► Richmond Rolling Solutions | V Groove Wheels

Guided Track Wheels for Gates, Trolleys & Industrial Systems

A trolley that needs to follow a defined path needs more than a wheel that simply rolls straight. Richmond Rolling Solutions V Groove Wheels are designed to run on angle-iron track, giving fabricators, factories & industrial operators a practical way to guide gates, transfer equipment, mobile platforms & purpose-built machinery along a controlled route.

The clever part is in the groove itself. Richmond designs its V groove wheels to self-locate on the track as lateral force moves the wheel away from centre, helping bring it back towards its intended running position. Explore Richmond Rolling Solutions for the broader wheel range, or compare Richmond Rolling Solutions | Single Flange Track Wheels where the rail arrangement calls for a different method of guidance.

Track design matters just as much as wheel selection. Richmond specifically cautions against using V groove wheels on two parallel angle rails because variations between the tracks can cause binding or seizure. A common arrangement is one V groove wheel running on angle track while the opposite side runs on flat steel with a flat-profile wheel.

What Are Richmond V Groove Wheels?

Richmond V Groove Wheels are industrial track wheels with a machined V-shaped running profile designed to locate over angle iron.

Instead of relying on flanges running beside a rail, the groove itself provides guidance.

This approach can suit:

► Sliding gates
► Industrial trolleys
► Transfer platforms
► Factory equipment
► Fabricated machinery
► Guided material-handling systems
► Mobile industrial fixtures
► Purpose-built track assemblies

Richmond notes that angle iron can be cast into concrete or bolted to the ground, creating a relatively simple track arrangement for industrial environments.

Because the track can sit with a low profile, it can also be useful in shared factory areas where forklifts or other vehicles need to cross the route.

Why Choose Richmond V Groove Wheels?

Track wheels solve a different problem from ordinary trolley wheels: controlling where the equipment travels.

Richmond V groove designs can offer:

► Guided movement on angle-iron track
► Self-locating behaviour
► Low-profile rail installation
► Plain-bore options
► Roller-bearing options
► Ball-bearing options
► Taper-roller-bearing options on selected heavy-duty wheels
► Multiple axle diameters
► Several groove dimensions
► High-capacity industrial models

The range isn't restricted to light gates. Richmond's current V groove family includes everything from smaller track wheels through to substantial industrial models carrying multi-tonne individual wheel loads.

That makes specification particularly important.

Common Applications

Sliding gates are the familiar example, but they're only the beginning. A V groove wheel can guide a fabricated gate along angle track without requiring a conventional elevated rail.

Factory transfer trolleys use the same principle at a different scale. Where equipment repeatedly travels between two defined points, track guidance can remove unnecessary lateral movement.

Production machinery may need controlled travel rather than free steering. A V groove system can form part of a purpose-built moving base where the equipment must remain aligned with surrounding plant.

Fabrication shops can incorporate angle track into custom carts, fixtures or moving work platforms. The wheel, track & frame then become parts of the same mechanical design.

Heavy industrial installations take the concept further. Richmond offers V groove models with substantial individual load capacities for applications where ordinary gate hardware isn't remotely adequate.

Shared traffic areas create another reason to consider the system. Richmond notes that low-cost angle iron used as track doesn't typically create the same obstruction for forklifts & other vehicles as some larger rail arrangements.

Product Selection Guide

Start With the Track, Not the Wheel Diameter

Already have angle iron installed? Measure that before choosing anything.

Record:

► Angle size
► Track angle
► Track condition
► Track straightness
► Installed spacing
► Wheel groove width
► Groove depth
► Equipment load
► Existing axle diameter

Richmond explains that a typical 90-degree angle-iron track can be paired with a V groove of approximately 92 degrees.

That slight difference helps accommodate imperfections in the track & reduce rolling resistance.

A V groove isn't simply a decorative notch in an iron wheel. Its geometry is part of how the system works.

Why Is There a Recess at the Bottom of the Groove?

The wheel shouldn't ride directly on the sharp peak of the angle iron.

Richmond specifies a recess at the bottom of its V groove profile to avoid contact with the sharp edge of the track.

Without appropriate clearance, that edge can damage the wheel.

The working contact should occur on the sides of the track rather than concentrating force onto its peak.

When inspecting an existing system, look at where the wheel is actually making contact. Unusual wear can reveal a track or profile problem.

One Guided Rail Is Usually Better Than Two

It sounds logical to put V groove wheels on two parallel angle tracks. Richmond advises against it.

Why?

Real installations aren't perfectly dimensionless.

Variations can develop through:

► Track installation
► Welding
► Concrete movement
► Frame fabrication
► Temperature
► Wear
► Impact damage
► Long track runs

If both sides rigidly control lateral movement, differences in rail spacing can make the wheels bind or seize.

Richmond's commonly recommended concept is:

► V groove wheels + angle track on one side
► Flat-profile wheels + flat steel on the other

One side guides. The other side supports.

