Door Closer Types and How to Choose the Right One？

A door closer does one thing: it returns a door to the closed position after it's been opened, at a controlled speed. That's it. But the way it does this — the mechanism inside, where it mounts, how it's adjusted — determines whether it works smoothly and quietly for years or whether it becomes a source of constant complaints and repeated maintenance calls. Specifying the right door closer for the application is less about finding the cheapest option that technically fits and more about matching the closing force, mounting configuration, and durability grade to what the door and the environment actually demand.

How Door Closers Work

Standard overhead door closers use a spring and a hydraulic piston working together. The spring stores energy as the door opens — it's compressed or wound during the opening swing. The hydraulic piston controls how quickly that energy is released during closing. The fluid in the piston flows through adjustable valves as the piston moves, and the resistance to flow determines closing speed. Tighter valve settings produce slower closing; more open settings produce faster closing.

Most door closers have at least two independently adjustable speed zones: the "sweep" speed (the main closing arc from full open to about 10–15 degrees from closed) and the "latch" speed (the final few degrees where the door meets the frame and the latch must engage). Good closer adjustment sets the sweep speed fast enough that the door closes before the next person walks through, and the latch speed slow enough that the door doesn't bang into the frame.

Some closers add a third adjustment: "backcheck," which is a hydraulic resistance to opening the door too fast or too wide. Backcheck prevents wind or impact from flinging the door open violently and damaging the door, frame, or wall behind it. It's a useful feature on exterior doors in exposed locations and on doors that open against walls or other objects.

The Main Types by Mounting Location

Regular Arm (Standard) Mount

The most common configuration. The closer body mounts on the door face (pull side), and an arm extends from the closer to a track shoe mounted on the door frame. As the door opens, the arm pulls away from the frame, winding the spring. The arm is visible from the pull side of the door. This is the standard for most commercial and public building applications — straightforward to install, easy to service, and available in the widest range of sizes and force ratings.

Parallel Arm Mount

The closer body mounts on the push side of the door, and the arm runs parallel to the face of the door when the door is closed. This configuration is used when the door opens against a wall or stop that would obstruct a standard arm, or when the aesthetic of the pull side needs to be cleaner. Parallel arm mounting also positions the closer body on the push side, where it's less visible to incoming users. The mechanical disadvantage of the parallel arm geometry means the closer must exert more force for a given door weight — parallel arm closers are typically derated compared to their standard arm rating for the same body size.

Top Jamb Mount

The closer body mounts on the header (top of the door frame) rather than on the door itself. This keeps the door face completely free of hardware, which is preferred in certain architectural applications and in situations where the door is made from a material that makes it difficult to mount hardware directly (some frameless glass doors, for example). Top jamb mount closers are less common than door-mounted versions and have slightly more complex installation requirements.

Concealed Door Closer

Concealed overhead closers fit entirely within a recess in the door and frame, making the closer invisible when the door is closed. The only visible element is the slim pivot mechanism at the top of the door. Concealed closers are specified in high-end architectural applications — lobby doors, feature entrances, high-specification office and hotel interiors — where visible hardware would detract from the design intent. They are more expensive than surface-mounted closers, require precise router recesses during door and frame fabrication, and are more difficult to service. They're the right choice when appearance is the priority; not the right choice when budget or maintenance access is the priority.

Floor Spring (Floor Closer)

Floor springs are installed in a recess in the floor below the door pivot, providing the closing mechanism at the bottom of the door rather than the top. This completely frees the door and frame faces from visible hardware and allows double-action doors (doors that swing in both directions) and other configurations that overhead closers can't accommodate. Floor springs are the standard for large frameless glass entrance doors in commercial buildings — the glass-and-metal entrance door to an office lobby is almost always floor-sprung. They require floor preparation during construction and a more involved installation than surface-mounted closers.

