Speed gate turnstiles use a combination of infrared safety sensors, anti-pinch protection, controlled barrier movement, emergency release functions, and audible/visual alerts to reduce the risk of injury during normal operation or abnormal passage. The exact safety configuration varies by model, so the sensor quantity and functions should be confirmed against the selected product specification.

How Do Infrared Sensors Improve Speed Gate Safety?

Infrared sensors continuously monitor the passage area while the barrier is opening or closing.

Depending on the model and configuration, BOLAN speed gates can use multiple pairs of infrared sensors to detect a person's position inside the lane. If a person remains within the protected area, the control system can adjust or stop the barrier movement to reduce the risk of contact.

This is particularly important in busy entrances where users may move through the lane at different speeds.

Do Speed Gates Have Anti-Pinch Protection?

Yes. Anti-pinch protection is an important safety function for automatic speed gates.

When the system detects a person or obstruction in the protected area, the barrier can respond according to its programmed safety logic rather than continuing normal closing movement.

This helps protect:

• Pedestrians
• Children
• Wheelchair users
• People carrying luggage
• Users who stop unexpectedly inside the lane

Anti-pinch protection should be evaluated together with the sensor layout and barrier movement characteristics rather than treated as a single component.

How Does a Speed Gate Prevent Barrier Collisions?

A properly configured speed gate controls the movement of its barriers through the drive and control system. Sensor feedback helps determine whether the passage is clear before the barrier completes its closing sequence.

Some BOLAN configurations also include anti-collision protection, helping reduce the risk of damage when an abnormal obstruction or unexpected movement occurs.

For high-traffic applications, the combination of sensor detection and controlled barrier movement is more important than simply specifying a fast opening speed.

What Happens If Someone Enters Without Authorization?

Unauthorized entry is primarily an access control and security function, but it also has a safety-related aspect.

If the sensors detect abnormal movement, forced passage, or an unexpected person position, the system can trigger an audible or visual alarm and maintain the appropriate barrier state according to its configuration.

This allows security personnel or the connected access control system to respond without relying solely on physical contact with the barrier.

What Safety Features Are Available During an Emergency?

Speed gates can be configured with emergency release functions so that the passage can be opened or released according to the project's evacuation requirements.

The exact behavior during power failure or an emergency depends on the selected operating configuration. For projects such as offices, transportation facilities, stadiums, and public buildings, the emergency strategy should be defined during system design rather than left to the final installation stage.

What Other Safety Functions Should Be Considered?

For a complete speed gate safety specification, we recommend evaluating:

• Infrared presence detection
• Anti-pinch protection
• Anti-collision protection
• Emergency release
• Audible and visual alarms
• Automatic barrier reset
• Power-on self-test
• Controlled barrier movement
• Fail-safe behavior where required by the project

Not every model necessarily provides the same combination or configuration of these functions, so the final specification should be based on the selected model.

In Shorts: Speed gate turnstiles prevent accidents through multiple layers of protection, including infrared safety sensors, anti-pinch and anti-collision functions, controlled barrier movement, emergency release, audible/visual alarms, and system self-testing. BOLAN speed gates can be configured with these safety functions according to the model and project requirements, helping protect pedestrians during normal, high-traffic, and emergency operation.

Yes. Speed gate turnstiles can be configured with wider passage lanes to support wheelchair and accessibility requirements. BOLAN speed gates can be customized with passage widths of up to approximately 900–1000 mm, depending on the model and configuration, providing additional clearance for wheelchair users, mobility aids, and delivery carts.

What Passage Width Is Available for Accessible Access?

Standard speed gate lanes are often designed for normal pedestrian traffic, while accessibility applications may require a wider opening.

BOLAN speed gates can be configured with 900 mm or even 1000 mm wide passage lanes on suitable models. The exact available width depends on the selected gate design and project requirements.