That arrangement lets the equipment follow the controlling rail without demanding perfect parallel alignment along the entire route.

How Does the Self-Locating Action Work?

Push the wheel sideways & the V profile begins working against that movement.

As axial force moves the wheel away from the centre of the angle, it begins to ride higher on one side of the track.

The further it moves away, the greater the resistance becomes.

That geometry encourages the wheel to return towards its central running position.

It's a mechanical feature of the wheel-track relationship rather than an active steering system.

100mm V Groove Wheels – Compact Track Guidance

Small diameter doesn't mean the wheel belongs only on lightweight equipment.

A Richmond VG459-75 provides a useful example:

► 100mm diameter
► 36mm rim width
► 41mm boss width
► 22mm groove width
► 10.8mm groove depth
► 3/4-inch axle
► Plain bore
► 280kg published load capacity

This wheel is also used within compatible Richmond castor assemblies.

For replacement work, match the complete VG code because axle & bearing variations exist within similar wheel sizes.

150mm VG609 – More Axle Choices

The VG609 family shows why a product code is more useful than asking for “a 150mm V wheel”.

Representative Richmond variants include axle options such as:

► 1/2 inch
► 5/8 inch
► 3/4 inch
► 20mm

A VG609 configuration uses:

► 150mm wheel diameter
► 38mm rim width
► 60mm boss width
► 22mm groove width
► 10.8mm groove depth
► Ball bearing
► 650kg published load capacity

Same basic wheel family, several axle possibilities. Measure first.

150mm VG661 – Same Diameter, Different Wheel

Here's where ordering by diameter alone can go badly wrong.

Richmond's VG661 family is also 150mm, yet representative specifications differ:

► 50mm rim width
► 60mm boss width
► 22mm groove width
► 12mm groove depth
► Roller bearing
► 400kg published load capacity

Available axle arrangements include 1/2-inch & 3/4-inch versions.

Compare that with the narrower ball-bearing VG609 family at 650kg.

A wider wheel isn't automatically the higher-capacity wheel. Bearing arrangement & complete construction matter.

200mm Wheels Can Move Into Serious Industrial Duty

At this point, V groove wheels move well beyond ordinary sliding-gate hardware.

Richmond's range includes substantial 200mm track-wheel constructions for industrial applications.

One example, VG836-M40, uses:

► 200mm diameter
► 75mm rim width
► 96mm boss width
► 30mm groove width
► 14.7mm groove depth
► 40mm axle
► Taper roller bearing
► 5000kg published wheel capacity

That figure belongs to the individual wheel under Richmond's specified conditions. It is not automatically the safe working load of the finished trolley, machine or track system.

For equipment operating at this end of the range, frame design, axles, bearings, track support & load distribution deserve engineering attention alongside wheel capacity.

250mm VG1059 – Ball Bearing or Plain Bore?

Two wheels can share the same major dimensions while differing at the axle interface.

Richmond's VG1059 family includes examples such as:

VG1059-M25
► 250mm diameter
► 52mm rim width
► 60mm boss width
► 30mm groove width
► 14.7mm groove depth
► 25mm axle
► Ball bearing
► 1800kg published load capacity

VG1059PB30
► 250mm diameter
► 52mm rim width
► 60mm boss width
► 30mm groove width
► 14.7mm groove depth
► 30mm axle
► Plain bore
► 1800kg published load capacity

Bearing type & axle arrangement can change even when diameter, groove dimensions & published load remain the same.

V Groove vs Single Flange Track Wheels

Both guide equipment, but they interact with the track differently.

V groove wheels:

► Run over angle iron
► Locate through the V profile
► Can self-centre against lateral movement
► Suit low-profile angle-track arrangements

Single flange wheels:

► Use a flange to guide against a track
► Suit different rail arrangements
► Can be useful where the wheel needs a defined lateral retaining edge

The correct choice starts with the rail system, not with which wheel looks more industrial.

V Groove vs Double Flange Track Wheels

Need guidance on both sides of a rail rather than over angle iron? That's a different track-wheel problem.

Richmond Rolling Solutions | Double Flange Track Wheels should be considered where the application is designed around a wheel that captures the rail between two flanges.

Richmond's warning about parallel V groove tracks is particularly relevant here: don't assume two different track-wheel concepts can be substituted without reconsidering how lateral movement is controlled.

Rail profile, alignment & wheel geometry need to be designed together.

What About a Complete Castor With a V Groove Wheel?

Not every V groove application uses a wheel mounted directly into fabricated equipment.

Richmond also fits V groove wheels into selected rigid & swivel castor assemblies.

For example, Richmond documents 200mm VG-wheel castors within its 500 Series.

Richmond Rolling Solutions | Castors is the better comparison when the requirement includes:

► Complete frame
► Mounting plate
► Swivel action
► Rigid mounting
► Finished castor height
► Known castor assembly capacity

Wheel capacity & complete castor capacity can differ, so don't transfer one rating to the other.

