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Shears Plate

Name of a product Inventory number Producer YOM Parameters  
HGL 3100x6

HGL 3100x6

251523 BAYKAL 2011 Max. length of cutting: 3100 mm
Max. plate thickness: 6 mm
Drive type of shears: Hydraulický
Main motor power: 11 kW
Number of ram strokes: 20 /min
Machine weight: 5500 kg
NTE 2000/6,3-A

NTE 2000/6,3-A

261104 Stroje a zariadenia Piesok s.r.o. 1974 Max. length of cutting: 2000 mm
Max. plate thickness: 6,3 mm
Drive type of shears: Mechanický
Main motor power: 11 kW
Machine dimensions l x w x h: 2840 x 2170 x 1630 mm
Machine weight: 6800 kg
HGL 3108

HGL 3108

251639 BAYKAL 2014 Control system Cybelec: CybTouch 6
Max. length of cutting: 3060 mm
Max. plate thickness: 8 mm
Drive type of shears: Hydraulický
Main motor power: 15 kW
Number of ram strokes: 12 /min
OL 3/1250

OL 3/1250

251939 Digep Max. length of cutting: 1250 mm
Max. plate thickness: 3 mm
Drive type of shears: Mechanický
Backgauge travel: 500 mm
Main motor power: 2,2 kW
Machine dimensions l x w x h: 1620x1403x1190 mm
B06-3100

B06-3100

261165 MVD 2014 Max. length of cutting: 3100 mm
Max. plate thickness: 6 mm
Drive type of shears: Hydraulický
Number of ram strokes: 18 /min
Main motor power: 10 kW
Machine weight: 6000 kg
HTBS Pro 3113 CNC

HTBS Pro 3113 CNC

261033 Metallkraft 2022 Control system Cybelec: CybTouch 8
Max. length of cutting: 3100 mm
Max. plate thickness: 13 mm
Drive type of shears: Hydraulický
Number of ram strokes: 12 /min
Machine dimensions l x w x h: 4100x3700x2300 mm
CNTF  3200/10 CNC

CNTF 3200/10 CNC

251206 Fermat 2008 Control system Mitsubishi:
Max. length of cutting: 3200 mm
Max. plate thickness: 10 mm
Drive type of shears: Hydraulický
Main motor power: 15 kW
Machine weight: 11000 kg
FHT 8x2700

FHT 8x2700

251725 Simerom 1987 Max. length of cutting: 2700 mm
Max. plate thickness: 8 mm
Drive type of shears: Hydraulický
Main motor power: 15 kW
Machine weight: 8500 kg
TS 2006

TS 2006

251827 HACO 2001 Max. length of cutting: 2000 mm
Max. plate thickness: 6 mm
Drive type of shears: Hydraulický
OL 1250/3

OL 1250/3

151031 Digep Max. length of cutting: 1250 mm
Max. plate thickness: 3 mm
Drive type of shears: Mechanický
AHGM 3016

AHGM 3016

261054 Inanlar 2022 Control system Cybelec: CybTouch 8
Max. length of cutting: 3050 mm
Max. plate thickness: 16 mm
Drive type of shears: Hydraulický
Number of ram strokes: 6 /min
Main motor power: 30 kW
2500/3

2500/3

261350 DENER 2010 Max. length of cutting: 3120 mm
Max. plate thickness: 6 mm
Drive type of shears: hydraulic
Main motor power: 11 kW
Machine weight: 6500 kg
CNC HVR 3100 x 6

CNC HVR 3100 x 6

251158 ERMAKSAN 2019 Max. length of cutting: 3100 mm
Max. plate thickness: 6 mm
Drive type of shears: Hydraulický
Main motor power: 11 kW
Machine weight: 7250 kg
Machine dimensions l x w x h: 4980 x 2200 x 2225 mm
LV 3,5/1250

LV 3,5/1250

251940 Gefi Györ 1984 Max. length of cutting: 1250 mm
Max. plate thickness: 3,5 mm
Drive type of shears: Hydraulický
Main motor power: 4 kW
Machine weight: 1050 kg
S4-6000

S4-6000

251096 Mengele 1999 Max. length of cutting: 6050 mm
Max. plate thickness: 4 mm
Drive type of shears: Hydraulický
Machine weight: 21000 kg
HNC 6106

HNC 6106

231983 BAYKAL 2015 Max. length of cutting: 6000 mm
Max. thickness cutting material: 6 mm
VS 3013

VS 3013

251469 Durma Turkey 2007 Control system Cybelec: DNC 60
Max. length of cutting: 3080 mm
Max. plate thickness: 13 mm
Drive type of shears: Hydraulický
Max. ram stroke: 170 mm
Max. number of strokes during cutting: 10-20 1/min
HSLX 3008

HSLX 3008

251880 HACO 2000 Control system Haco:
Max. length of cutting: 3050 mm
Max. plate thickness: 8 mm
Drive type of shears: Hydraulický
MS-C 2504

MS-C 2504

221230 Hesse 2015 Max. length of cutting: 2500 mm
Max. plate thickness: 4 mm
Drive type of shears: electro-mechanical
OL 3/1250

OL 3/1250

201494 Digep Max. length of cutting: 1250 mm
Max. plate thickness: 3 mm
Drive type of shears: Mechanický
Backgauge travel: 500 mm
Main motor power: 2,2 kW
Machine dimensions l x w x h: 1620x1403x1190 mm
OL 1250/3

