solution
- CLF – For seawater & applications with increased fouling tendency
- CPL – For applications with high fouling tendency
TURBO
- C – The original condenser tube
- CSL – Efficient and lightweight
- CLF – For low fouling applications
- NCT – For large capacity chillers
- CPT – High efficiency in ferrous alloys
Our Materials
We offer you a broad portfolio of materials and can expand our offerings at any time to meet your specific needs regarding thermal conductivity, mechanical properties, or corrosion resistance. Enhanced surface tubes made by Wieland Thermal Solutions are already available in copper, copper-nickel, brass, carbon steel, stainless steel, and titanium.

You can find more product information here

For extreme efficiency in a variety of applications
Low-finned tubes are a reliable solution for controlling the temperature of gases and liquids, or for evaporating and condensing refrigerants. Thanks to their larger heat transfer surface area, they offer considerable potential to save in terms of materials and fill volumes. The wide range of dimensions offered by Wieland Thermal Solutions makes these products perfect for a broad scope of applications in the refrigeration and air conditioning industry, for oil/gas coolers in machinery and plant engineering, and for intermediate vapor superheaters in process engineering.
Your advantages at a glance
- Proven solution in a wide range of applications
- Increased heat transfer surface compared to plain tubes
- Material savings due to reduced tube length
- Filling quantity reduction due to higher efficiency
Materials
GEWA-K tubes offer a greater outer surface area compared to plain tubes. This is ideal for scenarios where the heat transfer surface coefficients vary significantly between the shell tube and the inner tube.
In GEWA-KS tubes, a special pattern is formed on the inside of the tube. This is ideal for scenarios with a low-heat transfer coefficient on the tube side, or an equally low-heat transfer coefficient on both sides.
Our Materials
We offer you a broad portfolio of materials and can expand our offering at any time to meet your specific needs regarding thermal conductivity, mechanical properties, or corrosion resistance. Low-finned tubes made by Wieland Thermal Solutions are already available in copper, copper-nickel, brass, carbon steel, stainless steel, and titanium.

You can find more product information here
GEWA-K/KS
S/T Trufin & TurboChil in Steel
S/T Trufin & TurboChil in Titanium

For compact coils and bent shapes
Medium-high finned tubes feature a significantly larger heat transfer surface area compared to plain tubes. They are ideal for compact and high-performance coils and shell-and-tube heat exchangers. Wieland medium-high finned tubes are a proven and robust solution for water heaters, storage tanks, refrigerant condensers, oil coolers, gas coolers or safety heat exchangers and more.
Your advantages at a glance
- High surface enlargement compared to plain tubes
- Ideal for compact and robust heat exchangers
- Excellent bending properties and processability
- Availability of various dimensions, internal structures and materials
Materials
GEWA-D finned tubes made of copper and copper alloys are available in a wide range of sizes and withstand the highest mechanical and thermic stress. They are specially made for the individual geometries of complex heat exchangers. Copper offers the highest heat conductivity of all technical metals. It is superior in processing, hygienic and a corrosion resistant solution.
GEWA-D finned tubes made of aluminium are specifically used in light-weight applications. Aluminium combines highest ductility with reasonable heat conductivity.
GEWA-D finned tubes made of carbon steel can be used in applications such as solid-fuel boilers or storage tanks. The significantly enlarged surface area compared to plain tubes allows compact solutions. Ready to install heat exchangers can be an interesting alternative solution for heat exchangers made of costly materials.
GEWA-D medium-high finned tubes made of stainless steel can be used for condensing boilers or domestic hot water applications. Due to the enlarged outside heat transfer surface area the required tube length can be reduced and thus costly material can be saved.
Our Materials
We offer the widest range of material in the industry and can extend it on request in case of special requirements for heat conductivity, mechanical properties or corrosion resistance. Medium-high finned tubes from Wieland Thermal Solutions are available in copper, copper-nickel, aluminium and carbon steel as well as in stainless steel in limited range.