Track Fabrication Deserves Proper Preparation

A premium track wheel won't straighten badly fabricated rail.

Before installation, check:

► Angle alignment
► Weld quality
► Rail joints
► Mounting security
► Concrete fixing
► Track support
► Transitions
► End stops
► Debris clearance

 Welding & Fabrication covers the broader equipment needed when angle track, frames, brackets or trolley structures are being fabricated rather than simply repaired.

Build the running surface with the same care used to select the wheel.

Measure From a Straight Track Section

An old rail can wear into a shape that no longer represents the original installation.

When assessing replacement wheels, compare several areas of the track.

Look for:

► Rounded angle peaks
► Uneven side wear
► Bent rail
► Weld distortion
► Impact damage
► Corrosion
► Sections pushed out of line

A wheel repeatedly climbing one side of the angle may be showing you a track problem.

Replacing wheels without inspecting the rail can leave the cause of the wear untouched.

Heavy Loads Need More Than Strong Wheels

A 5000kg wheel rating sounds impressive. The structure carrying it still has to survive the same job.

Consider:

► Frame stiffness
► Axle strength
► Bearing arrangement
► Number of wheels
► Actual load distribution
► Track support
► Concrete or foundation condition
► Acceleration & braking
► Impact loads
► Centre of gravity

 Material Handling Equipment provides a broader comparison when the requirement involves moving substantial loads rather than sourcing a wheel for an already engineered track system.

Don't build an equipment rating by multiplying wheel capacities.

Bearing Selection Isn't a Minor Detail

Richmond's V groove range demonstrates just how many bearing arrangements can exist inside one wheel category.

Depending on the model, options include:

► Plain bore
► Roller bearing
► Ball bearing
► Taper roller bearing

The correct arrangement depends on the wheel family, axle, load & intended duty.

When a fabricated machine also relies on separate shaft supports,  Mounted Bearing Units can support the wider mechanical assembly.

A wheel bearing & a mounted bearing unit perform different jobs even when both sit around a shaft.

Keep the Track Free From Obstructions

Guided travel only works properly when the running path stays usable.

Inspect for:

► Metal offcuts
► Stones
► Weld spatter
► Fasteners
► Packed dirt
► Damaged track
► Foreign material inside the groove path

A small obstruction becomes much more significant when the equipment has no option to steer around it.

Spring Jobsite Prep Getting Your Gear Ready is a useful reminder that routine equipment checks can catch small problems before working loads expose them.

Track inspection should be part of maintenance, not something done only after the trolley stops.

Fabricating a New System? Design Maintenance Into It

Eventually, somebody will need to remove the wheel you install today.

Allow practical access to:

► Axles
► Bearings
► Retainers
► Mounting bolts
► Track fixings
► Adjustment points

Avoid designing frames that require major dismantling just to service a wear component.

How to Choose the Right Welding Machine for Your Fabrication Shop provides additional workshop context for businesses fabricating their own frames, gates & industrial equipment.

Good fabrication considers the next repair before the first weld cools.

Replacement Work Starts With the VG Code

A worn groove can make measurement less reliable than the original identification.

Before removing the wheel, record:

► VG product code
► Diameter
► Rim width
► Boss width
► Groove width
► Groove depth
► Axle size
► Bearing type

If the original code survives, use it as the starting point & verify the dimensions against the current replacement.

“Looks about right” is particularly risky when several Richmond V groove families share similar diameters.

Don't Forget the Axle Hardware

A track wheel can't run accurately on a badly worn axle.

Inspect:

► Shaft wear
► Retaining hardware
► Spacers
► Nuts
► Washers
► Threads
► Side clearance

Why Good Fasteners Matter More Than the Tool You Drive Them With explores why seemingly small hardware decisions can affect the reliability of the finished assembly.

A precise groove deserves an equally sound mounting arrangement.

Expert Tips

► Guide from one side. Avoid automatically installing V groove wheels on two parallel angle rails; Richmond warns that track-spacing variation can cause binding.
► Leave the bottom of the V clear of the angle peak. The groove recess helps prevent the sharp rail edge from damaging the wheel.
► Measure groove dimensions as well as wheel diameter. A 150mm VG609 & 150mm VG661 aren't the same wheel.
► Check the entire track before blaming the wheel. Bent angle, poor joints & alignment errors can produce unusual wear.
► Record the VG code before dismantling. Richmond offers multiple axle & bearing configurations within individual wheel families.
► Treat high wheel capacity carefully. The frame, axle, track & foundation still need to support the complete moving system.
► Plan wheel removal during fabrication. A serviceable design shouldn't require cutting the frame apart to change a bearing or wheel.
► Clean guided tracks routinely. Unlike a free-running trolley, track-mounted equipment can't simply steer around debris.
► Inspect lateral wear. Heavy wear on one side of the groove can indicate alignment or track-geometry issues.