What Are Haptic Gloves? A Plain-English Guide

I get asked some version of this question at almost every trade show. Someone puts on a headset, reaches for an object in VR, and their hand goes right through it. Then they look at the glove on the table and ask what it actually does.

A haptic glove is a glove that lets you feel what you're touching in a virtual environment. That's the short version. The longer version is that "feel" covers a lot of ground, and the gloves on the market today handle it in very different ways. Some buzz your fingertips. Some physically stop your fingers from closing. A few try to do both. Knowing the difference will save you a lot of time if you're evaluating gloves for training.

I've been building hands for a long time, first prosthetic hands and now haptic gloves, so this is the guide I wish more people had before their first demo.

The two kinds of touch

Your hand picks up two different kinds of information when you grab something.

The first is what your skin feels: contact, texture, vibration, a tap on a fingertip. Researchers call this tactile feedback.

The second is what your muscles and tendons feel: resistance, weight, how hard something pushes back when you squeeze it. That's kinesthetic feedback, and in the glove world it usually gets called force feedback.

If you pick up a wrench, the tactile part tells you that you've made contact. The kinesthetic part tells you that it's solid, that your fingers can't close any further, and roughly how much it weighs. A lot of what we think of as "skill" with tools lives in that second category.

Most gloves on the market only do the first one.

How haptic gloves create touch

There are a handful of approaches. Each has real tradeoffs, and none of them is perfect.

Vibration (vibrotactile). Small motors, usually under the fingertips, buzz when your virtual hand touches something. This is the most common approach because it's light, cheap, and simple to build. bHaptics' TactGlove is a good example. It uses eight actuators across the fingertips, palm and wrist, and preorders were listed at $385 earlier this year. The catch is that vibration tells you that you touched something, not what you're holding. A reviewer testing it this summer said touch felt convincing but lifting and using tools didn't, and I think that's an honest read on vibration-only gloves.

Brakes and cables. These gloves run a cable to each fingertip and lock it when you grab something, so your fingers physically stop. SenseGlove's Nova 2 uses magnetic friction brakes rated up to 20 N per finger, paired with vibration and a palm strap that presses on your hand. This gets you real resistance, but brakes can only stop a finger. They can't push back.

Microfluidics and air. HaptX uses tiny air-driven actuators in the glove to press on hundreds of points of your skin, plus force feedback that stops your fingers. It's the highest-resolution touch you'll find, and it's an impressive demo. It also needs a compressed-air pack and a PC VR setup. At launch in 2022 the G1 was $5,495 per pair.

Tendon-driven force feedback. This is the approach we took with TactraFlex, and it comes straight out of our prosthetics work. Small motors pull on tendon-like cables that run along your fingers, the same way your own tendons work. It lets the glove resist your fingers with real force without bolting an exoskeleton to the back of your hand. Ours is three-channel, with 100 N of actuator holding force per channel, plus 22 vibrotactile zones for contact and texture, and the whole glove comes in under 150 grams.

Electrical and thermal. A few gloves stimulate the skin with small electrical signals, and some add temperature. Weart's TouchDIVER, for example, combines pressure, texture and thermal cues. These are interesting, but they're less common in training deployments today.

Who actually uses haptic gloves

Mostly enterprise and research teams. At the price points involved, these aren't consumer gaming accessories yet (with a couple of exceptions like the bHaptics glove).

The use cases I hear about the most:

• Manufacturing and assembly training, where the feel of a part seating or a fastener tightening is the whole point of the task.

• Maintenance training for equipment that's expensive, rare, or dangerous to practice on, like aircraft and energy infrastructure.

• Medical and surgical simulation.

• Defense and public safety, for equipment handling and procedures.

• Robotics and teleoperation, where an operator needs to feel what a remote robot hand is doing.

• Research labs studying touch, perception and human-computer interaction.

Does haptic feedback actually improve training?

I want to be straight about this, because there's a lot of overpromising in our industry.

The research on haptic gloves specifically is still thin, and the results so far are mixed. A 2025 study in Frontiers in Virtual Reality compared glovebox training in a real glovebox, in VR with HaptX gloves, and in VR with controllers. The haptic gloves didn't make people faster than controllers, though the authors themselves said the study was small. A University of Cambridge project training apprentices on a tractor clutch assembly found the controller group did slightly better, and noted that fitting the gloves may have gotten in the way.

I don't read those studies as proof that touch doesn't matter. What I see is that a glove that's hard to put on, heavy, or laggy can cancel out the benefit of the feedback. Fit, weight and setup time end up being just as important as the haptics themselves. That's a big part of why we designed TactraFlex the way we did.

What to look for if you're evaluating gloves

If you're putting together a pilot or comparing vendors, these are the questions I'd ask.

What kind of feedback does it give? Vibration only, force feedback only, or both. If your training involves gripping, tool use, or assembly, I'd want real force feedback.

How does it track your hands? Some gloves need external trackers, base stations, or a controller strapped to the glove. Others use the headset's built-in hand tracking. Every extra piece of hardware is another thing to charge, pair, and troubleshoot across a room full of trainees.

How much does it weigh? You'll feel the difference in a 45-minute session. Surprisingly few manufacturers publish this number, so ask.

How long does setup take? Time it yourself. If it takes 15 minutes per person, that's real cost when you're training a whole shift.

What's the latency? The feedback needs to land when your eyes see the contact, or it feels off and people stop trusting it.

What does the software side look like? Check which engines and standards it supports (Unity, OpenXR, etc.) and how much work your team needs to do to add haptics to an existing training scene.

What does it actually cost? Include trackers, accessories, software licenses and support, not just the glove. Pricing in this space runs from a few hundred dollars for vibration-only gloves to roughly $5,000 to $7,500 or more per pair for force feedback gloves, and a lot of vendors don't publish prices at all. We do. TactraFlex is $7,500 per pair.

Where TactraFlex fits

We built TactraFlex for enterprise training teams that want real force feedback without the setup overhead. It combines tendon-driven force feedback with 22 vibrotactile zones, weighs under 150 grams, and works with the headset's native hand tracking, so there are no external trackers or base stations. Our Unity SDK is built on OpenXR, so your team isn't locked into one headset.

If you want to see how it compares in person, talk to our team. I'm always happy to put a glove on someone and let them decide for themselves.