A wider lane can provide additional clearance for:

• Wheelchair users
• Walking aids
• Mobility equipment
• Luggage
• Delivery carts
• Users accompanied by assistants

For projects where accessibility is a key requirement, the required clear passage width should be confirmed before selecting the final model.

Does a Wider Speed Gate Lane Automatically Meet ADA Requirements?

Not necessarily.

A 900–1000 mm passage width can support accessible access, but the overall installation must still satisfy the accessibility requirements applicable to the project location.

The project designer or accessibility consultant should also consider:

• Clear passage width
• Approach and circulation space
• Floor level and transitions
• Position and height of access-control readers
• Accessible route to and from the gate
• Emergency and evacuation arrangements
• Required accessible entrance or exit configuration

Therefore, BOLAN can provide the wide-lane speed gate configuration, while final ADA or local accessibility compliance should be verified according to the applicable building code and project specification.

Can a Speed Gate Be Used for Wheelchair Access?

Yes. A speed gate with a sufficiently wide passage can be used as part of an accessible entrance.

For example, a 900 mm or 1000 mm wide lane provides substantially more clearance than a conventional narrow pedestrian lane. This makes the configuration suitable for applications where wheelchair users and other mobility users need to pass through the controlled entrance.

For high-traffic facilities, the accessible lane can also be designed as part of a multi-lane speed gate installation, allowing standard pedestrian lanes and a wider accessible lane to operate within the same entrance area.

Can the Access-Control Reader Also Be Made Accessible?

Yes, the reader position should be considered together with the gate configuration.

If the speed gate uses an RFID reader, QR scanner, biometric terminal, or other access-control device, its mounting height and user approach position should be appropriate for the intended users.

This is particularly important for wheelchair users, because an accessible entrance should not have a technically wide lane but an access-control device that is difficult to reach or use.

What Should Be Specified for an Accessible Speed Gate?

For a commercial or public project, we recommend specifying more than simply “ADA-compliant speed gate.”

A clearer technical specification can include:

This gives the architect, contractor, and access-control integrator a much clearer basis for approval.

In Shorts, Yes. BOLAN speed gate turnstiles can be configured with wide accessible lanes of approximately 900–1000 mm, depending on the model and configuration. These wider passages can accommodate wheelchair users, mobility aids, and delivery carts. However, passage width alone does not guarantee ADA compliance; the complete installation, including the accessible route, reader position, clearances, and emergency arrangements, should be verified against the applicable project requirements.

Yes. Speed gate turnstiles can be integrated with most existing access control systems through standard control interfaces such as dry contact/relay, RS232, and RS485. Selected BOLAN models can also support TCP/IP or other customized interfaces. The turnstile normally receives an authorization signal from the existing access control controller and then releases the barrier for an authorized user.

How Does the Integration Work?

The basic integration is straightforward:

Access Credential → Existing Access Control System → Authorization Signal → Speed Gate → Passage

When a user presents a valid credential, the existing access control system verifies the authorization. If access is approved, it sends a release signal to the speed gate.

The speed gate then opens the barrier, monitors the passage, and returns to its normal secured position after the user passes.

This allows the turnstile to become part of an existing security system without necessarily replacing the customer's current access-control platform.

What Interfaces Can Be Used?

The available interface depends on the specific speed gate model and controller configuration.

Typical options include:

For most projects, the access-control integrator should confirm the signal type, wiring method, communication protocol, and data requirements before installation.

Can Existing RFID or Biometric Readers Be Used?

Yes, in many installations.

The existing system may use RFID cards, QR codes, fingerprints, facial recognition, mobile credentials, or another authentication method. The important point is that the existing controller must be able to provide a compatible authorization signal or communication interface to the speed gate.

For example:

RFID Reader → Access Controller → Relay Output → Speed Gate

The reader does not necessarily need to be replaced simply because a speed gate is being added.

Does the Speed Gate Need Its Own Access Control Software?

Not necessarily.

In a typical project, the speed gate acts as the physical access barrier, while the existing access-control system remains responsible for credential management and access authorization.

