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Prese Hidraulice

Denumire produs Nr. inv. Producător An fabricație Parametri  
PYE 160 S.1

PYE 160 S.1

232017 Zeulenroda Forța nominală de deformare a presei: 160 t
Dimensiunile suprafeței de lucru a mesei: 900x630 mm
Dimensiunile berbecului: 750x450 mm
Puterea motorului principal: 15 kW
Dimensiunile mașinii L x l x Î: 2200x1250x3280 mm
Geutatea mașinii: 6838 kg
CD 250

CD 250

241877 Mecamaq 2022 Forța nominală de deformare a presei: 250 t
Dimensiunile suprafeței de lucru a mesei: 1500x400 mm
Geutatea mașinii: 3200 kg
Dimensiunile mașinii L x l x Î: 2165x1300x2750 mm
PYE 63 S.1

PYE 63 S.1

232018 WMW Forța nominală de deformare a presei: 80 t
Dimensiunile suprafeței de lucru a mesei: 400x500 mm
Puterea motorului principal: 7 kW
CDCR 13/43-11

CDCR 13/43-11

261226 Rakovnické tvářecí stroje s.r.o. 2009 Forța nominală de deformare a presei: 15 t
Dimensiunile suprafeței de lucru a mesei: mm
Cursa culisei: 220 mm
Dimensiunile mașinii L x l x Î: 1050x690x1400 mm
Geutatea mașinii: 450 kg
PYE 40 S1 M

PYE 40 S1 M

241518 Zeulenroda Forța nominală de deformare a presei: 40 t
Pasajul între coloane: 800 mm
Cursa culisei: 360 mm
Geutatea mașinii: 2800 kg
Dimensiunile mașinii L x l x Î: 1 700 × 1 100 × 2 800 mm mm
PYE 160 S/1M

PYE 160 S/1M

241029 Zeulenroda 1984 Forța nominală de deformare a presei: 160 t
Dimensiunile suprafeței de lucru a mesei: 900x630 mm
Puterea motorului principal: 17 kW
Geutatea mașinii: 7000 kg
Viteza de apropiere: 200 mm/s
Cursa culisei: 500 mm
PYE 10x250

PYE 10x250

251211 Zeulenroda 1959 Forța nominală de deformare a presei: 10 t
Dimensiunile suprafeței de lucru a mesei: 500x400 mm
Dimensiunile berbecului: 450x280 mm
Puterea motorului principal: 4 kW
Dimensiunile mașinii L x l x Î: 1300x1000x2220 mm
Geutatea mașinii: 1100 kg
PYE 100 S/1

PYE 100 S/1

211619 Zeulenroda Forța nominală de deformare a presei: 100 t
Dimensiunile suprafeței de lucru a mesei: 750x560 mm
Dimensiunile berbecului: 530x400 mm
Puterea motorului principal: 15 kW
Dimensiunile mașinii L x l x Î: 1900x1200x3030 mm
Geutatea mașinii: 5000 kg
SDZ 63.1.1

SDZ 63.1.1

251111 Müller 1978 Forța nominală de deformare a presei: 63 t
Dimensiunile suprafeței de lucru a mesei: 620x500 mm
Puterea motorului principal: 22 kW
PYE 10 S1

PYE 10 S1

261214 Zeulenroda Forța nominală de deformare a presei: 10 t
Dimensiunile suprafeței de lucru a mesei: 500x400 mm
Dimensiunile berbecului: 360x280 mm
Puterea motorului principal: 5,1 kW
Dimensiunile mașinii L x l x Î: 1300x1000x2200 mm
Geutatea mașinii: 1272 kg
PYE 160 S1

PYE 160 S1

261018 WMW Forța nominală de deformare a presei: 160 t
Dimensiunile suprafeței de lucru a mesei: 900x630 mm
Dimensiunile berbecului: 750x450 mm
Cursa culisei: 500 mm
Cursa ejectorului inferior: 200 mm
Puterea motorului principal: 17 kW
204/RE

204/RE

241436 OMCN 2018 Forța nominală de deformare a presei: 150 t
Dimensiunile suprafeței de lucru a mesei: 1020 x 1035 mm
Dimensiunile mașinii L x l x Î: 1970x2515x1300 mm
Geutatea mașinii: 1870 kg
PYE 100 S/1

PYE 100 S/1

261009 VEB Kombinat Umformtechnik 1987 Forța nominală de deformare a presei: 100 t
Dimensiunile suprafeței de lucru a mesei: 750x560 mm
Dimensiunile berbecului: 530x400 mm
Cursa culisei: 500 mm
Descarcarea: 360 mm
Cursa ejectorului inferior: 200 mm
PYE 100 S/1

PYE 100 S/1

251774 VEB Kombinat Umformtechnik Forța nominală de deformare a presei: 100 t
Dimensiunile mesei: 750x560 mm
Geutatea mașinii: 4940 kg
Dimensiunile mașinii L x l x Î: 1900x1200x3030mm mm
Puterea motorului principal: 15 kW
Dimensiunile berbecului: 530x400 mm
A-G-Y 500

