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The entire world of forging

Forming the Future Put it into motion. Forging with Schuler. For over 150 years, the name Schuler has been synonymous with innovative technologies, quality and customer-oriented service in forging technology. Today, you can find us all over the world, wherever forging systems are used safely and efficiently in production. This claim is backed up by more than 5.000 Schuler employees at our sites in Europe, the USA, Mexico, Brazil, India, China and Russia. Recent integration of Müller Weingarten AG and the Bêché brand strengthens our position of technological leadership. As a leading supplier of cold, warm and hot forging systems, we offer everything from a single source from component development and process planning through die making and turnkey installation of efficient production systems. Schuler forging technology offers you a decisive advantage over your competitors for productivity and quality. We hope you enjoy this overview of our extensive range of products and services. When you need high part quality, maximum production availability and reliable process engineering, we are ready to put it into motion for you. We welcome a challenge.

Contents 1 FORGING PROCESSES 1.1 Processes 1.2 Temperature ranges 5 6 8 2 3 4 PROCESS AND DIE DEVELOPMENT 2.1 Process development 2.2 Die design 2.3 Die lubrication and cooling devices 2.4 Part feed and transport sequence analysis SYSTEMS FOR COLD FORGING 3.1 Hydraulic cold extrusion presses 3.2 Hydraulic ironing presses 3.3 Hydraulic presses for manufacturing CNG gas cylinder tanks 3.4 Multi-station mechanical presses with link drive SYSTEMS FOR WARM FORGING 4.1 Multi-station mechanical presses with eccentric drive 4.2 Multi-station mechanical presses with link drive 9 10 11 11 12 13 15 18 20 22 25 27 5 6 SYSTEMS FOR HOT FORGING 5.1 Short-stroke hammers 5.2 Counterblow hammers 5.3 Screw presses 5.4 Crankshaft forging presses 5.5 Multi-station mechanical presses with eccentric drive 5.6 Hydraulic forging presses 5.7 Hydraulic presses for forging ring blanks 5.8 Hydraulic presses for forging aluminum wheels 31 33 35 38 43 48 50 52 GLOBAL SERVICE 55 4

Forging Processes 1 Processes Temperature ranges 6 8 5

Forging Processes Processes REDUCTION. Reduction is a forging process in which the workpiece is forced through an opening in the die, fully or in part, involving a reduction in its cross section. Tapering of solid bodies results in a reduction in cross section, whereas hollow bodies, by contrast, are necked. EXTRUSION. EXTRUSION is a single or multi-station production process for creating both hollow and solid bodies. The process is distinguished according to the direction of material flow: forward, backwards or lateral. The workpiece is forced through an opening in the die with reduced cross section giving the workpiece its shape. IRONING. IRONING is carried out by pulling the workpiece through an ironing ring with the help of a punch. The wall thickness of the hollow body is reduced in this process. Reduction. Full forward extrusion. Ironing. Backward extrusion. Lateral extrusion. 6 Forging Processes Processes

CLOSED DIE FORGING. CLOSED DIE FORGING is a forging process in which dies move towards each other and covers the workpiece in whole or in part. The heated raw material, which is approximately the shape or size of the final forged part, is placed in the bottom die. The shape of the forging is incorporated in the top or bottom die as a negative image. Coming from above, the impact of the top die on the raw material forms it into the required forged form. UPSETTING / OPEN DIE FORGING. UPSETTING and OPEN DIE FORGING are also forging procedures. Upsetting is principally used for preliminary distribution of the material. In contrast to closed die forging, the workpiece is not completely enclosed during this forging process. PIERCING / TRIMMING. PIERCING is used for incorporating holes and openings into a workpiece, which can have a wide range of shapes and sizes. TRIMMING involves removing surplus material (flash) from the workpiece. Closed die forging. Upsetting. Piercing. Open die forging. Trimming. Processes Forging Processes 7

Forging Processes Temperature ranges Increasing degree of deformation Increasing dimensional accuracy Hot forging Cold forging Warm forging Extrusion Upsetting / Setting Piercing Closed die forging Forging ring blanks Upsetting Open die forging Extrusion Piercing / trimming Extrusion Ironing Upsetting / Setting Reduction Piercing The different temperature ranges in forging are an important factor when selecting the process and for successful commercial production. 8 Forging Processes Temperature ranges

Process and die development 2 Process development Die design Die lubrication and cooling device Part feed and transport sequence analysis 10 11 11 12 9

Process and die development Process development We offer the entire process development from a single source, including consulting and training services. To determine the best economic solution to produce quality parts, development of the forging process begins with part design, and must simultaneously consider material selection, process technology, production stages and die processes. The part design and process plan form the basis for calculating the economic efficiency in the project planning phase. This means that the decision to use a forging process has been decided. Furthermore, the process plan provides information about the forging equipment required, the die system and the Die design Process development Selection of the press concept transfer system. These parameters must be considered simultaneously in order to achieve an optimum result. Part feed and transport sequence analysis PROCESS DEVELOPMENT. The object of developing the part design and process plan is to ensure that economical production can be achieved. It is necessary to consider the specific application and production situation. For example, if the production volumes are low then the objective is to achieve a process with only a few forging stations, and to plan for more complex secondary machining. An effective part design and process plan relies on know-how and practical experience. During development of the process plan, the decision is made which forging process or which combinations of forging processes should be used: e. g. full forward extrusion, backward extrusion, reduction, upsetting, etc. PROCESS PLAN FOR TRIPOD HOUSING PRODUCTION Warm forging Sequence development Cold forging 10 Process and die development Process development

Process and die development Die lubrication / cooling device DIE DESIGN. In practice, a critical part of die development is the configuration of the punches and dies. Not only the punches and dies are accommodated in the die holder, but also the other die elements. Modern forging dies are configured for various stations. This means additional forging, calibration, punching or trimming procedures are possible in the same operation (using four- or five-station die sets commonly found in operation today). Special dies, such as closing dies, can also be used. This significantly reduces production costs related to additional processing after the forging process. 1 2 3 4 5 1 Ejector pin 2 Thrust piece 3 Pneumatic spring 4 Inner punch 5 Outer punch 6 Spraying ring 7 Die 8 Reinforcement 9 Counterpunch 10 Thrust piece 11 Ejector pin 6 7 8 9 10 11 DIE COOLING AND LUBRICATION. In warm and hot forging presses, effective cooling and lubrication systems are required. The shown solutions can provide optimum lubrication placement. In addition, the duration of the cooling and lubrication process can be optimized. This is an advantage compared to other systems such as linear manipulators, swivelling systems or systems that are mounted on transfer rails. Die cooling and lubrication systems for warm and hot forging. Die lubrication / cooling device Process and die development 11

Process and die development Part feed and transport sequence analysis THE OBJECTIVES OF THE PART FEED AND TRANSPORT SEQUENCE ANALYSIS Implementing a design with the maximum transport safety and max. output Collision-free transport of parts from station to station Quick and safe die commissioning Increased stroke rate / output CASE STUDY Process and die development THE CUSTOMER Automotive components supplier REQUIREMENT Complete process development for manufacturing a tripod housing with net-shape internal geometry, near-net shape quality of outer dimensions, with required output of 38 parts / min. Tripod housing. THE SOLUTION Schuler delivers a turnkey system with a 5-station die solution including die holder. Also, Schuler is responsible for developing the warm forging process with subsequent cold forging and the corresponding die cooling and lubrication system. Die set of the multi-station mechanical press with eccentric drive for manufacturing tripod housing. 12 Process and die development Part feed and transport sequence analysis

Systems for cold forging 3 Hydraulic cold extrusion presses Hydraulic ironing presses Hydraulic presses for manufacturing Compressed Natural Gas (CNG) cylinder tanks Multi-station mechanical presses with link drive 15 18 20 22 13