This means the customer can often continue using its existing:

• Employee database
• Access permissions
• Visitor management platform
• Time-attendance system
• Card management system
• Biometric management platform

The exact architecture depends on how the existing system communicates with the turnstile.

What Information Should Be Confirmed Before Integration?

Before connecting a speed gate to an existing system, the following information should be confirmed:

1. Access-control manufacturer and controller model
2. Available interface, such as relay, RS485, RS232, or TCP/IP
3. Authorization signal type
4. Input/output requirements
5. Communication protocol, if a data connection is required
6. Entry and exit logic
7. Emergency release requirements
8. Whether access status or alarm feedback is required

For larger projects, it is recommended that the turnstile manufacturer and access-control integrator review the interface specification together before final wiring.

Can BOLAN Speed Gates Be Integrated with Third-Party Systems?

Yes. BOLAN speed gates are designed to work with third-party access-control systems, with the exact integration method depending on the selected model and project requirements.

Standard interfaces such as dry contact/relay, RS232 and RS485 cover many conventional access-control applications, while selected configurations can support TCP/IP or customized communication requirements.

For a project with a proprietary or specialized access-control platform, the customer should provide the controller's interface documentation so the required connection method can be confirmed before production.

What Should Be Tested After Integration?

After the physical connection is completed, the complete access sequence should be tested rather than checking only whether the barrier opens.

A typical commissioning test includes:

• Valid credential → access granted
• Invalid credential → access denied
• Entry and exit authorization
• Barrier opening and closing
• Passage detection
• Unauthorized passage alarm
• Emergency release
• Power failure behavior
• Communication between the controller and speed gate
• Multiple lanes operating together, where applicable

In Shorts: This confirms that the access-control system and the physical barrier are working as one system.

To integrate a speed gate turnstile with an existing access control system, connect the turnstile to the existing controller through a compatible interface such as dry contact/relay, RS232, RS485, or TCP/IP on supported configurations. The existing system verifies the user's credential and sends an authorization signal to the speed gate, which then releases the barrier. The exact interface and communication method should be confirmed according to the turnstile model and the existing access-control controller.

A speed gate turnstile is typically designed for long-term, high-frequency operation, with service life depending on the motor, drive mechanism, operating environment, traffic volume, and maintenance. For BOLAN speed gates, selected models are designed for approximately 5-10 million cycles, while a properly maintained system can typically provide 8–10 years of service in demanding applications.

What Does the Cycle Rating Mean?

The cycle rating refers to the number of operating cycles that the gate mechanism is designed or tested to complete under specified conditions.

For a speed gate, one cycle generally involves the barrier opening and returning to its normal closed position.

BOLAN uses cycle performance as an important indicator when evaluating the durability of the drive and mechanical components. However, the actual rating can vary between models and configurations, so the specific product datasheet and test documentation should be used for project approval.

How Long Can a Speed Gate Turnstile Last?

Under normal operating conditions and with appropriate maintenance, a quality speed gate can provide many years of continuous service. For high-traffic commercial, transportation, government, and industrial installations, service life is influenced by the number of daily passages and the frequency of barrier operation.

The following factors have the greatest impact:

• Daily operating cycles
• Motor and drive system quality
• Mechanical alignment and installation
• Indoor or outdoor operating environment
• Temperature, dust, moisture, and corrosion
• Regular inspection and preventive maintenance

A gate operating in a controlled indoor office environment may experience significantly less mechanical stress than one operating continuously at a busy transport hub.

Is a Higher Cycle Rating Always Better?

Not necessarily. Cycle rating should be evaluated together with the actual traffic volume and operating conditions.

For example, a project operating 24/7 with heavy pedestrian traffic should prioritize a robust drive system, appropriate throughput capacity, reliable sensors, and documented cycle performance rather than selecting a gate based only on its advertised cycle number.

For commercial or public projects, buyers should request the rated or tested cycle figure, test conditions, applicable test method, and supporting documentation when this information is part of the technical specification.

