Vision and sound in VR are largely solved problems. Current headsets produce visuals sharp enough and audio spatial enough to create convincing immersive experiences. But touch—the sense that tells you whether something is hard or soft, rough or smooth, hot or cold—remains VR’s most significant sensory gap.

Haptic technology is the field trying to close that gap, and 2026 has brought a wave of new devices claiming to make virtual touch feel real. Some are genuinely impressive. Some are expensive gimmicks. Knowing the difference requires understanding what the technology can and can’t do.

The Current State of Consumer Haptics

Standard VR controllers have included basic haptic feedback for years. The Meta Quest controllers and PlayStation VR2 controllers both use rumble motors (technically linear resonant actuators) that produce vibrations. These vibrations provide basic feedback—you feel a buzz when you pull a virtual trigger, a pulse when something collides with your virtual hand.

This is haptic feedback in the same way that a phone vibration is haptic feedback. It’s binary (on or off) with some variation in intensity and frequency. It tells you that something happened. It doesn’t tell you what that something felt like.

The gap between “something happened” and “I can feel the texture of this surface” is where the interesting technology development is occurring.

Haptic Gloves

Haptic gloves are the most anticipated category, and several products are now commercially available or in late development.

bHaptics TactGlove

The bHaptics TactGlove is the most accessible haptic glove currently on the market. It uses an array of small vibrotactile actuators positioned across the fingers and palm to provide localised feedback. When you touch a virtual object, the actuators beneath your fingertips vibrate.

What it does well: Spatial awareness. You can distinguish which finger is touching something. The vibration patterns vary enough to differentiate between a tap, a slide, and a grab. It works wirelessly with Meta Quest headsets and integrates with several VR applications.

What it doesn’t do: Force feedback. The gloves don’t resist your finger movement when you grab a virtual object. You can close your hand through a virtual ball as if it weren’t there. You feel the vibration but not the physical resistance of holding something solid.

Price: Around $450-$500 AUD per pair.

HaptX Gloves G1

At the other end of the spectrum, HaptX produces gloves designed for enterprise applications that provide both tactile feedback (via an array of microfluidic actuators) and force feedback (via an exoskeleton mechanism).

The result is dramatically more realistic. HaptX gloves let you feel the shape of a virtual object in your hand—a sphere feels round, a cube feels angular. You can’t close your fingers through a solid virtual surface because the exoskeleton physically prevents it.

What it does well: Realism. Nothing else on the market produces haptic feedback this convincing. The combination of tactile and force feedback creates a sense of physical presence that vibration alone can’t match.

What it doesn’t do: Portability or affordability. The gloves require a tethered connection to an air compressor (for the pneumatic actuators) and cost upward of $5,000 USD. This is enterprise technology for training, simulation, and research—not consumer VR.

Meta and Apple’s Research Directions

Both Meta and Apple have published research and filed patents related to haptic gloves and wristbands. Meta’s Reality Labs has demonstrated prototype gloves using pneumatic actuators in controlled demos, though no consumer product has been announced.

Apple’s approach appears focused on wrist-worn haptic devices that complement Vision Pro. The theory is that wrist-based feedback is simpler to manufacture, more comfortable to wear for extended periods, and can provide enough information for most interaction scenarios.

Neither company has shipped a haptic wearable, so assessing their approaches against actual products isn’t possible yet.

Haptic Vests and Full-Body Suits

Full-body haptic feedback has moved from concept to product, though the applications are still narrow.

bHaptics TactSuit provides an array of vibration points across the torso. It’s used primarily in VR gaming, where getting shot or hit produces localised feedback on the corresponding body area. The experience enhances immersion noticeably in supported games, though the feedback is again vibrotactile (buzzing) rather than force-based (pressure or impact).

Teslasuit takes a more ambitious approach, combining haptic feedback with motion capture, biometric monitoring, and electrical muscle stimulation (EMS). The suit can simulate physical sensations including temperature through controlled electrical currents. It’s primarily marketed for enterprise training and research at price points that exclude consumer adoption.

The Physics Problem

Understanding why haptic technology remains limited requires understanding the physics of touch.

Human skin contains multiple types of receptors that detect different stimuli: pressure, vibration, temperature, texture, and pain. These receptors vary in density across the body—fingertips have roughly 2,500 touch receptors per square centimetre, while the back has far fewer.

Replicating the full range of touch sensation requires actuators that can independently produce:

• Pressure at varying intensities
• Vibration at multiple frequencies
• Temperature changes
• Surface texture variation
• Resistance to movement (force feedback)

No current device does all of this. Most devices focus on one or two modalities—typically vibration and sometimes force feedback. The technology to reproduce the full richness of human touch in a wearable device at consumer price points doesn’t exist yet.

What’s Worth Buying in 2026

For consumer VR users, the bHaptics TactGlove offers the best balance of capability, compatibility, and cost. It won’t fool your brain into thinking virtual objects are real, but it adds a meaningful layer of immersion that standard controllers don’t provide. If you play VR regularly and want more than rumble feedback, it’s worth trying.

For enterprise buyers—training applications, simulation, research—HaptX gloves remain the benchmark for haptic realism. The cost and complexity limit their deployment, but for high-stakes training scenarios (surgical simulation, hazardous environment training, complex assembly), the investment in realistic haptic feedback pays for itself in training effectiveness.

The bHaptics TactSuit is a fun addition for VR gaming enthusiasts but isn’t essential. Supported games produce convincing feedback, but the library of compatible titles is limited.

Everything else—full-body suits, EMS-based systems, experimental devices—is either too expensive, too impractical, or too limited in application for most users.

Where This Is Going

The breakthrough that haptics is waiting for is materials science. New actuator technologies—piezoelectric arrays, electroactive polymers, microfluidic systems—promise thinner, lighter, more responsive devices that can produce a wider range of sensations.

The IEEE Haptics Symposium proceedings show increasing research into wearable actuators that could deliver convincing tactile feedback in a form factor no bulkier than a regular glove. These are still research projects, but the gap between lab prototypes and commercial products is shrinking.

Within five years, I expect consumer-grade haptic gloves with basic force feedback to be available at $300-$500 price points. Within ten years, I expect haptic feedback to be a standard feature of VR systems rather than an add-on.

Touch won’t be the missing sense forever. But for now, it’s the frontier, and the technology is advancing faster than most people realise.