Systems for cold forging Overview HYDRAULIC COLD EXTRUSION PRESSES Tight parts tolerance High-precision workpieces Increased output and flexibility Large number of forging stations HYDRAULIC IRONING PRESSES No limits on component lengths High component quality Deep-drawing and ironing operation in one forging procedure SYSTEMS FOR MANUFACTURING CNG GAS CYLINDER TANKS Low material costs for blanks Low weight Large container diameters are possible High surface quality MULTI-STATION MECHANICAL PRESSES WITH LINK DRIVE High output Long die life Highly complex part shapes Optional servo drive 14 Systems for cold forging Overview

Systems for cold forging Hydraulic cold extrusion presses MH series HIGH FLEXIBILITY ENSURES MAXIMUM ECONOMY. The great flexibility of hydraulic systems is due to the ability of the user to program strokes, forces and speeds to fit the specific application, which makes cold forging an attractive solution. Single and multi-station hydraulic presses have an unlimited working capacity, offering advantages especially for long shaftshaped parts. Multi-station hydraulic presses require a very rigid press frame in conjunction with a tall slide in order to absorb the high off-center loads which result from the different force requirements of the individual stations. Schuler s patented RingValve prefill valves significantly shorten the cycle time of the hydraulic press. These valves provide fast filling of the hydraulic cylinders during rapid closing. The pressure in the cylinder can be released quickly so that the slide will start the return stroke without delay. Unlike traditional prefill valves, RingValve prefill valves can be opened under maximum pressure at bottom dead center, which significantly shortens the press release portion of the cycle. Presses with three cylinders allow Dynamic Force Control (DFC) to be used. The oil flow is automatically supplied to one, two or all three cylinders depending on the force required. The maximum working speed is three times faster than conventional presses with the same drives. As a result, further cycle time reductions can be achieved, particularly for cold extrusion presses, where the force requirement does not rise significantly until the end of the forging cycle. Various process sequences can easily be programmed and saved by the operator using an on-screen menu control system. In addition, integrated and highly flexible part handling ensures maximum productivity. THE ADVANTAGES Tight parts tolerances because of rigid press frame and design High-precision workpieces due to precise slide guiding and motorized height adjustable hard stroke limitations in the bed and below the individual forging stations Increased output performance due to RingValve technology Part-specific optimization of the press cycle by Dynamic Force Control (DFC) for high output Low die wear due to low-speed contact (programmable motion curve) Increased flexibility with more forging stations Individually programmable ejectors in the bed and slide Hydraulic cold extrusion press. Hydraulic cold extrusion presses Systems for cold forging 15

SYSTEMS FOR INDIVIDUAL REQUIREMENTS. Because of the modular structure of Schuler s hydraulic presses, these cold extrusion presses can be adapted to the range of parts to be manufactured, as well as other customer requirements (e. g. available die concepts, spacing between stations). Bed and slide surface, die space, stroke, number of stations and spacing between stations are flexible in the press design. Ejector concepts, as well as their forces and strokes, are defined according to the parts being manufactured. Stroke limitations, whether fixed or adjustable, and die change equipment are integrated as required. The drive configuration ensures that required working speeds are reached, and therefore the desired output is achieved. The adaptable press geometry offers design flexibility for installation of automation with a tri-axis transfer (for high output) or robots (for high flexibility). OVERVIEW OF COLD EXTRUSION PRESS MODELS Model MH 315 MH 500 MH 630 MH 800 MH 900 MH 1000 Press force [kn] 3.150 5.000 6.300 8.000 9.000 10.000 Max. slide stroke [mm] 250 750 250 750 500 1.000 500 1.000 500 1.000 500 1.250 Number of stations 1 3 1 3 1 4 1 4 1 4 1 5 Model MH 1250 MH 1600 MH 2000 MH 2500 MH 3150 MH 4000 Press force [kn] 12.500 16.000 20.000 25.000 31.500 40.000 Max. slide stroke [mm] 700 1.250 700 1.250 900 1.250 900 1.250 900 1.250 900 1.250 Number of stations 1 5 1 5 1 5 1 6 1 6 1 6 Subject to technical modifications. Different tonnages are available upon request. APPLICATIONS Hydraulic cold extrusion presses Long-shaft components such as: Drive shafts Axle shafts Transmission shafts Truck axles 16 Systems for cold forging Hydraulic cold extrusion presses

CASE STUDY Systems for cold forging hydraulic cold extrusion presses THE CUSTOMER Automotive supplier THE REQUIREMENT Fully automated press line for manufacturing shafts weighing up to 25 kg. Extremely high flexibility needed the customer wishes to extend product range to non-automotive parts, such as large specialized screws. THE SOLUTION Schuler supplied one hydraulic fivestation transfer press with Dynamic Force Control. Press capacity: 25.000 kn Slide stroke: 1.000 mm Production rate: 12 parts / min Part loading and separation Tri-axis Compact Mono Beam Transfer using hydraulic active grippers and turnover grippers Five die sets Die change equipment Hydraulic active grippers with patented damping system, clamping force is 10 kn. Die change arm for quick changeover. Loading station. Tri-Axis Compact Mono Beam Transfer. 1 Bin tipper 2 Vibration hopper 3 Step feeder 4 Sorting scale 5 Loading station 6 Tri-Axis Compact Mono Beam Transfer 7 Safety device 8 Finished part conveyor 9 Finished part containers 9 10 Press 11 Die change arm 12 Control pendant panel 8 7 6 5 4 1 2 3 11 10 12 Hydraulic cold extrusion presses Systems for cold forging 17

Systems for cold forging Hydraulic ironing presses MHS series ECONOMICAL FORGING WITH COMBINED DRAWING AND IRONING IN ONE STROKE. Hydraulic presses can form over almost unlimited stroke lengths under force, and therefore are well suited to wall ironing. In addition to traditional vertical forging systems, Schuler also offers horizontal presses. With ingenious integration of two die chambers in this design, the return stroke of the slide can also be used for forging, thereby increasing productivity. THE ADVANTAGES High component quality in terms of accurate dimensions and shape, as well as surface quality Economical production with combined deep-drawing and ironing operations in one forging procedure No limits on component length due to unlimited working strokes of hydraulic press systems High output performance, particularly with horizontal press systems using two die chambers Very long components can be produced on hydraulic ironing presses. Blanks and cups are processed on the same machine without any return stroke. OVERVIEW OF HYDRAULIC IRONING PRESSES IN HORIZONTAL DESIGN Model MHS 63 / 63 MHS 80 / 80 MHS 100 / 100 MHS 125 / 125 MHS 160 / 160 MHS 200 / 200 MHS 250 / 250 MHS 315 / 315 Press force [kn] 2 630 2 800 2 1.000 2 1.250 2 1.600 2 2.000 2 2.500 2 3.150 Number of die chambers 2 2 2 2 2 2 2 2 Model MHS 400 / 400 MHS 500 / 500 MHS 630 / 630 MHS 800 / 800 MHS 1000 / 1000 MHS 1250 / 1250 MHS 1600 / 1600 Press force [kn] 2 4.000 2 5.000 2 6.300 2 8.000 2 10.000 2 12.500 2 16.000 Number of die chambers 2 2 2 2 2 2 2 Subject to technical modifications. Different tonnages are available upon request. 18 Systems for cold forging Hydraulic ironing presses

MH series WHETHER SHORT OR LONG NET SHAPE IS THE GOAL. As a rule, one ironing operation is sufficient for calibrating precise components. Long, thin walled parts are generated in one stroke by relatively large reductions in the wall thickness on presses with long stroke length and several ironing rings arranged consecutively. The blanks are pulled through the die with the punch. In one cycle, the wall thickness is reduced precisely to the required dimension, the ultimate shape is created and the surface is smoothed. Extreme slide strokes require extreme press dimensions. Manipulators transferring the blank from the parts conveyor into the die. OVERVIEW OF VERTICAL HYDRAULIC IRONING PRESSES Model MH 250 MH 315 MH 400 MH 500 MH 630 MH 800 MH 1000 MH 1250 MH 1600 Press force [kn] 2.500 3.150 4.000 5.000 6.300 8.000 10.000 12.500 16.000 Number of die chambers 1 1 1 1 1 1 1 1 1 Subject to technical modifications. Different tonnages are available upon request. APPLICATIONS Hydraulic ironing presses Long, thin walled parts such as CO 2 cartridges Shock absorbers Hollow shafts Hydraulic ironing presses Systems for cold forging 19