You can find more information here

For highest efficiency in controlling the temperature of gases and liquids
High-finned tubes have a much greater outer surface area than smooth tubes. This allows for particularly compact designs. Thanks to their high, thin fins, these tubes perform particularly well in the heating and cooling of liquids and gases, making them an excellent choice for applications in heating technology, as well as in machinery and plant engineering.
Your advantages at a glance
- Highest surface enlargement compared to plain tubes (up to factor 18)
- Enables particularly compact and robust designs
- Available in straight lengths or as coiled heat exchanger
- Also available as bimetallic version GEWA-HB
Materials
GEWA-H tubes are available in a wide variety of sizes, either in straight sections or as coiled heat exchangers. They are primarily used as heat exchangers in gas boilers and as oil and gas coolers in applications related to machinery and plant engineering.
GEWA-HB tubes are high-finned tubes with a fixed inner tube made of a different material. This allows for more corrosion resistant (premium) materials to be used in combination with other, less expensive materials.
Our Materials
We offer you a broad portfolio of materials and can expand our offering at any time to meet your specific needs regarding thermal conductivity, mechanical properties, or corrosion resistance. High-finned GEWA-H tubes made by Wieland Thermal Solutions are already available in copper, copper-nickel and aluminum.
In the GEWA-HB tube materials like carbon steel, stainless steel, titanium or almost any other material like brass and nickel can be used for the inner tube.

You can find more information here

For absolutely reliable media separation with best thermal contact
Safety tubes are used for economical and safe heat transfer. The double wall tubes feature defined leakage paths for the absolutely reliable separation of fluids. For your individual requirements concerning fluid dynamics, we decide on the most suitable surface structure. Our GEWA-safe tubes are a reliable and safe choice for applications such as the direct heating of drinking water using critical fluids as in heating technology or for controlling the temperature of sensitive chemical processes.
GEWA-safe tubes are available in copper and copper alloys and provide safe drinking water heating in heat pumps, heat recovery systems, heat transfer stations and are used for transformer cooling.
Your advantages at a glance
- Reliable | Trust in reliable media separation through the double-tube system with defined leakage spaces.
- Efficient | Use direct and safe heat transfer of the media involved.
- Highest system availability | Detect leaks at an early stage and eliminate them during scheduled maintenance.
- Compact and economical | Reduce material costs and equipment requirements.
Our Materials
We offer you a broad portfolio of materials and can expand our offering at any time to meet your specific needs regarding thermal conductivity, mechanical properties, or corrosion resistance. GEWA-safe double wall tubes are available in copper and copper-nickel.

Read more
Heat exchanger for direct condensation in domestic hot water
Heat recovery from grey water
You can find more information here

In coaxial heat exchangers, fluids are ideally conducted in counter-flow directions. The Wieland WKE and WKC series have been optimized for the condensation or evaporation of refrigerants and are used in reciprocating chillers and heat pumps.
Your advantages at a glance
- High specific power due to optimized inner tubes
- Flow guidance in counterflow
- Insensitive to frost
- Low fouling tendency
- Long service life
- Reversible operation possible
- Standard designs from stock
You can find more information here
Data sheet WKC | WKE
Our wholesaler for standard heat exchanger
Calculate your coaxial heat exchanger directly online:
ThermalS

WRK finned tube heat exchangers are suitable for efficient direct condensation and evaporation in heat pump buffer tanks. The inner grooved surface of the used finned tubes optimize the heat transfer. Thus highest COP-values are possible even with smallest temperature differences.
Your advantages at a glance
- Efficient: Highest COP values due to direct integration of the heat exchanger in the storage tank
- Filling volume optimized: Smallest refrigerant volumes due to compact design
- Easy handling: Easy replacement and maintenance
You can find more information here