How Can the Service Life of a Speed Gate Be Extended?

Proper installation and preventive maintenance are important for achieving the expected service life. Periodic inspection should focus on the barrier mechanism, motor/drive assembly, fixing points, sensors, electrical connections, and overall alignment.

For projects with continuous or high-volume operation, it is also advisable to select a model according to the actual daily traffic and required duty cycle, rather than simply choosing the lowest-cost model.

In Shorts: The typical service life of a well-maintained speed gate turnstile can be around 8–10 years in demanding applications, while selected BOLAN models are designed for approximately 5-10 million operating cycles. Actual service life and cycle performance depend on the specific model, traffic volume, operating environment, installation quality, and maintenance. For projects with strict durability requirements, the model-specific cycle rating and test documentation should be confirmed before approval.

Speed gate turnstile installation requires a level and structurally suitable floor, sufficient space for the passage and barrier movement, stable power and grounding, properly routed power and communication cables, and a compatible access-control interface. Outdoor installations also require appropriate IP protection, drainage, material selection, and weather considerations. Exact dimensions, fixing points, electrical specifications, and wiring requirements should be confirmed from the installation drawing of the selected model.

The installation requirements for a speed gate are relatively straightforward, but proper site preparation is important for reliable operation. The exact requirements can vary by model, passage width, barrier type, access-control system, and whether the installation is indoors or outdoors.

For a BOLAN speed gate project, the main considerations are floor condition, installation space, electrical supply, communication wiring, access-control equipment, environmental conditions, and commissioning.

1. What Floor Conditions Are Required?

The installation surface should be level, stable, and capable of supporting the turnstile structure.

Speed gates are normally fixed directly to the finished floor using anchor bolts. An uneven or weak floor can cause problems such as:

• Misalignment between adjacent lanes
• Barrier movement or vibration
• Difficulty opening and closing correctly
• Loosening of fixing points over time
• Increased installation and maintenance work

For new construction projects, it is recommended to complete the concrete floor and final floor finish before installing the equipment. 

For renovation projects, the installer should check the existing floor condition and confirm that there is sufficient depth and strength for the selected fixing method.

Project note: The exact anchor type, fixing dimensions, and foundation requirements should be confirmed from the installation drawing of the selected speed gate model rather than assumed to be identical across all models.

2. How Much Space Is Needed Around a Speed Gate?

The installer should reserve enough space for both pedestrian movement and equipment maintenance.

The required footprint depends mainly on:

• Number of lanes
• Passage width
• Cabinet dimensions
• Barrier movement
• Direction of pedestrian flow
• Position of access-control readers /scanners
• Nearby walls, doors, columns, or other equipment

BOLAN speed gate models can have different passage widths. For example, selected models provide approximately 600–900 mm passage widths, while some configurations can be wider.

For multi-lane installations, the distance between adjacent units should follow the manufacturer's installation drawing. This is especially important because the equipment must be aligned correctly while maintaining comfortable pedestrian circulation.

A common mistake is to calculate only the physical width of the gate itself. The complete access zone should also include the approach area, exit area, reader position, and maintenance clearance.

3. What Power Supply Is Required?

A dedicated and stable power supply should be prepared before installation.

The electrical requirements depend on the specific speed gate model and configuration, so the installer should refer to the product's technical specification for the exact voltage, frequency, and power consumption.

The installation should normally include:

• Dedicated power circuit where required
• Proper grounding
• Appropriate circuit protection
• Correct cable size
• Protected cable routing
• Separation of power and communication cables where appropriate

For large multi-lane projects, it is better to plan the power distribution for the entire turnstile group, rather than treating each lane as an isolated device.

If the project has backup power requirements, the speed gate system can also be incorporated into the site's UPS or emergency power design, subject to the project configuration.

Generally, Bolan speed gate turnstiles shipped with power supply cables, the speed gate turnstile is for 24V power supply.