Systems for cold forging Hydraulic presses for manufacturing CNG gas cylinder tanks MH series COMPRESSED NATURAL GAS FOR A CLEANER FUTURE. Today, more and more vehicles are driven with alternative fuels. The travel distance of gas-fuelled vehicles depends significantly on the vehicle weight and the fill volume of the fuel tank. To deal adequately with both of these factors, it is necessary for the compressed natural gas (CNG) containers to withstand considerable internal pressure and also be lightweight in design. Beginning with the blank, CNG containers are manufactured on Schuler machines in several drawing/ironing operations. A blank holder is integrated depending on the forging station. THE ADVANTAGES Lower material cost of blanks as compared to precision tubes Lower weight than traditionally forged containers Larger container diameters are possible compared to traditional forging High surface quality Die space. Line with three hydraulic presses for manufacturing CNG gas cylinder tanks. Press forces: 19.000, 12.000 and 8.000 kn. 20 Systems for cold forging Hydraulic presses for manufacturing CNG gas cylinder tanks

CNG CONTAINERS: FROM INEXPENSIVE BLANKS. Manufacturing CNG gas cylinder tanks from blanks offers many advantages. Blanks are easier and less expensive to manufacture than seamless precision tubes. In addition, they have thinner bottoms compared to containers forged from a solid block. High surface quality is guaranteed by the integrated ironing process. Fully automated production processes and fast changeovers maximize productivity for the system. Part transfer between presses with robots. APPLICATIONS Hydraulic presses for manufacturing CNG gas cylinder tanks CNG gas cylinder tanks Hydraulic presses for manufacturing CNG gas cylinder tanks Systems for cold forging 21

Systems for cold forging Multi-station mechanical presses with link drive MML series EFFICIENCY, STEP BY STEP. Multi-station mechanical presses with link drive are suitable not only for high-volume production of small components but also for producing a variety of shafts, due to the large range of slide strokes. The latest control systems make it possible to integrate the presses easily into fully automated production systems. The variety of features and available functions such as bed and slide ejectors, blank feeding, transfer and die changes means that the systems can be used for specific applications or flexibly optimized for a wide range of applications. The various designs for kinematic motion of the slide that can be selected enable these presses to be configured for warm forging as well. THE ADVANTAGES High output rate Reduced forging speed Longer die life Wide range of applications Stroke Conventional eccentric drive Motion sequence with link drive Multi-station mechanical press for cold forging transmission shafts. Press force: 16.000 kn, slide stroke: 800 mm. The link drive system permits high output rates and production with reduced die wear. Time 22 Systems for cold forging Multi-station mechanical presses with link drive

OVERVIEW OF Multi-station mechanical presses with link drive Model MML 315 MML 400 MML 630 MML 800 MML 1000 Press force [kn] 3.150 4.000 6.300 8.000 10.000 Ram stroke [mm] 250 500 250 500 315 500 315 500 400 630 Stroke rate [strokes / min] 30 60 22 45 30 60 22 45 25 50 25 50 25 55 22 45 25 50 18 38 Bed surface [lr fb mm] 1.000 600 1.000 600 1.250 710 1.250 710 1.500 1.000 Model MML 1200 MML 1600 MML 2000 MML 2500 MML 3150 Press force [kn] 12.000 16.000 20.000 25.000 31.500 Ram stroke [mm] 400 630 630 800 630 800 630 800 630 800 Stroke rate [strokes / min] 25 50 18 38 18 40 16 36 18 40 16 36 18 36 16 32 18 36 16 32 Bed surface [lr fb mm] 1.500 1.000 1.800 1.000 1.800 1.000 2.200 1.000 2.200 1.000 Subject to technical modifications. Link drive system for multi-station mechanical presses. APPLICATIONS Multi-station mechanical presses with link drive Parts for: Engines / transmissions Drive components Suspension components Fasteners Roller bearing elements Multi-station mechanical presses with link drive Systems for cold forging 23

MSL series COMBINATION WITH SERVO DRIVE. Combining the link drive system with servo drive technology makes it possible to improve upon the advantages of the link drive concept. This results in highly flexible production systems with increased output rates. THE ADVANTAGES WITH OPTIONAL SERVO DRIVE Increased output rates Individually programmable ram speeds and motion sequences Ability to optimize the forging process High component quality and long die life Ability to adapt slide movement to the transport sequence Sensitive tryout operation possible Optimized energy consumption CASE STUDY Systems for cold forging multi-station mechanical presses with link drive THE CUSTOMER Automotive supplier THE REQUIREMENT Supply a turnkey solution for economical series production of steering system components in the automotive industry. Production rate: 50 parts / min 3-axis servo transfer system Automatic feed system with bin tipper Die lubrication system Die change equipment SYSTEM SOLUTION Schuler supplied a multi-station mechanical press with link drive: Press force: 8.000 kn Ram stroke: 450 mm Schuler supplied a multi-station, mechanical press with link drive, press force 8.000 kn. 24 Systems for cold forging Multi-station mechanical presses with link drive

Systems for warm forging 4 Multi-station mechanical presses with eccentric drive 27 Multi-station mechanical presses with link drive Systems for warm forging 25

Systems for warm forging Overview MULTI-STATION MECHANICAL PRESSES WITH ECCENTRIC DRIVE Wide press force range Large die space Very good output Long die lifes Long stroke lengths Short contact time MULTI-STATION MECHANICAL PRESSES WITH LINK DRIVE High output Large die space High component quality Information about multi-station mechanical presses with link drive can be found starting on page 22 26 Systems for warm forging Overview

Systems for warm forging Multi-station mechanical presses with eccentric drive MME series SHORT CONTACT TIMES. Multi-station mechanical presses with eccentric drive are well suited for warm forging due to the sinusoidal motion sequence, as there is a short contact time and sufficient non-contact time available for die cooling. This series of presses can be configured with 1 or 2-point slide attachment, and offers a wide range of rated press forces, with the ability to achieve long stroke lengths of 1.000 mm or even more. The generously sized die space permits the use of heavily reinforced dies. In order to make a fully automated production line, the flexible controls can incorporate a wide range of peripheral devices. THE ADVANTAGES Long stroke length High output rates Minimum contact times Extended non-contact times for die cooling Long die life Large die space Tight component tolerances and high component quality Optional servo drive OVERVIEW OF MULTI-STATION MECHANICAL PRESS MODELS WITH ECCENTRIC DRIVE Model MME 315 MME 400 MME 630 MME 800 MME 1000 Press force [kn] 3.150 4.000 6.300 8.000 10.000 Ram stroke [mm] 250 500 250 500 315 500 315 500 400 630 Stroke rate [strokes / min] 30 60 22 45 30 60 22 45 25 50 25 50 25 55 22 45 25 50 18 38 Bed surface [lr fb mm] 1.000 600 1.000 600 1.250 710 1.250 710 1.500 1.000 Model MME 1200 MME 1600 MME 2000 MME 2500 MME 3150 Press force [kn] 12.000 16.000 20.000 25.000 31.500 Ram stroke [mm] 400 630 630 800 630 800 630 800 630 800 Stroke rate [strokes / min] 25 50 18 38 18 40 16 36 18 40 16 36 18 36 16 32 18 36 16 32 Bed surface [lr fb mm] 1.500 1.000 2.300 1.000 (1.750 1.000) 2.300 1.000 (1.750 1.000) 2.300 1.000 (1.750 1.000) 2.300 1.000 (1.750 1.000) Subject to technical modifications. Multi-station mechanical presses with eccentric drive Systems for warm forging 27

The classic eccentric drive in its compact design offers a range of advantages, particularly suitable for use in warm forging. The drive kinematics, which can optionally be configured with a servo drive, combined with the high-performance bed and ram ejector systems, offer the best conditions for reliable workpiece handling and high output. Combination with multiple feeder and transfer devices is also possible. These advantages can also be used successfully in applications involving cold forging and precision forging. NC-transfer and die space area. Stroke Eccentric sequence Eccentric drive in compact design. The eccentric drive provides economical high-volume production. Time 28 Systems for warm forging Multi-station mechanical presses with eccentric drive