Hygienic and compact: Wieland Safety Heat Exchangers are ideal for the direct heating of water for domestic use by condensing the refrigerant within the tank. The double-walled model offers additional safety against contamination and complies with the guidelines for ensuring the quality of drinking water.
4 good reasons for the Wieland safety heat exchanger series
- Cost-effective | Benefit from higher performance with the lowest refrigerant and material consumption!
- Efficient | Achieve the highest COP values according to DIN EN 16147 by installing the heat exchanger directly in the storage tank.
- Safe | Rely on absolutely reliable media separation through double tubes
- Easy handling | Reduce your effort for installation and replacement.
You can find more information here
More about direct condensation in the storage tank
Data sheet Safety Heat Exchanger
Our wholesaler for standard heat exchanger

Storage heating, circulation heating of domestic water, protecting solid fuel boilers from overheating, or controlling the temperature of oils and emulsions: With our WRW series of heat exchangers, you are putting your trust in highly developed, compact solutions that are ready to install.
Your advantages at a glance
- Compact design due to high thermal conductivity of copper combined with increased heat transfer area
- Proven corrosion resistance
- Retrofittable due to compact spiral design
- Standard designs from stock
You can find more information here

Figure out with us the best heat exchanger design for your heat-transfer challenge
The requirements of heat exchangers are as diverse as their applications - this is why nine out of ten heat exchangers we deliver, are customized to our clients' needs. Together with you, we develop innovative heat exchanger concepts that clearly set you apart from other manufacturers in terms of efficiency, compact design and service life: from customized fittings for optimum installation through to the complete heat exchanger design in the material that best suits your application. For challenging operations like the use of natural refrigerants, e.g. in transcritical CO2 systems (R744) with high operating pressures up to 130 bar, or for applications with propane (R290), ammonia (R717) and water (R718), we serve you with our knowledge from the very beginning of your design.
Our offer
- Together we clarify your heat-transfer and design challenge,
- we design the best solution using our CAD heat-transfer and forming technology know-how,
- we create functional prototypes and
- measure their performance at our in-house thermal engineering laboratory,
- supporting you from the design of the prototype through to series production.
Your application
We are delivering customized solutions to fulfill your requirements – less refrigerant volume and material usage, a very compact design for your special construction space or higher safety aspects. With this flexibility we are well prepared for your special applications, for example the use of natural high pressure refrigerants or the advancement of an ambitious laser gas cooling.
Your benefits at a glance
- Solution for your specific heat-transfer challenge
- Compact solutions using as little material as possible
- Ready-to-install solutions for your trouble-free series production
- Optimal thermal characteristics at low pressure drops
- Engineering and manufacturing from a single source
Our materials
Depending on your requirements regarding corrosion resistance, thermal conductivity as well as mechanical and processing properties, we choose the most suitable material.

You can find more product information here
Customized Heat Exchangers
Safety heat exchanger for domestic hot water heat pump
Design your S&T heat exchangers directly online:
ThermalS