4. What Cables Should Be Prepared?

Cable routing should be planned before the speed gates are physically fixed to the floor.

Depending on the system architecture, cables may be required for:

BOLAN speed gates commonly support dry contact/relay, RS232 and RS485 interfaces, while TCP/IP is available on selected models or configurations.

The exact wiring should always be based on the selected model and the project's access-control architecture.

5. Does the Access Control System Need to Be Installed First?

Not necessarily.

The speed gate and access-control equipment can be installed as part of the same project, but the interface requirements should be confirmed before installation.

Typical access-control equipment may include:

• RFID card readers
• QR/barcode readers
• Fingerprint/palm readers
• Facial recognition terminals
• Mobile credential systems
• Visitor management systems
• Time-attendance systems

The important point is that the installer needs to know where the authorization device will be positioned and how it will communicate with the turnstile.

For example, if a facial recognition terminal is mounted directly above the speed gate, its mounting height, viewing angle, cable routing, and user standing position should be considered during the site design.

This prevents a common problem where the gate has already been installed but the reader position is inconvenient for users.

6. What Should Be Considered for Outdoor Installation?

For indoor applications, environmental conditions are normally easier to control. Outdoor installations require additional consideration.

The project should evaluate:

• Rain and water exposure
• Dust
• Direct sunlight
• Temperature range
• Drainage
• Corrosive environments
• Wind exposure
• Protective canopy or enclosure where necessary

The required IP protection level is model-dependent. BOLAN offers different configurations, so the IP rating should be selected according to the actual installation environment rather than applying one rating to every speed gate.

For coastal or highly corrosive environments, the material selection should also be considered. Stainless-steel options such as 304 or 316 may be specified depending on the project conditions.

7. Is Drainage Important for Outdoor Speed Gates?

Yes.

If a speed gate is installed outdoors, the installer should make sure that water cannot accumulate around the equipment base.

Poor drainage can allow water to remain around:

• Floor anchors
• Base plates
• Cable entry points
• Electrical connections
• Underground cable conduits

The finished floor should therefore provide suitable drainage and avoid creating low points directly around the turnstile.

For exposed outdoor installations, a canopy or other architectural protection may also be useful depending on the site's weather conditions.

8. What Is the Recommended Installation Sequence?

A practical installation sequence is:

1. Confirm the approved layout
→ Confirm lane quantity, passage width, pedestrian direction, and equipment position.

2. Prepare the floor
→ Verify levelness, strength, fixing locations, and cable routes.

3. Prepare power and communication wiring
→ Bring cables to the designated connection points.

4. Position and align the speed gates
→ Place each cabinet according to the installation drawing.

5. Anchor the equipment
→ Secure the units to the floor using the specified fixing method.

6. Connect electrical and control wiring
→ Connect power, access-control signals, communication interfaces, and emergency signals where applicable.

7. Align and test the barriers
→ Check barrier movement, opening/closing position, sensor detection, and mechanical alignment.

8. Configure the access-control system
→ Test authorization and communication between the reader/controller and the turnstile.

9. Perform final commissioning
→ Test normal passage, abnormal conditions, alarms, emergency operation, and lane-to-lane coordination.

This sequence helps avoid installing the equipment first and then discovering that the floor, wiring, or reader position needs to be changed.

9. How Long Does Speed Gate Installation Take?

For a standard installation, the physical installation itself can often be completed within one working day when the floor, power, cable routes, and access-control system are already prepared.

However, the total project schedule can be longer when the installation includes:

• Multiple lanes
• Custom passage widths
• New electrical wiring
• Network integration
• Facial recognition terminals
• Visitor management systems
• Fire alarm integration
• Customized control logic
• Complex site commissioning

Therefore, it is better to distinguish between equipment installation time and complete system commissioning time.

For large projects, the site should ideally be inspected and the installation drawings approved before equipment delivery.

10. What Should Be Checked Before the Speed Gate Arrives?

A pre-installation checklist can help prevent delays.