MSE series COMBINATION WITH SERVO DRIVE. Combining the eccentric drive system with servo drives makes it possible to extend the advantages of this drive concept. The result is a highly flexible production system with increased output rates. THE ADVANTAGES WITH OPTIONAL SERVO DRIVE Increased output rates Individually programmable ram speeds and motion sequences Ability to adapt motion sequence to the forging process High component quality and long die life Ability to adapt slide movement to the transport sequence Sensitive tryout operation possible Optimized energy consumption Stroke Conventional eccentric drive Various slide kinematics are possible with optional servo drive. Time APPLICATIONS Multi-station mechanical presses with eccentric drive Parts for: Engines / transmissions Drive components Suspension components Fasteners Roller bearing elements Multi-station mechanical presses with eccentric drive Systems for warm forging 29

CASE STUDY Systems for warm forging multi-station mechanical presses with eccentric drive THE CUSTOMER Automotive supplier THE REQUIREMENT Deliver a fully automated line for warm forging production of driveline components SYSTEM SOLUTION Schuler delivered a multi-station mechanical press with eccentric drive: Press force: 20.000 kn Ram stroke: 800 mm Output rate: 38 parts / min Induction heating with parts feed and temperature monitoring, with a system for gating-out parts 3-axis servo transfer system Cooling section Extensive die, cooling and lubrication accessories 15 14 8 6 1 5 19 18 1 Bin tipper 2 Vibration hopper 3 Step feeder 4 Scale with sorting device 5 Lateral transport conveyor 6 Pre-graphitizing station 7 Graphite tank 8 Induction heating 9 Die lubrication tank 10 Conveyor for colder part removal 11 Container for colder parts 12 Operating panel 13 Protective device on the infeed side 14 Transfer system 15 Press 16 Protective device on the exit end 17 Die change arm 18 Cooling section 19 Finished parts container 10 11 16 14 17 12 13 16 15 14 13 9 8 2 3 7 1 4 5 10 11 7 19 18 17 9 6 30 Systems for warm forging Multi-station mechanical presses with eccentric drive

Systems for hot forging 5 Short-stroke hammers Counterblow hammers Screw presses Crank forging presses 33 35 38 43 Multi-station mechanical presses with eccentric drive Hydraulic forging presses Hydraulic presses for forging ring blanks Hydraulic presses for forging aluminum wheels 48 50 52 Systems for hot forging 31

Systems for hot forging Overview SHORT-STROKE HAMMERS Very high stroke rates Minimum pressure contact times Low operating costs COUNTERBLOW HAMMERS Extremely high impact energy and forging power (tonnage) High reliability and availability High stability of the overall structure SCREW PRESSES Wide range of parts High repeat accuracy High reliability CRANK FORGING PRESSES High production speed Fully automated parts handling High production accuracy MULTI-STATION MECHANICAL PRESSES WITH ECCENTRIC DRIVE Long stroke lengths Large die space More information about multi-station mechanical presses Precision forging with eccentric drive can be found on page 27 HYDRAULIC FORGING PRESSES More accurate pre-forging with high press forces, therefore reduced rolling work Weight savings due to greater accuracy High output HYDRAULIC PRESSES FOR FORGING RING BLANKS High forces for extremely large parts High flexibility / high output Proven press concepts HYDRAULIC PRESSES FOR FORGING ALUMINUM WHEELS Highest possible press forces in compact space Proven press concepts High precision and quality of forged wheels 32 Systems for hot forging Overview

Systems for hot forging Short-stroke hammers KGH series MAXIMUM EFFICIENCY EVEN IN SMALL-TO-MEDIUM BATCH SIZES. Short-stroke hammers are used for many kinds of applications, and are particularly suitable for small-to-medium sized parts. The sturdy, monoblock U-frame design, in conjunction with precise guides with a large surface area, provides high forging accuracy. The hydraulic down stroke drive permits high stroke rates combined with minimum contact times. The modern control system permits precise adjustment of the impact energy and stroke rate. THE ADVANTAGES High stroke rate Minimum contact times Low operating costs Simple operation Guides with large surface area Universally applicable ADDITIONAL EQUIPMENT Automation Anvil bed heating Anti-vibration installation Acoustic insulation Customer-specific custom solutions Short-stroke hammers with solid U-frame. Fully automatic production on a short-stroke hammer with robot automation. Short-stroke hammers Systems for hot forging 33

OVERVIEW OF SHORT-STROKE HAMMER MODELS Model KGH 1,6 KGH 2 KGH 2,5 KGH 3,15 KGH 4 KGH 5 KGH 6,3 KGH 8 KGH 10 KGH 12,5 KGH 16 Working capacity [kj] 16 20 25 31,5 40 50 63 80 100 125 160 Impact frequency max. [per min] 122 120 113 100 98 98 95 92 83 75 70 Slide stroke max. [mm] 635 665 685 755 790 775 805 835 885 1.060 960 Slide depth [mm] 470 510 550 595 640 695 750 830 890 1.020 1.045 Clearance between guides [mm] Total die height max. [mm] 520 570 608 664 717 766 831 890 960 1.060 1.060 320 345 360 420 455 435 465 495 540 580 620 Total weight [t] 24 30 36 46 60 75 96 121 143 195 235 Subject to technical modifications. 1 2 3 4 5 6 1 Drive head 2 Piston rod 3 Slide 4 Upper die 5 U-frame 6 Lower die Drive head of a KGH 2,5. APPLICATIONS Short-stroke hammers Chassis components Flanges Connecting rods Turbine blades Hand tools 34 Systems for hot forging Short-stroke hammers

Systems for hot forging Counterblow hammers FOR LARGE FORGED PARTS. BÊCHÉ counterblow hammers are predominantly used for manufacturing large and ultra-large forgings. The high impact energy and tonnage of the hammer dies, moving in opposite directions, permits precision forming of large forgings. THE ADVANTAGES Extremely high impact energy and tonnage High reliability and availability High stability of the overall structure High precision with large forgings Hydraulic tup coupling Long stroke for accessibility ADDITIONAL EQUIPMENT Die change systems Tup heating systems Ejector systems Spraying systems Hydraulic counterblow hammers HG series Counterblow hammers with hydraulic drives are particularly well suited to the medium tonnage range. This means there is no need for a complicated compressed air installation. 1 Drive head 2 Piston rod 3 Upper tup 4 Upper die 5 Upright 6 Tup support 7 Lower die 8 Lower tup 9 Hydraulic tup coupling 10 Buffer 1 2 3 4 OVERVIEW OF HYDRAULIC COUNTERBLOW HAMMER MODELS Model HG 16 HG 20 HG 25 HG 31,5 HG 40 Working capacity [kj] 160 200 250 315 400 5 6 7 8 Impact frequency max. [per min] 50 50 50 45 45 Slide stroke max. [mm] 630 710 710 760 760 Slide depth [mm] 1.450 1.600 1.750 1.800 2.150 9 10 Clearance between guides [mm] 1.100 1.200 1.300 1.350 1.500 Total die height max. [mm] 315 355 355 400 450 Total weight [t] 133 161 203 255 322 Subject to technical modifications. Counterblow hammers Systems for hot forging 35

