When you start comparing automatic bollards, one spec gets buried under impact ratings and finish options: the drive system. Two technologies dominate the market. Pneumatic bollards run on compressed air delivered through a power unit with a compressor, air lines, and valves. Electromechanical bolla...
Not every entrance needs the same answer. A government forecourt, an airport staff gate, a commercial loading bay, and a riverside promenade each face different threats and different constraints. Here is how bollards map to those sites, and why the same three features keep showing up as the safe def...
The biggest hidden cost of an automatic bollard is not the unit. It is the hole. Most heavy-duty bollards need a foundation 800 to 1130mm deep, a gravel and sand seepage layer, and a dedicated drainage pipe, or water pools around the mechanism and destroys it. UPARK's drainage-free design removes th...
When teams specify bollards for a site, safety usually means impact rating and intercept height. There is a quieter risk most specifiers overlook: the drive voltage. Traditional heavy-duty automatic bollards run on 380V three-phase power. UPARK uses a 36V low-voltage electromechanical drive. The dif...
Specifying bollards usually starts with the crash rating and the layout. The power question tends to arrive later, once someone notices the nearest conduit is fifty meters away. That is the wrong order. The power decision shapes install cost, permits, and whether the perimeter stays lit during an ou...
Most security bollards are plain steel. They sit in concrete, stop vehicles, and that is the entire job. UPARK's new wall-mounted battery bollard changes the power conversation by letting the controller take a solar input, so the unit can run off-grid without tearing up finished ground to lay condui...
ipv6 network supported 