Materials
Wieland | EN Designation | EN No. | ASTM UNS-No. | JIS-No. |
---|---|---|---|---|
K08 | Cu-OFE | CW009A | C10100 | |
K12 | Cu-HCP | CW021A | C10300 | |
K20 | Cu-DHP | CW024A | C12200 | |
K21 | Cu-DHP | CW024A | C12200 | |
K30 | Cu-OF | CW008A | C10200 | |
K32 | Cu-ETP | CW004A | C11000 | C1100 |
Wieland | EN Designation | EN No. | ASTM UNS-No. |
---|---|---|---|
K41 | - | - | C19150 / C19160 |
K52 | CuNi2Si | CW111C | C70260 |
K53 | - | - | - |
K54 | - | - | C81540 |
K60 | CuCr1Zr | CW106C | C18150 |
K61 | CuCr1Zr | CW106C | C18200 |
K65 | CuFe2P | CW107C | C19400 |
K81 | CuSn0,15 | CW117C | C14415 |
KC1 | CuPb1P | CW113C | C18700 |
eco KS2® | CuSP* | CW114C | C14700 |
eco KS4® | CuNi1SP* | - | - |
Wieland | EN Designation | EN No. | ASTM UNS-No. | JIS-No. |
---|---|---|---|---|
Z11 | CuZn35Pb1 | CW600N | C34000 | |
Z12 | CuZn35Pb2 | CW601N | C34200 / C34500 | |
Z14 | CuZn37Pb2* | CW606N | C35300 | |
Z21 | CuZn38Pb2 | CW608N | C35000 | C3713 |
Z23 | CuZn36Pb3 | CW603N | C36000 | |
Z29 | CuZn39Pb2 | CW612N | C37700 | |
Z31 | CuZn40Pb2 | CW617N | C38000 | |
Z32 | CuZn39Pb3 | CW614N | C38500 | |
Z33 | CuZn39Pb3 | CW614N | C38500 | |
Z40 | CuZn43Pb2Al | CW624N | - | |
Z41 | CuZn40Pb2 | CW617N | C38000 | |
Z43 | CuZn33Pb1AlSiAs | CW725R | - | |
Z45 | CuZn36Pb2As | CW602N | C35330 | |
Z46 | CuZn36Pb2As | CW602N | C35330 | |
Z48 | CuZn40Pb2 | CW617N | C38000 |
Wieland | EN Designation | EN No. | ASTM UNS-No. |
---|---|---|---|
L13 | CuNi10Fe1Mn | CW352H | C70600 |
L15 | CuNi10Fe1Mn | CW352H | C70600 |
L30 | CuNi30Mn1Fe | CW354H | C71500 |
eco LV3® | CuNi9Sn* | - | C72700 |
Wieland | EN Designation | EN No. | ASTM UNS-No. | JIS-No. |
---|---|---|---|---|
M10 | CuZn10 | CW501L | C22000 | C2200 |
M15 | CuZn15 | CW502L | C23000 | C2300 |
M17 | CuZn15 | CW502L | C23000 | |
M20 | CuZn20 | CW503L | C24000 | C2400 |
M30/M34 | CuZn30 | CW505L | C26000 | C2600 |
M36 | CuZn36 | CW507L | C27000 | C2700 |
M37/M38 | CuZn37 | CW508L | C27200 | C2720 |
eco M41® | CuZn38As | CW511L | C27453 | |
eco M57® | CuZn42 | CW510L | - | |
eco M58® | CuZn42 | CW510L | - | |
eco M59® | CuZn42 | CW510L | - | |
eco M60® | CuZn40 | CW509L | C27450 |
Wieland | EN Designation | EN No. | ASTM UNS-No. |
---|---|---|---|
S40 | CuZn37Mn3Al2PbSi | CW713R | C67420 |
eco S34® | - | - | C67340 |
eco SW1® | CuZn21Si3P | CW724R | C69300 |
Wieland | EN Designation | EN No. | ASTM UNS-No. |
---|---|---|---|
B06 | CuSn6 | CW452K | C51900 |
B09 | CuSn8 | CW453K | C52100 |
B10 | CuSn8 | CW453K | C52100 |
B12 | CuSn8P | CW459K | C52100 |
B21 | CuSn8 | CW453K | C52100 |
B44 | CuSn4Pb4Zn4 | CW456K | C54400 |
B45 | CuSn4Pb4Zn4 | CW456K | C54400 |
BV9 | CuSn6 | CW452K | C51900 |
Wieland | EN Designation | EN No. | ASTM UNS-No. |
---|---|---|---|
U35 | CuAl10Ni5Fe4 | CW307G | C63020 |
U36 | CuAl11Fe6Ni6 | CW308G | - |