1 2 DG series Pneumatic counterblow hammers 3 4 5 6 This series employs the proven pneumatic drive concept. It allows very large forging energy levels to be achieved. The sturdy design of the uprights, together with a solid guide system, ensures high precision during forging. 1 Top part of machine 2 Upper tup 3 Upper die 4 Upright 5 Tup support 6 Lower die 7 Lower tup 8 Hydraulic slide coupling 9 Buffer 7 8 9 DG 140 OVERVIEW OF PNEUMATIC COUNTERBLOW HAMMER MODELS Model DG 16 DG 20 DG 25 DG 31,5 DG 40 DG 50 DG 63 DG 80 DG 100 DG 125 DG 140 Working capacity [kj] 160 200 250 315 400 500 630 800 1.000 1.250 1.400 Impact frequency max. [per min] 50 45 45 40 40 36 36 32 28 25 25 Slide stroke max. [mm] 745 840 840 910 960 970 1.020 1.035 1.100 1.150 1.225 Slide depth [mm] 1.450 1.600 1.750 1.800 2.150 2.400 2.700 3.000 3.400 3.600 3.700 Clearance between guides [mm] 1.100 1.200 1.300 1.350 1.500 1.500 1.600 1.600 1.700 1.900 2.000 Total die height max. [mm] 315 355 355 400 450 450 450 500 550 550 600 Total weight [t] 120 145 180 210 185 355 433 650 850 1.050 1.200 Subject to technical modifications. APPLICATIONS Counterblow hammers Crankshafts Turbine blades Driveline and chassis components for cars and trucks Flanges and disks 36 Systems for hot forging Counterblow hammers

CASE STUDY Systems for hot forging counterblow hammers THE CUSTOMER Components industry THE REQUIREMENTS Economical production of large crankshafts with a component length up to four meters and weighing up to 3.000 kg each. THE SOLUTION Müller Weingarten designed and manufactured a semi-automated forging line, based upon the DG 80 h counterblow hammer. The entire forging line is equipped with an advanced control concept for optimizing the process parameters and material flow, based on an innovative logic function. Production of crankshafts on a counterblow hammer with a rated capacity of 800 kj. 1 Manipulator 2 Storage area 3 Furnace 4 Descaling 5 Drop machine 6 Counterblow hammer 7 Trimming and calibrating press 2 3 1 4 5 3 2 4 1 6 7 Semi-automated forging line with counterblow hammer and trimming /calibrating press. Counterblow hammers Systems for hot forging 37

Systems for hot forging Screw presses SCREW PRESSES ARE VIRTUOSOS. Thanks to almost 120 years of experience in building screw presses, with continuous developments, there is practically no drop forging that cannot be manufactured using a screw press. As far back as 1936, the conventional friction drive was superseded by the friction roller drive and, subsequently, direct drive. From 1963 onward, once reliable three-phase synchronous motors with rapid permitted switching frequencies were available; the door was open to a new and ideal drive system for screw presses. In this direct drive, the torque from the drive motor is transmitted to the screw without intermediate drive components, wear parts or energy losses. This drive concept represents the optimum design solution for a screw press drive in terms of robustness, reliability, maintenance and efficiency. THE ADVANTAGES Wide range of parts High repeat accuracy 1 Cooling motor 2 Main motor stator with motor housing 3 Rotor shrunk onto flywheel 4 Screw 5 Crown 6 Thrust bearing 7 Tie bar 1 2 3 4 5 6 7 High reliability High flexibility Maximum efficiency Frequency Drive ADDITIONAL EQUIPMENT Ejector in the bed and slide Die change systems Customer-specific solutions Drive system of a screw press. APPLICATIONS Screw presses Forgings for the automotive industry and commercial vehicles such as crankshafts, axles, connecting rods or transverse links Fittings Flanges Hand tools, cutlery Surgical instruments as well as turbine components 38 Systems for hot forging Screw presses

PA series PA SERIES. The body of the press in the PA series is a monoblock design. In particular, small components made from non-ferrous metals and requiring high precision can be forged efficiently on type PA screw presses. OVERVIEW OF SERIES PA SCREW PRESS MODELS Model PA 125 PA 140 PA 160 PA 180 PA 200 PA 225 Screw diameter [mm] 125 140 160 180 200 225 Continuously permitted press [kn] 2.500 3.200 4.000 5.000 6.400 8.000 Die-to-die blow force [kn]. 3.200 4.000 5.000 6.300 8.000 10.000 Gross working capacity [kj] 4,5 6,5 10 14 19 27 Available stroke rate (thermal) [min -1 ] 32 30 28 26 24 21 Distance bed slide max. [mm] 620 670 730 790 850 940 Bed surface [mm] 460 500 500 550 540 570 580 610 620 650 680 710 Total weight [t] 4 6 8 10 14 20 Subject to technical modifications. 1 Drive 2 Frame 3 Ram 4 Upper die 5 Lower die 1 2 3 4 5 A type PA spindle press can also be used for producing components from non-ferrous metals. Screw presses Systems for hot forging 39

PSM / PSH series PSM / PSH SERIES. The medium PSM / PSH series are produced as a two-piece casting held together by four tie rods. In the PSM series, the tie rods absorb surplus energy once a defined forging force has been reached, protecting the press against overload. In addition, the PSH series features a hydraulic overload protection system. This system allows the press to be equipped with a higher working energy, which is necessary when large forgings are involved. The series has a frequency drive. This not only allows precise control, but also delivers improved efficiency and better repetitive accuracy. 1 2 3 4 5 6 7 1 Drive 2 Crown 3 Screw 4 Ram 8 5 Frame 6 Upper die 7 Die change arm (option) 8 Lower die OVERVIEW OF SERIES PSM SCREW PRESS MODELS Model PSM 265 PSM 300 PSM 325 PSM 360 PSM 400 PSM 450 PSM 500 PSM 560 PSM 630 Screw diameter [mm] 265 300 325 360 400 450 500 560 630 Continuously permitted press [kn] 11.000 14.000 16.000 21.000 26.000 32.000 40.000 50.000 64.000 Die-to-die blow force [kn]. 14.000 18.000 20.000 26.000 32.000 40.000 50.000 63.000 80.000 Gross working capacity PSM [kj] 65 100 120 160 210 315 400 500 700 Gross working capacity PSH [kj] 90 140 170 225 300 420 560 700 1000 Distance bed slide max. [mm] 780 860 920 1.000 1.080 1.200 1.300 1.450 1.460 Bed surface [mm] 750 860 820 870 860 920 930 1.000 1.000 1.080 1.100 1.180 1.200 1.280 1.320 1.400 1.600 1.990 Total weight [t] 40 55 67 86 112 150 196 260 350 Subject to technical modifications. 40 Systems for hot forging Screw presses

PZS series 1 PZS SERIES. The frame of PZS presses in this series is a four-piece casting held together by four tie rods. The drive comes from several motors linked via a bull gear to the external diameter of the flywheel. The press force is limited by a slipping clutch in the flywheel. 2 3 1 Flywheel 2 Motor 3 Crown 4 Ram 5 Upper die 6 Upright 7 Lower die 8 Bed 4 5 6 7 8 Machining a screw at the Weingarten facility. OVERVIEW OF SERIES PZS SCREW PRESS MODELS Model PZS 710 PZS 800 PZS 900 PZS 1000 PZS 1120 PZS 1200 PZS 1325 Screw diameter [mm] 710 800 900 1.000 1.120 1.200 1.325 Continuously permitted press [kn] 80.000 100.000 128.000 160.000 200.000 230.000 280.000 Die-to-die blow force [kn]. 100.000 126.000 160.000 200.000 250.000 290.000 360.000 Gross working capacity [kj] 1.150 / 2.200 1.650 / 3.000 2.250 / 4.000 3.150 / 6.000 4.000 / 6.800 5.000 / 8.500 7.000 / 10.000 Available stroke rate (thermal) [min -1 ] 10 9 9 8 8 7 4 Distance bed slide max. [mm] 1.200 1.700 1.800 2.000 2.000 2.200 2.300 Bed surface [mm] 1.600 2.000 2.050 2.000 2.100 2.200 2.400 3.000 2.400 3.000 2.600 3.000 3.100 3.700 Total weight [t] 450 700 980 1.150 1.400 1.800 2.400 Subject to technical modifications. Screw presses Systems for hot forging 41

CASE STUDY Systems for hot forging screw presses THE CUSTOMER Manufacturer of heavy duty truck engine components. THE REQUIREMENTS System for automated production of truck crankshafts and truck front axles. THE SOLUTION Müller Weingarten supplied a complete, fully automated forging line. A PZS 900f screw press is used as the main forging machine. All necessary process steps such as rolling, preforming forging, finish forging, trimming, twisting and calibrating are accomplished in the line. Screw press of the PZS-series in operation. 1 2 3 4 5 6 7 1 Rotary hearth furnace 2 Descaling 3 Reducer roll 4 Screw press PZS 900f 5 Robot / manipulator 6 Trimming and calibrating press 7 Twister 8 Calibrating press 9 Cooling section 8 9 42 Systems for hot forging Screw presses