For a multi-lane project, it is particularly important to verify the lane spacing and cable locations before drilling the floor.

What Are the Most Important Speed Gate Installation Requirements?

In practice, the most important requirements are not complicated: a suitable floor, correct installation space, stable power, properly routed cables, compatible access-control interfaces, and adequate environmental protection.

For project planning, the recommended approach is to confirm the specific speed gate model and configuration first, then use its installation drawing to determine the final dimensions, anchor positions, wiring points, and power requirements.

This avoids applying generic installation dimensions to different speed gate models.

A speed gate turnstile prevents tailgating by combining access authorization with infrared passage detection and automatic barrier control. After a user's credential is approved, the sensors monitor the person's movement through the lane. If another person follows without authorization, or someone attempts reverse or forced entry, the system can detect the abnormal movement, keep the barrier secured and trigger an audible or visual alarm. BOLAN Speed Gate models are available with 6–16 pairs of infrared sensors（can be added as customized needs）, while the exact detection and control configuration depends on the selected model and project requirements. 

1. Access authorization comes first

The process begins when a user presents a valid credential, such as an RFID card or wristband, QR code, fingerprint, facial recognition credential, or another connected access-control method.

Once the access controller confirms the credential, it sends an opening command to the speed gate. BOLAN models can be configured for one-way authorized access or two-way verified access, depending on how the site manages entry and exit.

The important point is that authorization does not simply mean “the gate opens.” The control system also needs to monitor what happens during the passage.

2. Infrared sensors monitor the passage

The infrared sensors create detection zones across the pedestrian lane.

As the authorized person moves through the gate, the sensors detect changes in the passage area and provide information about movement direction, occupancy and the sequence of passage.

This allows the controller to distinguish between a normal authorized passage and an abnormal event, such as another person entering immediately behind the authorized user.

For example:

Authorized user → normal sensor sequence → passage completed → gate resets

Whereas:

Authorized user → second person follows → abnormal sensor sequence → tailgating detected → alarm / security response

The exact detection logic varies by model and configuration, but BOLAN's current Speed Gate range uses multi-pair infrared sensing specifically for tailgating, reverse-entry and forced-entry detection.

3. The barrier controls the physical passage

After authorization, the swing barriers open to allow the approved user to pass.

BOLAN Speed Gate models such as the BLS-HS321 specify an opening time of approximately 0.2–0.5 seconds after authorization, with a typical throughput of around 30–40 people per minute. The higher-throughput BLS-HS328 is specified at approximately 40–50 people per minute, depending on operating conditions and configuration.

After the authorized passage, the barrier returns to the closed position. If authorization is granted but nobody enters the lane, the automatic lock/reset function can also be configured to return the gate to its secured state after a defined period.

This combination of authorization + sensor monitoring + controlled barrier movement is what makes a speed gate different from a simple automatic glass door.

4. Tailgating triggers an abnormal-access response

Tailgating occurs when an unauthorized person attempts to enter immediately behind an authorized user without obtaining separate permission.

A properly configured speed gate can recognize this situation through the sensor sequence and trigger an appropriate response, such as:

• Keeping the barrier closed
• Preventing the second person from completing the passage
• Activating an audible or visual alarm
• Sending an abnormal-access signal to the connected control system
• Recording the event when the site's access-control software supports event logging

BOLAN's HS321, HS328 and other current Speed Gate models specify detection of tailgating, reverse entry and forced intrusion, with audio-visual alerts for abnormal access.

The gate therefore does not need a security guard to visually judge every person entering the lane.

5. Reverse entry and forced passage are also monitored

Tailgating is only one form of unauthorized access.

A person may also attempt to:

• Enter against the permitted direction
• Push through the barrier
• Enter without presenting valid credentials
• Exploit the short interval after another person's authorization

BOLAN Speed Gate control systems are designed to recognize abnormal movement patterns such as reverse passage and forced entry, and the system can provide an audible/visual warning when such events occur.

This is particularly useful in environments where the access direction is controlled separately for entry and exit.