Materials
Wieland | EN Designation | EN No. | ASTM UNS-No. | JIS-No. |
---|---|---|---|---|
K08 | Cu-OFE | CW009A | C10100 | |
K12 | Cu-HCP | CW021A | C10300 | |
K20 | Cu-DHP | CW024A | C12200 | |
K21 | Cu-DHP | CW024A | C12200 | |
K30 | Cu-OF | CW008A | C10200 | |
K32 | Cu-ETP | CW004A | C11000 | C1100 |
Wieland | EN Designation | EN No. | ASTM UNS-No. |
---|---|---|---|
K41 | - | - | C19150 / C19160 |
K52 | CuNi2Si | CW111C | C70260 |
K54 | - | - | C81540 |
K60 | CuCr1Zr | CW106C | C18150 |
K61 | CuCr1Zr | CW106C | C18200 |
K65 | CuFe2P | CW107C | C19400 |
K81 | CuSn0,15 | CW117C | C14415 |
KC1 | CuPb1P | CW113C | C18700 |
eco KS2® | CuSP* | CW114C | C14700 |
eco KS4® | CuNi1SP* | - | - |
Wieland | EN Designation | EN No. | ASTM UNS-No. | JIS-No. |
---|---|---|---|---|
Z11 | CuZn35Pb1 | CW600N | C34000 | |
Z12 | CuZn35Pb2 | CW601N | C34200 / C34500 | |
Z14 | CuZn37Pb2* | CW606N | C35300 | |
Z21 | CuZn38Pb2 | CW608N | C35000 | C3713 |
Z23 | CuZn36Pb3 | CW603N | C36000 | |
Z29 | CuZn39Pb2 | CW612N | C37700 | |
Z31 | CuZn40Pb2 | CW617N | C38000 | |
Z32 | CuZn39Pb3 | CW614N | C38500 | |
Z33 | CuZn39Pb3 | CW614N | C38500 | |
Z40 | CuZn43Pb2Al | CW624N | - | |
Z41 | CuZn40Pb2 | CW617N | C38000 | |
Z43 | CuZn33Pb1AlSiAs | CW725R | - | |
Z45 | CuZn36Pb2As | CW602N | C35330 | |
Z46 | CuZn36Pb2As | CW602N | C35330 | |
Z48 | CuZn40Pb2 | CW617N | C38000 |
Wieland | EN Designation | EN No. | ASTM UNS-No. |
---|---|---|---|
L13 | CuNi10Fe1Mn | CW352H | C70600 |
L15 | CuNi10Fe1Mn | CW352H | C70600 |
L30 | CuNi30Mn1Fe | CW354H | C71500 |
eco LV3® | CuNi9Sn* | - | C72700 |
Wieland | EN Designation | EN No. | ASTM UNS-No. | JIS-No. |
---|---|---|---|---|
M10 | CuZn10 | CW501L | C22000 | C2200 |
M15 | CuZn15 | CW502L | C23000 | C2300 |
M17 | CuZn15 | CW502L | C23000 | |
M20 | CuZn20 | CW503L | C24000 | C2400 |
M30/M34 | CuZn30 | CW505L | C26000 | C2600 |
M36 | CuZn36 | CW507L | C27000 | C2700 |
M37/M38 | CuZn37 | CW508L | C27200 | C2720 |
eco M41® | CuZn38As | CW511L | C27453 | |
eco M57® | CuZn42 | CW510L | - | |
eco M58® | CuZn42 | CW510L | - | |
eco M59® | CuZn42 | CW510L | - | |
eco M60® | CuZn40 | CW509L | C27450 |
Wieland | EN Designation | EN No. | ASTM UNS-No. |
---|---|---|---|
B06 | CuSn6 | CW452K | C51900 |
B09 | CuSn8 | CW453K | C52100 |
B10 | CuSn8 | CW453K | C52100 |
B12 | CuSn8P | CW459K | C52100 |
B21 | CuSn8 | CW453K | C52100 |
B44 | CuSn4Pb4Zn4 | CW456K | C54400 |
B45 | CuSn4Pb4Zn4 | CW456K | C54400 |
BV9 | CuSn6 | CW452K | C51900 |
Wieland | EN Designation | EN No. | ASTM UNS-No. |
---|---|---|---|
U35 | CuAl10Ni5Fe4 | CW307G | C63020 |
U36 | CuAl11Fe6Ni6 | CW308G | - |