Closer Size and Force Rating

Door closers are rated by closing force, typically expressed as EN 1154 size grades (EN 2 through EN 6 in European classification, covering door widths from 750mm up to doors above 1250mm) or as equivalent force ratings in other systems. Getting the size right matters in both directions:

A closer that's undersized for the door will struggle to close the door reliably against wind pressure or in high-traffic situations where users push doors open aggressively. An undersized closer that can't fully latch the door is a security and fire safety issue on fire doors.

A closer that's oversized will produce excessive closing force — doors that slam, doors that require significant effort to open (a real issue for accessibility compliance), and increased mechanical stress on door frames and hinges. Adjustable-size closers (where the spring tension and valve settings can be configured across a range of EN sizes) offer more flexibility than fixed-size closers for installations where the exact closing force requirement isn't precisely known at specification time.

For fire doors, the closer specification must comply with the fire door's certification requirements — the door's fire rating is only valid when the closer matches the specification used during fire testing. This is a regulatory requirement, not a preference: an uncertified closer on a rated fire door invalidates the fire rating of the door assembly.

Key Specifications to Confirm When Ordering

Door Closers in Different Applications

Commercial and Public Buildings

High-traffic commercial doors — office building entrances, hospital corridors, hotel lobbies, retail stores — demand closers rated for high cycle counts (1,000,000+ cycles) and consistent performance across a wide temperature range. Commercial-grade closers in these applications are often adjusted for relatively slow closing speeds to accommodate elderly and disabled users, and with backcheck set to prevent door damage from high footfall traffic. Finishing matching to the building's door hardware specification (typically silver, dark bronze, or black) is standard practice.

Fire Doors

Fire doors are required by building regulations in most markets to be fitted with door closers that are specifically certified for fire door use. The closer must hold the door fully closed in normal operation (fire door regulations prohibit wedging fire doors open without approved hold-open devices) and must close the door reliably after each use. The specific EN size and certification marks required are determined by the fire door's certification, and the installed closer must match.

Residential Entry Doors

Residential door closers on main entry doors are specified for lighter-duty use and, crucially, for compliance with accessibility requirements where applicable. Low-opening-force closers (typically EN 2–3) are required for accessible doors under many building codes. The hold-open function is occasionally specified for convenience, but must be combined with a mechanism that releases the door in fire or emergencies.

Frequently Asked Questions

How do you adjust a door closer that's closing too fast?

Most door closers have adjustment screws accessible on the end or underside of the closer body, typically protected by a cover plate. The sweep speed (main closing arc) and latch speed (final closing) are separate adjustments. To slow the closing speed, turn the relevant valve screw clockwise — this restricts the hydraulic fluid flow and slows the piston movement. Adjust in small increments (quarter-turn at a time) and test the door after each adjustment. If the door fails to latch reliably after slowing the sweep speed, the latch speed valve may need to be opened slightly faster to ensure the door closes firmly against the latch. Backcheck adjustment controls resistance to opening, not closing speed.

What is the difference between a door closer and a door spring hinge?

A spring hinge uses a coiled spring inside the hinge barrel to return the door to the closed position. It provides returning force, but no speed control — a spring hinge slams the door shut at whatever speed the spring tension drives, with no hydraulic damping. Door closers use hydraulic damping to control the closing speed throughout the swing. For any application where closing speed matters — comfort, noise, damage prevention, accessibility compliance — a door closer is the appropriate choice. Spring hinges are used in low-specification applications where closing force alone (without speed control) is sufficient, such as light-duty interior doors in non-public areas.

Can door closers be fitted to any door?

Door closers can be fitted to the vast majority of hinged doors, but there are practical constraints. Very lightweight doors (below approximately 20kg) and very narrow doors may not have the structural frame to support standard closer mounting. Frameless glass doors require floor springs or pivot systems rather than overhead closers. Door size outside the closer's rated range (too wide or too heavy for the specified EN grade) requires a larger closer. And doors in extreme temperature environments — industrial freezer rooms, exposed external locations in extreme climates — may require closers with hydraulic fluid formulated for the operating temperature range, since standard hydraulic fluid's viscosity changes with temperature and affects closing speed consistency.

Door Closer | Door Hinge | Door Stop | Door Lock | Lock Cylinder | Contact Us