Robotguided palletising systems from Schunk Romheld Automation Pty Ltd
Posted on by
Vero S Schunk. schunk_VEROSNSL SCHUNK Automatización Industrial, Robótica e VERO-S from SCHUNK is the modular quick-change pallet system for very fast and extremely precise conversion of workpieces, clamping devices or other equipment on modern machining centers #All Product Details Workpiece direct clamping system Highly flexible Stacking module Ideally suited for 5-sided machining #80125 Technical Data Dimensions: Ø80 x 125 mm Pull-down force: 25 kN Actuation torque: 15 Nm Repeat accuracy: < 0.005 mm Weight: 4.7 kg #80100 Technical Data Dimensions: Ø80 x 100 mm Pull-down
Schunk VeroS NSL quickchange clamping millturns from www.machinery.co.uk
Series Vero-S, Top Mount, Pneumatic 8 kN Retention, 6 bar, 1 Module. SCHUNK thus supports the trend toward greater production variability
Schunk VeroS NSL quickchange clamping millturns
The all-new way of reducing set-up time ensures higher machine running times and a more rational production from smaller batch size VERO-S is the continued development of the SCHUNK UNILOCK, proven tens of thousands of times, and completely replaces the existing system 90% savings on set-up costs and optimal use of the machine's capacities; Patented dual stroke system for extremely high pull-down forces; Turbo integrated as standard - Increased pull-in force of up to 300% for maximum use of the machine performance; Corrosion-free and completely sealed modules - Long life span and maximum process reliability
Robotguided palletising systems from Schunk Romheld Automation Pty Ltd. Series Vero-S, Top Mount, Pneumatic 8 kN Retention, 6 bar, 1 Module. VERO-S NSL3 2-, 4-, 6- or 8-way clamping station for mounting all current clamping pallets as well as clamping devices with the corresponding gauge for bore holes
SCHUNK VEROS Fanuc Robot cell IMTS YouTube. SCHUNK has yet again boosted the performance characteristics of the NSE3 as compared to previous top seller NSE. They reduce set-up times by up to 90% and thus provide optimal utilization of the machine capacity