Materials
Wieland | EN Designation | EN No. | ASTM UNS-No. | JIS-No. |
---|---|---|---|---|
K08 | Cu-OFE | CW009A | C10100 | |
K12 | Cu-HCP | CW021A | C10300 | |
K20 | Cu-DHP | CW024A | C12200 | |
K21 | Cu-DHP | CW024A | C12200 | |
K30 | Cu-OF | CW008A | C10200 | |
K32 | Cu-ETP | CW004A | C11000 | C1100 |
Wieland | EN Designation | EN No. | ASTM UNS-No. |
---|---|---|---|
K41 | - | - | C19150 / C19160 |
K52 | CuNi2Si | CW111C | C70260 |
K54 | - | - | C81540 |
K60 | CuCr1Zr | CW106C | C18150 |
K61 | CuCr1Zr | CW106C | C18200 |
K65 | CuFe2P | CW107C | C19400 |
K81 | CuSn0,15 | CW117C | C14415 |
KC1 | CuPb1P | CW113C | C18700 |
eco KS2® | CuSP* | CW114C | C14700 |
eco KS4® | CuNi1SP* | - | - |
Wieland | EN Designation | EN No. | ASTM UNS-No. | JIS-No. |
---|---|---|---|---|
Z11 | CuZn35Pb1 | CW600N | C34000 | |
Z12 | CuZn35Pb2 | CW601N | C34200 / C34500 | |
Z14 | CuZn37Pb2* | CW606N | C35300 | |
Z21 | CuZn38Pb2 | CW608N | C35000 | C3713 |
Z23 | CuZn36Pb3 | CW603N | C36000 | |
Z29 | CuZn39Pb2 | CW612N | C37700 | |
Z31 | CuZn40Pb2 | CW617N | C38000 | |
Z32 | CuZn39Pb3 | CW614N | C38500 | |
Z33 | CuZn39Pb3 | CW614N | C38500 | |
Z40 | CuZn43Pb2Al | CW624N | - | |
Z41 | CuZn40Pb2 | CW617N | C38000 | |
Z43 | CuZn33Pb1AlSiAs | CW725R | - | |
Z45 | CuZn36Pb2As | CW602N | C35330 | |
Z46 | CuZn36Pb2As | CW602N | C35330 | |
Z48 | CuZn40Pb2 | CW617N | C38000 |
Wieland | EN Designation | EN No. | ASTM UNS-No. |
---|---|---|---|
L13 | CuNi10Fe1Mn | CW352H | C70600 |
L15 | CuNi10Fe1Mn | CW352H | C70600 |
L30 | CuNi30Mn1Fe | CW354H | C71500 |
eco LV3® | CuNi9Sn* | - | C72700 |
Wieland | EN Designation | EN No. | ASTM UNS-No. | JIS-No. |
---|---|---|---|---|
M10 | CuZn10 | CW501L | C22000 | C2200 |
M15 | CuZn15 | CW502L | C23000 | C2300 |
M17 | CuZn15 | CW502L | C23000 | |
M20 | CuZn20 | CW503L | C24000 | C2400 |
M30/M34 | CuZn30 | CW505L | C26000 | C2600 |
M36 | CuZn36 | CW507L | C27000 | C2700 |
M37/M38 | CuZn37 | CW508L | C27200 | C2720 |
eco M41® | CuZn38As | CW511L | C27453 | |
eco M57® | CuZn42 | CW510L | - | |
eco M58® | CuZn42 | CW510L | - | |
eco M59® | CuZn42 | CW510L | - | |
eco M60® | CuZn40 | CW509L | C27450 |
Wieland | EN Designation | EN No. | ASTM UNS-No. |
---|---|---|---|
B06 | CuSn6 | CW452K | C51900 |
B09 | CuSn8 | CW453K | C52100 |
B10 | CuSn8 | CW453K | C52100 |
B12 | CuSn8P | CW459K | C52100 |
B21 | CuSn8 | CW453K | C52100 |
B44 | CuSn4Pb4Zn4 | CW456K | C54400 |
B45 | CuSn4Pb4Zn4 | CW456K | C54400 |
BV9 | CuSn6 | CW452K | C51900 |
Wieland | EN Designation | EN No. | ASTM UNS-No. |
---|---|---|---|
U35 | CuAl10Ni5Fe4 | CW307G | C63020 |
U36 | CuAl11Fe6Ni6 | CW308G | - |