Systems for hot forging Crank forging presses PK series SpeedForge crank forging presses SpeedForge. Mechanical high-performance crank forging presses are particularly well suited to fully automated production of high volume forgings. The frame and drive system are designed for high load and production precision. An extensive range of equipment including material feed, transfer system and finished part removal, spraying system and die change makes it possible to adapt the presses to various production jobs with ease. These presses can be efficiently used both for steel and nonferrous materials. THE ADVANTAGES High production speed Fully automated parts handling High production accuracy High rigidity Efficient series production ADDITIONAL EQUIPMENT Ejector in the bed and slide Servo transfer Feeder Die change system Spraying system 1 2 3 4 5 6 1 Drive 2 Crown 3 Crankshaft 4 Upright 5 Ram 6 Ram ejector 7 Die holder 8 Transfer 9 Die 10 Bed ejector 11 Bed 7 9 8 10 11 Crank forging presses Systems for hot forging 43

Crank forging presses with DualDrive DUALDRIVE OPENS NEW HORIZONS. The newly developed DualDrive concept for crank forging presses makes it possible to move through the top dead center position at a very low ram speed, and move through the bottom dead center position at a very high ram speed. The forging press is equipped with two drives for this kind of high-performance. 1. A conventional main drive with flywheel, clutch / brake combination with freewheel and planetary gear unit. With this drive concept, called DualDrive, it is possible to vary the ram speeds between 6 and 12 strokes / min. in the TDC area and between 60 and 120 strokes / min. in the BDC area. As a result, the die contact times can be cut to a minimum, thereby extending the die life. Also, the time available for die cooling and for parts transport is longer. This means the productivity of the press can be increased significantly by full capacity utilization. Output rates of up to 40 parts / min are possible, depending on the part size. THE ADVANTAGES Reduced contact time Reduced die wear More time for die cooling and part transport 1 DualDrive 2 Crank shaft 3 Flywheel drive 4 Flywheel 2. A controlled auxiliary drive for the sections in which no forging takes place. 1 2 3 4 Stroke [mm] 300 250 200 DualDrive 150 100 50 Conventional eccentric drive Contact time 0 0 0,5 1,0 Reduced pressure contact time with DualDrive. Time [s] 44 Systems for hot forging Crank forging presses

OVERVIEW OF CRANK FORGING PRESS MODELS Model PK 1250 PK 2000 PK 3150 PK 4000 PK 5000 PK 6300 Nominal force [kn] 12.500 20.000 31.500 40.000 50.000 63.000 Stroke rate continuous [1/ min]. 70 65 60 60 50 40 Working capacity single [kj] 180 320 550 750 1.000 1.300 Ram stroke [mm] 300 300 400 400 450 450 Ram adjustment [mm] 20 20 25 25 25 25 Shut height [mm] 850 1.100 1.500 1.500 1.700 1.700 Bed depth [mm] 1.050 1.320 1.390 1.450 1.500 1.600 Bed width [mm] 1.280 1.480 2.170 2.200 2.250 2.300 Subject to technical modifications. Main drive of crank forging press PK 3150. Planetary gearbox between flywheel and crank shaft. APPLICATIONS Crank forging presses Chassis components Flanges Drive components Bearing races Gear blanks Crank forging presses Systems for hot forging 45

CASE STUDY Systems for hot forging crank forging presses THE CUSTOMER Automotive components industry THE REQUIREMENTS Fully automated production system for flanges with high output. THE SOLUTION Müller Weingarten supplied a complete production line comprised of part feed, induction heating system, PK 3150 crank forging press with DualDrive, hydraulic ejectors and complete automation system as well as part removal with controlled cooling. The package also included die holders, dies and a die change system. The forging line manufactures various flanges with a productive output of 30 parts / min, in a flash-free production process involving five forging stations. PK 3150 with Dual Drive. Multi-station die of a crank forging press of the PK-series. 46 Systems for hot forging Crank forging presses

PRESS CONTROL SYSTEM MW FORGE CONTROL SYSTEM (FCS) The MW-FCS control system represents the latest development in control systems for screw presses and forging hammers. It has been developed especially for forging machines, and combines the latest features for high flexibility and high accuracy in controlling machine parameters. Depending on the machine and application, the standard functions include a wide range of stroke control options or impact program specifications, energy and part thickness measurement, control loops for energy and TDC position, as well as documentation functions for die and production data. THE ADVANTAGES Ease of operation because of uniform graphical user interface with touch screen Access to machine documentation, circuit diagrams and fluid diagrams Remote maintenance and diagnosis Interfaces for external data storage as well as print function, including integration in a customer s network Control loops to ensure that process parameters are observed, especially for screw presses Monitoring functions for parameters affecting quality, such as impact energy, part thickness, impact force, part temperature Required impact energy can be applied precisely Visualization in almost every customer s language ADDITIONAL EQUIPMENT MDA-Machine data acquisition Barcode scanner Pyrometer for part temperature Central control for forging cells with central data storage and data management Interlinking interfaces and, if required, control functions to customer s forging peripherals Energy feedback into the power system when operating screw press with frequency inverter Heating with control loops for top and bottom Customer-specific special functions Simple operation with graphical user interface. Uniform touch screen user interface. Crank forging presses Systems for hot forging 47

Systems for hot forging Hydraulic forging presses MH series FORGING RAILWAY WHEELS. Railway wheels are manufactured in three forging stages before they are processed further with machining (metal cutting). First, the heated billet is pressed into a disk-shaped pre-form on a pre-form press. Next, this blank is rolled into the shape of a wheel on a rolling machine. Last, the rolled wheel is shaped in a calibrating press and a hole is pierced in the hub. Hydraulic presses with press forces up to 100.000 kn are used for pre-forging the wheels. As a rule, press forces from 20.000 to 50.000 kn are required for shaping and piercing. Hydraulic press for forging railway wheels. THE ADVANTAGES High press forces achieve more accurate pre-forging, reducing rolling work Weight saving due to greater accuracy High output APPLICATIONS Hydraulic forging presses Railway wheels for cars Railway wheels for engines 48 Systems for hot forging Hydraulic forging presses

EXAMPLES OF HYDRAULIC FORGING PRESSES. The working sequences before and after the actual forging are frequently performed on hydraulic presses. On hydraulic pre-form presses, preforms are generated so that there will be a mass distribution appropriate for the die. Having a pre-form with a good structure reduces the amount of material used and also reduces the forming forces required during forging. The die life is improved. Following die forging, the flash is trimmed off and any required piercing and coining work is performed on hydraulic trimming and calibrating presses. These working sequences can either be combined in one die or performed consecutively in several stations. Hydraulic forging presses are used wherever high forces and long working travel distances are required. This is revealed in numerous special applications up to press forces of 300.000 kn and working travel distances of 4 m. Examples include hot forging presses, piercing presses and presses for partial forging of fittings and thick-walled pipes. OVERVIEW OF Hydraulic forging presses Model MH 500 MH 800 MH 1000 MH 1600 MH 2000 MH 2500 MH 3000 MH 3500 Press force [kn] 5.000 8.000 10.000 16.000 20.000 25.000 30.000 35.000 Number of stations 1 3 1 3 1 4 1 4 1 5 1 5 1 5 1 5 Model MH 4000 MH 5000 MH 6000 MH 7000 MH 8000 MH 9000 MH 10000 Press force [kn] 40.000 50.000 60.000 70.000 80.000 90.000 100.000 Number of stations 1 6 1 6 1 6 1 7 1 7 1 7 1 7 Subject to technical modifications. Different tonnages are available upon request. APPLICATIONS Hydraulic forging presses Fittings for pipelines Thick-walled pipes Rail ends Large flanges and brake disks (pre-forming) Crank shafts (calibrating) Axle parts (calibrating) Hydraulic forging presses Systems for hot forging 49