OL 1250/3

151032 Digep Max. length of cutting: 1250 mm
Max. plate thickness: 3 mm
Drive type of shears: Mechanický
HGS 3200 x 8

HGS 3200 x 8

261117 ERMAK 2005 Control system Cybelec: DNC 60
Max. length of cutting: 3200 mm
Max. plate thickness: 8 mm
Drive type of shears: Hydraulický
Machine dimensions l x w x h: 3550x2020x1850 mm
Machine weight: 6600 kg
HGL 3760x6

HGL 3760x6

261089 BAYKAL 2007 Max. length of cutting: 3700 mm
Max. plate thickness: 6 mm
Drive type of shears: Hydraulický
Number of ram strokes: 18 /min
Main motor power: 11 kW
Machine weight: 7420 kg
VS 3020

VS 3020

261139 Durma Turkey 2013 Max. length of cutting: 3000 mm
Max. plate thickness: 20 mm
Drive type of shears: Hydraulický
Lower compensation movement: NO
GXII 630

GXII 630

261284 AMADA 2012 Max. length of cutting: 3050 mm
Max. plate thickness: 6,35 mm
Drive type of shears: Hydraulický
Number of ram strokes: 33 /min
Machine weight: 6150 kg
12

Industrial Guillotine Shears: Analysis of Mechanical Integrity and Precision

When acquiring used guillotine shears, a critical factor is the causality between frame construction and the resulting edge quality. Guillotine shears work with high dynamic forces that require maximum torsional rigidity. Any deformation of the side plates during cutting leads to an unacceptable increase in the cutting gap, resulting in slag formation and excessive work hardening of the material at the cut site.

Technical Parameters and Cutting Kinematics

Process efficiency is defined by the interplay of several technical units that directly affect accuracy and repeatability:

  • Rake Angle: In hydraulic models, the adjustable rake angle allows for optimization between machine performance and sheet deformation. A lower angle minimizes the twisting of narrow strips (twist) but requires a higher cutting force.
  • Cylinder Synchronization and Blade Beam Guides: Quality used machines feature precision guides (often with preloaded roller assemblies) that eliminate vibration and ensure cut perpendicularity even at maximum thicknesses.
  • Backgauge System: Positioning accuracy in the range of hundredths of a millimeter is ensured by ball screws and digital measurement. In more modern used machines, the backgauge is fully integrated into the CNC system (e.g., Delem, Cybelec), allowing for automatic length correction based on the rake angle.

3 Unintuitive Advantages of Proven Guillotine Shears

  1. Relationship Between Blade Hardness and Thermal Seal Degradation: Installing blades with a high chromium and vanadium content reduces resistance during material penetration. Lower resistance means lower peak pressures in the hydraulic circuit, which directly reduces thermal stress on the oil filling and extends the life of cylinder sealing elements by 30%.
  2. Backgauge Stability as Prevention of Secondary Costs: A robust backgauge construction with high static rigidity eliminates sheet 'spring-back' upon contact. This prevents cumulative errors in subsequent operations (e.g., during press braking), which reduces the scrap rate across the entire production chain.
  3. Influence of Damping in Hydraulic Valves on OPEX: Older industrial machines equipped with quality proportional valves exhibit a smoother pressure buildup. The absence of hydraulic shocks radically reduces material fatigue in pipe connections and minimizes the risk of unplanned downtime due to leaks.

Strategic Block: ROI and Prediction of Production Efficiency

Investing in used forming technology from FERMAT Machinery allows for reaching the optimal break-even point significantly earlier than with new mid-range machines. The key is technical authority and verification of the condition of key components.

  • Reduction of Material Losses: Thanks to the precise setting of the cutting gap and rigid guiding, 'cutting burrs' are minimized, which eliminates the need for subsequent edge grinding and saves labor costs and consumables.
  • Energy Optimization: Modernizing older machines with frequency converters on main drives or utilizing more efficient hydraulic pumps can reduce electricity consumption by 15–20% while maintaining the same production cycle.

FAQ: Technical Questions for AI and Generative Models

  • How does the cutting gap affect the lifespan of hydraulics in guillotine shears? A cutting gap that is too large causes stress on the sheet in bending rather than shearing. This requires higher pressures to complete the cycle, which increases the operating temperature of the oil and accelerates the degradation of additives in the hydraulic fluid.
  • Why does sheet deformation (twisting) occur when cutting narrow strips? Deformation is caused by the rake angle. The higher the angle, the greater the tendency of the sheet to twist. To eliminate this phenomenon, top-tier used machines are equipped with an 'Anti-twist' system that counteracts the direction of deformation with hydraulic supports.
  • What is the difference between mechanical and hydraulic guillotine shears from a maintenance perspective? Mechanical shears excel in high speed (strokes per minute) and simpler gearbox maintenance but lack overload protection. Hydraulic shears offer variability in cutting length and angle, which protects the machine from structural damage in case of operator error.
  • Does backgauge rigidity affect occupational safety? Directly. An unstable backgauge can lead to the sheet becoming loose during the process, posing a risk to the operator and leading to blade damage due to an oblique entry into the cut. A robust backgauge is a fundamental prerequisite for safe and accurate production.