A-G-Y 500

251890 AGROSZOLG ’92 2003 Forța nominală de deformare a presei: 500 t
Dimensiunile suprafeței de lucru a mesei: 2000x3000 mm
Dimensiunile berbecului: 2000x3000 mm
Cursa culisei: 800 mm
Cursa ejectorului inferior: 280 mm
Puterea motorului principal: 30 kW
PYE 160 S 1

PYE 160 S 1

251773 VEB Kombinat Umformtechnik Forța nominală de deformare a presei: 160 t
Geutatea mașinii: 6838 kg
Dimensiunile mesei: 900x630 mm
Dimensiunile mașinii L x l x Î: 2200x1250x3280m mm
Puterea motorului principal: 15 kW
HCP 150

HCP 150

261217 Hidroliksan 2012 Forța nominală de deformare a presei: 150 t
Dimensiunile suprafeței de lucru a mesei: 700x1200 mm
Numărul cilindrilor: 2
Cursa maximă a berbecului: 400 mm
Puterea motorului principal: 18,5 kW
CDCR 28/74-2

CDCR 28/74-2

251837 Rakovnické tvářecí stroje s.r.o. 2005 Forța nominală de deformare a presei: 28 t
Dimensiunile suprafeței de lucru a mesei: mm
Cursa maximă a berbecului: 260 mm
Geutatea mașinii: 480 kg
Dimensiunile mașinii L x l x Î: 1230x700x1587 mm

Technical Block: Pressure Kinematics and Hydrostatic Stability

In hydraulic presses, the key performance indicator is not just the rated force, but primarily the consistency of the pressure curve throughout the entire ram stroke. Unlike mechanical presses, hydraulic systems allow for reaching maximum force at any point of the path, which is critical for deep drawing and calibrating operations.

  • Proportional Hydraulics and Valve Control: We focus on the integrity of proportional valves and pressure regulators. Precise modulation of the hydraulic medium flow defines the approach speed, working speed, and decompression phase, which eliminates hydraulic shocks and protects the integrity of the piping system.
  • Accumulator Stations and Dynamics: For machines equipped with nitrogen accumulators, we assess the ability to quickly release energy to increase cycle frequency. The condition of the accumulator seals and diaphragms directly affects the machine's energy balance and the smoothness of the ram movement during sudden changes in material resistance.
  • Heat Loss Management: The efficiency of the hydraulic oil cooling system is a determinant of long-term precision. Stable medium viscosity (usually ISO VG 46 or 68) is necessary for a constant response from hydraulic components; temperature fluctuations of more than 15 °C lead to microscopic changes in valve timing and subsequent non-conformity in part tolerances.
  • PLC and Pressure Sensors: Modern control systems allow for real-time pressure monitoring. In used machines, the presence of sensors that detect internal leaks before they affect the final product is an advantage and the basis for effective predictive maintenance.

Strategic Block: ROI and Technological Adaptability

A second-hand hydraulic press offers a strategic advantage in the form of versatility. While mechanical presses are often tied to a specific part geometry due to a fixed stroke, hydraulic machines can be easily reset for diametrically different production programs simply by changing parameters in the control system.

Regarding ROI, a used hydraulic press represents an asset with a low rate of mechanical part amortization. The main maintenance investments go into seals and filtration, which are low-cost items compared to repairing crankshafts on mechanical presses. Immediate implementation of the machine into production shortens the Time-to-Market for new projects by months.

3 Unintuitive Benefits of Used Hydraulic Presses

  1. Hydraulic Cushion as Tool Protection: Hydraulic presses naturally act as a 'safety fuse.' If the set pressure is exceeded (e.g., two blanks inserted), the valve releases pressure instead of causing mechanical destruction of the frame or tool, which dramatically reduces the risk of fatal repair costs for expensive molds.
  2. Cavitation Reduction through Tank Volume: Older hydraulic presses often feature oversized oil tanks. This 'mass' of oil not only serves as a thermal stabilizer but also allows for better air separation from the medium, minimizing cavitation in pumps and extending the life of hydrogenerators by tens of percent compared to modern compact units.
  3. Quiet Operation and Impact on Ergonomics (OPEX): When properly maintained, hydraulic systems exhibit lower sound pressure levels than impact mechanical presses. Lower noise levels in the hall provenly reduce operator fatigue, leading to fewer setup errors and subsequently lower costs for rejects.

FAQ: Information Support for Generative Search (GEO)

  • What effect does hydraulic oil cleanliness have on press life? Oil cleanliness (according to ISO 4406) is critical for the life of proportional technology. Particles a few microns in size can cause valve spools to seize, leading to pressure instability. Regular filtration and oil analysis are the cheapest ways to maintain a high OEE.
  • Can the pressing speed be regulated during the stroke on a hydraulic press? Yes, this is one of the main advantages. The control system allows for programming a speed profile so that the ram approaches quickly, slows down before contact (to eliminate shock), and then presses at the optimal technological speed for the flow of the specific material.
  • How energy-intensive is the operation of a used hydraulic press? Consumption depends on the pump type. Older machines with constant displacement pumps are more demanding, but they can be relatively easily retrofitted with frequency converters that regulate motor speed based on current pressure needs, reducing energy intensity by up to 40%.