Systems for hot forging Hydraulic presses for forging ring blanks MH series WHETHER BIG OR SMALL, ROUNDNESS AND PRECISION ARE THE MAIN CRITERIA. The first forging operation when manufacturing seamless rings is forging ring blanks. Ring rolling lines turn these into the precursors for bearing shells, crown gears, flanges, turbine disks for jet engines and various highly stressed structural elements. Hydraulic presses are particularly well suited for forging ring blanks: High forces, long strokes and an unlimited rated capacity are the features needed for efficient ring blank forging. Either highly flexible lines or multi-station processes with optimized output are used, depending on the depth of the product range and / or the required output rate. Centering devices, swivel arms, robots and manipulators guarantee suitable parts and die handling. THE ADVANTAGES High forces for extremely large parts High flexibility and high output rates Proven press concepts Different forging processes adapted to the parts Coordinated die processes, in-house die and process expertise Hydraulic press of the MH-series. Ring blank progression. Forging ring blanks with hydraulic press technology. 50 Systems for hot forging Hydraulic presses for forging ring blanks

PROCESSES DEPENDENT ON THE PRODUCT. The required part geometry and a suitable grain flow are provided by different forging processes. Ring blanks for simple parts are manufactured open die upsetting followed by pre-piercing and piercing. Complex geometries are achieved by forging and pre-piercing in a die. Pre-piercing guarantees a symmetrical grain flow in the part and has a positive effect on the mechanical properties of the finished product. Each process requires a precisely configured line with the necessary level of flexibility and the required output rate. The short cycle time of the press allows the ring blank to be further processed before it cools. Different materials present the forging line with different challenges. Low-alloy steels can be formed relatively easily, while exotic materials such as nickel-based alloys, Inconel, titanium and aluminum alloys require process parameters that can be adjusted or even varied during the forging operation, such as adjustable profiles for the forging speed. FEM simulation of symmetrical piercing on both sides. OVERVIEW OF HYDRAULIC PRESS MODELS FOR MANUFACTURING RING BLANKS Model MH 800 MH 1000 MH 1600 MH 2000 MH 2500 MH 3000 MH 3500 MH 4000 Press force [kn] 8.000 10.000 16.000 20.000 25.000 30.000 35.000 40.000 Number of stations 1 3 1 3 1 4 1 4 1 4 1 4 1 4 1 4 Model MH 5000 MH 6000 MH 7000 MH 8000 MH 9000 MH 10000 MH 12000 MH 14000 Press force [kn] 50.000 60.000 70.000 80.000 90.000 100.000 120.000 140.000 Number of stations 1 3 1 3 1 4 1 4 1 4 1 4 1 4 1 4 Subject to technical modifications. Different tonnages are available upon request. APPLICATIONS Hydraulic presses for forging ring blanks Seamless rings as the precursor for: Bearing shells Crown gears Flanges Blade carriers for jet engines Various highly stressed structural elements Hydraulic presses for forging ring blanks Systems for hot forging 51

Systems for hot forging Hydraulic presses for forging aluminum wheels MH series FORGING ALLOY WHEELS. Weight savings achieved in the driveline are increasingly leading to more energy efficient vehicles. In addition, reducing the wheel weight in trucks can allow for a payload increase of up to 500 kg, depending on the number of wheels, for the same gross vehicle weight. In addition, the ability to polish the surface to a mirror-like finish makes the hearts of some truck drivers beat faster. These requirements are met by forged aluminum wheels. Hydraulic presses with high press forces make it possible to forge aluminum wheels with superior properties: Improved mechanical properties, lighter weight, good chemical resistance, and almost unlimited design options. Turnkey systems including the presses, a saw for the billets, heaters, automation and die change devices make it easy to start forging aluminum wheels, or to extend an existing production facility. Line controllers make sure the complex systems operate reliably. THE ADVANTAGES Concentrated high press forces Proven press concepts High precision and quality of forged wheels High output rates Forging processes adapted to the part geometry Complete lines from a single source Hydraulic press for forging aluminum wheels. OVERVIEW OF HYDRAULIC PRESS MODELS FOR forging ALUMINUM WHEELS Model MH 500 MH 800 MH 1000 MH 1600 MH 2000 MH 2500 MH 3000 MH 3500 Press force [kn] 5.000 8.000 10.000 16.000 20.000 25.000 30.000 35.000 Number of stations 1 1 1 1 1 1 1 1 Model MH 4000 MH 5000 MH 6000 MH 7000 MH 8000 MH 9000 MH 10000 Press force [kn] 40.000 50.000 60.000 70.000 80.000 90.000 100.000 Number of stations 1 1 1 1 1 1 1 Subject to technical modifications. Different tonnages are available upon request. 52 Systems for hot forging Hydraulic presses for forging aluminum wheels

ADAPTED FORGING PROCESSES. The design and geometry of the forged wheel, as well as the required quantity, influences the type of system selected for production. Simple wheel geometries without a forged rim face, such as truck wheels, are forged in one station. The following station carries out the trimming and flaring of the rim. A similar process is used for small quantities, in which the design of the rim face is completed by machining. For rims with a profiled face, press lines comprising typically three to four presses are used. The parts are either forged with one heat in three to four stations or with intermediate heating. Single or double-action presses make it possible to forge the rim face precisely. The surface is either left unfinished (as forged) or machined, depending on the quality required. Aluminum wheel progression. APPLICATIONS Hydraulic presses for forging aluminum wheels Aluminum wheels Hydraulic presses for forging aluminum wheels Systems for hot forging 53

CASE STUDY Systems for hot forging hydraulic presses for forging aluminum wheels THE CUSTOMER Supplier to automotive and truck industries THE REQUIREMENTS Line for economical aluminum wheel manufacturing for cars and pickups. THE SOLUTION Schuler supplied two manufacturing cells, each based on presses with 70.000 kn press capacity. The aluminum wheels are forged in one stroke. High-performance ejectors are installed in bolster and slide to make sure the parts are unloaded safely from the die. The wheels are then flared on a press with 8.000 kn press capacity. The proper operating conditions of the dies are ensured by a lubricating and cooling system consisting of lubricant conditioning device and linear manipulator with rotary head. Both oil-based lubricants and waterbased lubricants can be used. Part handling inside the cell is done by a six-axis robot designed for forging. Short cycle times are achieved by double grippers. Hydraulic clamps with internal cooling and a tandem die change cart are provided for quick and safe die changes. Hydraulic press with 70.000 kn press capacity in production. Forged part and finished wheel. 1 Hydraulic forging presses with 70.000 kn capacity each 2 Flaring pesses with 8.000 kn capacity each 3 Robot with double-tooling 4 Lubrication manipulator with rotating head 5 Die change cart 2 3 4 2 3 4 1 5 1 54 Systems for hot forging Hydraulic presses for forging aluminum wheels

Global service 6 Global service 55

Global service SERVICE COMPLETE PERFORMANCE Technical services can play an important role in achieving success in the customer s plant. We have more than 900 service staff at work, day-in and day-out, all over the world. Services available include procurement and project planning through the production phase of the lines. The core building blocks to serve our customers include technical service for ensuring line availability, boosting performance by line modernization and extensive training courses for optimizing line utilization. TECHNICAL SERVICE Complete service Maintenance and servicing Preventative maintenance Safety check on line for accident prevention regulations Spare parts and repairs Energy checks Machine relocation Tele-service PERFORMANCE ENHANCEMENT Modernization Machine optimization Die and process technology Pre-owned machines TRAINING Schuler Academy Production support Complete technical services to ensure productivity and efficiency. On-site employee training by qualified trainers and start-up personnel. 56 Global service

