Weber Knapp Blog

No matter where you live, work, or play, hinges are everywhere. You’ll find them on cabinets. On refrigerators. On cars and airplanes. They’re a quiet part of daily life that keeps things moving.

Boats are different. They rely on hinges that do far more than open and close. Marine hinge design calls for careful thinking about motion control, spring assistance, and the effects of salt, weather, and humidity.

When you’re working through the details of a new product design, it’s easy to think, “A hinge is a hinge.” But if you’ve ever seen a lid sag, a door bind, or an access panel fail under load, you know hinge selection can make or break a design.

The temptation to save a few dollars with a lighter, cheaper hinge is real, especially when budgets are tight. Yet choosing the wrong hinge can lead to damaged equipment, unsafe operation, and costly redesigns down the line. 

When it comes to high-end kitchen appliance design, great performance is as important on the outside as it is on the inside.

Most restaurant injuries don’t come from knives or open flames – they come from something as ordinary as a countertop. Lifting a heavy bar pass-through dozens of times during a shift strains backs, spills drinks, and leaves staff scrambling to recover.

A stiff neck, sore back, or aching wrists after a long day at your desk isn’t just annoying; it’s a warning sign. With more people working in front of screens than ever before, the health risks of poor workstation habits are on the rise. The key is applying OSHA ergonomic guidelines – simple adjustments that protect employees' bodies, keep them comfortable, and help them perform at their best.

Some lids close gently. Others seem to wait until your hand is nearby, then drop like a trap. 

Off-the-shelf solutions don’t always cut it – especially when your application requires safety or ergonomic motion and performance beyond a standard hinge. If you’re trying to support a heavy lid, conveyor drawbridge or enclosure cover, a custom hinge built with motion control in mind is the best fit.

A properly engineered counterbalance hinge can make an 80-pound lid feel like a light 2-pounds when lifting. It’s not magic though – it's precision mechanical engineering using counterbalance spring design principles.

Motion control system design affects how people interact with products in everyday settings. If motion feels smooth and natural, users barely notice it. If it feels heavy or awkward, the design becomes a frustration.

That moment of resistance – lifting a lid, moving a panel, opening a door – can shape someone’s entire experience with the equipment. Poor usability often signals deeper design issues that limit performance.

Engineers focused on motion control system design consider more than just movement. They think about safety, repeatability, and long-term function.

When done well, this kind of design supports a safer, more efficient environment without calling attention to itself.

It's not the flashiest part of your setup. It’s not what your customers will notice first. But when a lift gate stop fails, everyone notices.

Think about a gate slamming down in the middle of a busy lunch rush, sending a shock through the counter — and through your team. It’s a dangerous disruption that’s completely preventable.

The lift gate stop may be a small component, but its impact on safety, surface protection, and smooth operation is anything but minor. In busy commercial kitchens, sleek retail counters, and sensitive lab environments, this single piece of hardware helps prevent slamming, preserves finishes, and ensures your lift gate closes exactly as it should — every time.

Gone are the days when office furniture was simply about desks and chairs. 

Today, ergonomic furniture design plays a pivotal role in the health, happiness, and productivity of your workforce. If your current setup leaves employees hunched, strained, or uncomfortable, you’re likely paying for it — in lost productivity, increased sick days, and higher turnover. But how can you be sure your office equipment actually supports ergonomic principles?