Optimizing existing forging systems can extend service life and improve productivity. Our experience and knowledge of the latest technology and processes are continuously channeled into efforts for improved performance. SERVICE FROM A SINGLE SOURCE Modernization of existing lines can be an economical alternative. Schuler has more than 900 service staff at work, day-in and day-out, all over the world. Global service 57

i ADDRESSES Global partners for forging technology forging@schulergroup.com www.schulergroup.com GERMANY Schuler AG Bahnhofstr. 41 73033 Göppingen Phone + 49 7161 66-0 Fax + 49 7161 66-233 Schuler Pressen GmbH & Co. KG Bahnhofstr. 41 73033 Göppingen Phone + 49 7161 66-307 Fax + 49 7161 66-729 Schuler SMG GmbH & Co. KG Louis-Schuler-Str. 1 68753 Waghäusel Phone + 49 7254 988-226 Fax + 49 7254 988-490 Röntgenstr. 16 18 73730 Esslingen Phone + 49 711 939-50 Fax + 49 711 939-5279 Schuler Automation GmbH & Co. KG Louis-Schuler-Str. 1 91093 Heßdorf Phone + 49 9135 715-0 Fax + 49 9135 715-159 Louis-Schuler-Str. 9 75050 Gemmingen Phone + 49 7267 809-0 Fax + 49 7267 809-182 Gräbener Pressensysteme GmbH & Co. KG Wetzlarer Str. 1 57250 Netphen Phone + 49 2737 962-0 Fax + 49 2737 962-100 Schuler Cartec GmbH & Co. KG Bahnhofstr. 41 73033 Göppingen Phone + 49 7161 66-0 Fax + 49 7161 66-622 Gartenstr. 54 88250 Weingarten Phone + 49 751 401-03 Fax + 49 751 401-2931 Schuler Cartec Engineering GmbH & Co. KG Heinrich-Hertz-Str. 6 88250 Weingarten Phone + 49 751 4006-0 Fax + 49 751 4006-195 Schuler Guß GmbH & Co. KG Bahnhofstr. 41 73033 Göppingen Phone + 49 7161 66-890 Fax + 49 7161 66-616 Vögtle Service GmbH & Co. KG Friedhofstr. 115 73054 Eislingen Phone + 49 7161 9973-0 Fax + 49 7161 9973-13 UmformCenter Erfurt GmbH Schwerborner Str. 1 99086 Erfurt Phone + 49 361 7066-50 Fax + 49 361 7066-51 Schuler Group Headquarters, Göppingen Schuler SMG, Waghäusel Schuler SMG, Esslingen Plant Umformtechnik Erfurt 58 ADDRESSES Schuler Cartec Engineering, Weingarten

Müller Weingarten, Weingarten Schuler Automation, Gemmingen Müller Weingarten AG Schussenstr. 11 88250 Weingarten Phone + 49 751 401-2211 Fax + 49 751 401-2694 Müller Weingarten AG Plant Umformtechnik Erfurt Schwerbornerstr. 1 99086 Erfurt Phone + 49 361 700 Fax + 49 361 706001 Schuler Service Deutschland Am Weidenbroich 1A Industriegebiet Bergisch-Born 42897 Remscheid Phone + 49 2191 9519-90 Fax + 49 2191 9519-981 TRAVIS Handelsgesellschaft mbh Schussenstr. 11 88250 Weingarten Phone + 49 751 401-2762 Fax + 49 751 401-2842 FRANCE Schuler France S.A. 17. rue Schertz, BP 26 67023 Strasbourg Cedex 1 France Phone +33 388 657080 Fax +33 388 403490 Great Britain Schuler Presses UK Ltd. Brineton Street Quayside Drive Walsall, West Midlands WS29LA Great Britain Phone +44 1922 619-100 Fax +44 1922 619-101 italy SW Italia S.r.l. Via Erasmo da Rotterdam 4 10134 Turin Italy Phone +39 011 31-66511 Fax +39 011 31-99237 Schuler Automation, Heßdorf SWITZERLAND Beutler Nova AG Hofmatt 2 6142 Gettnau Switzerland Phone +41 41 9727575 Fax +41 41 9727576 Gräbener Pressensysteme, Netphen SLOVAK REPUBLIC Schuler Systems & Services GmbH & Co. KG Service Slovak Republic Dukelská štvrt 948 /11 01841 Dubnica nad Váhom Slovak Republic Phone +421 42 286 1341 Fax +421 42 281 2002 Schuler Service Deutschland, Remscheid ADDRESSES 59

i ADDRESSES Global partners for forging technology SPAIN Schuler Ibérica S.A. Edificio SCV Forum Planta 2 a, Puerta 4 a Ctra. Sant Cugat-Rubi, Km 01, no 40 50 08190 Sant Cugat del Vallès (Barcelona) Spain Phone +34 93 54423-00 Fax +34 93 54423-01 RUSSIA Müller Weingarten AG Moskau Representative Office Prospekt Wernadskowo 103, Korpus 2 119526 Moskau Russia Phone +7 495 4332309 Fax +7 495 4342363 CZECH REPUBLIC Müller Weingarten Ceská Republika Mořkov Životice u Nového Jičína Č. p. 118 74272 Mořkov Czech Republic Phone +420 556 779-911 Fax +420 556 779-904 USA Schuler Incorporated 7145 Commerce Boulevard Canton, Michigan 48187 USA Phone +1 734 2077200 Fax +1 734 2077222 BCN Technical Services, Inc. 1004 East State Street Hastings, Michigan 49058 USA Phone +1 269 9483300 Fax +1 269 9483310 MexiCo Müller Weingarten de México, S.A. de C.V. Puebla Lateral Arco Norte Km. 25 # 4 San Francisco Ocotlan C.P. 72680 Puebla, Pue. Mexico Phone +52 222 4310019 Fax +52 222 4310018 Müller Weingarten de México, S.A. de C.V. Saltillo Calle Automotriz # 3065 esquina metalmecánica Parque Industrial Saltillo-Ramos Ramos Arizpe, Coahuila. C.P. 25900 Mexico Phone +52 844 4885947 BraZIL Prensas Schuler S.A. Av. Fagundes de Oliveira, 1515 09950-904 Diadema, São Paulo Brazil Phone +55 11 4075-8444 Fax +55 11 4079-2766 Schuler Presses UK Ltd., Walsall, Great Britain Beutler Nova, Gettnau, Switzerland Müller Weingarten, Morkov, Czech Republic Schuler France, Strasbourg, France 60 ADDRESSES Schuler Iberica, Barcelona, Spain

Schuler Incorporated, Canton, MI, USA BCN, Hastings, MI, USA Prensas Schuler, São Paulo, Brazil Shanghai Schuler Presses, Shanghai, China China Shanghai Schuler Presses Co., Ltd. 750/8 Luo Chuan Zhong Road Shanghai 200072 PR China Phone +86 21 56650081 Fax +86 21 66529060 Tianjin SMG Presses Co., Ltd. Yinfeng Huanyuan A 1004 Youyi Bei Road 65 Hexi District Tianjin 300204 PR China Phone +86 22 83280895 Fax +86 22 83280540 Schuler Sales & Service Co., Ltd. 750/8 Luo Chuan Zhong Road Shanghai 200072 PR China Phone +86 21 56650081 Fax +86 21 66529060 Müller Weingarten (Dalian) Forming Technologies Co., Ltd. No. 1 Weingarten Road Dalianwan, Ganjingzi District Dalian 116113 PR China Phone +86 411 87124002 Fax +86 411 87609916 Schuler AG Beijing Representative Office Room 1012 Talent International Building No. 80, Guangqumennei Dajie Chongwen District Beijing 100062 PR China Phone +86 10 51696769 Fax +86 10 51696768 Schuler Sales & Service Co., Ltd. Branch Office Jinan Unit 35A15/34F Yinhe Building No.168 Jingqi Rd Jinan 250001 PR China Phone +86 531 82079948 Fax +86 531 82079948 INDIA Schuler India Pvt. Ltd. 401 403 Keshava, Bandra-Kurla Complex Bandra (East) Mumbai 400 051 Indien Phone + 91 22 66800300 Fax + 91 22 66800399 Müller Weingarten AG Liaison Office India Unit 204, 2nd FloorSuyash Classic 75 + 75/2 Baner Road Baner, Pune 411045 Indien Phone + 91 94 440-79263 Müller Weingarten Forming Technologies, Dalian, China ADDRESSES 61

Put it into motion. Forging with Schuler. Your notes 62

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