For example, a corporate building can require:

Entry → authentication required

while allowing the exit direction to follow a different access rule.

6. Anti-tailgating is different from anti-pinch protection

These two functions are sometimes confused.

Anti-tailgating is primarily a security function. It determines whether more people are attempting to use the lane than the access authorization permits.

Anti-pinch and obstacle detection are primarily safety functions. They detect an obstacle while the barrier is moving and stop or interrupt the closing movement to reduce the risk of trapping a person or object.

BOLAN models such as HS321 and HS328 use infrared sensors together with anti-collision/obstacle detection features for this purpose.

Keeping these two functions separate is important when writing a project specification because a tender should not treat “anti-pinch” as a substitute for an anti-tailgating system.

Can a Speed Gate Completely Eliminate Tailgating?

No access-control device should be described as providing an absolute guarantee against every possible bypass attempt.

A speed gate can significantly reduce tailgating and unauthorized passage when the correct sensor configuration, access-control logic and installation are used, but actual security performance also depends on:

• Sensor quantity and layout
• Passage width
• Access-control configuration
• User behavior
• Barrier height and design
• Installation accuracy
• Site security procedures
• Integration with alarms or security management software

For higher-security projects, it is therefore better to specify the required detection functions and system behavior rather than simply writing “anti-tailgating included.”

What Should Be Specified for a Project?

For a commercial building, transportation hub, stadium, data center or other controlled facility, the specification should ideally identify:

• Tailgating detection
• Reverse-entry detection
• Forced-entry detection
• Infrared sensor quantity/configuration
• Automatic barrier locking
• Audible and visual alarms
• Access-control interface
• Emergency release
• Anti-pinch/obstacle detection
• Required passage width
• Expected pedestrian throughput

BOLAN supports project-specific customization of dimensions, barrier materials, access-control interfaces and other configuration details, so the final sensor and control configuration should be selected according to the actual site requirements rather than assuming every Speed Gate has exactly the same configuration.

BOLAN offers a range of speed gate turnstiles designed for different pedestrian volumes, security requirements, installation spaces, architectural styles, and access-control configurations. The range includes swing-barrier speed gates, slim/compact speed gates, high-throughput models, and customized configurations.

Rather than choosing a speed gate based only on appearance or opening speed, it is better to consider pedestrian flow, required passage width, security level, available space, authentication system, installation environment, and project design requirements.

For example, BLS-HS302 and BLS-HS303 provide a standard 600–900 mm passage configuration, while the BLS-HS328 is designed for higher pedestrian throughput with a standard 600–1000 mm passage range. Other models such as the BLS-HS305 and BLS-HS321 focus on slimmer cabinet designs for projects where entrance space is limited.

What types of speed gate turnstiles does BOLAN offer?

1. Standard Swing Barrier Speed Gates

These are the most versatile speed gate configurations in the BOLAN range. They use motorized glass, acrylic, PVC, or stainless-steel barrier panels to control pedestrian passage.

Models such as BLS-HS302 and BLS-HS303 are suitable for corporate offices, commercial buildings, campuses, hotels, transportation facilities, and other controlled entrances.

Typical features include:

• 600–900 mm standard passage width
• 30–40 people per minute under suitable operating conditions
• 0.2–0.5 second barrier opening after authorization
• Multiple infrared sensor pairs
• RFID, QR code, biometric and other authentication options
• 304/316 stainless steel or other available cabinet materials
• Customized passage width and barrier configuration

These models are a good starting point for projects that need a balance of security, throughput, appearance, and cost.

2. Slim and Compact Speed Gates

For entrances where floor space is limited, a slim speed gate can provide controlled pedestrian access without requiring a large equipment footprint.

For example, BLS-HS305 uses a compact 120 mm-wide main body, while BLS-HS321 has a 120 mm-wide cabinet and a 1500 mm overall length. Both can be configured with 600–900 mm standard passage widths, with customization available for specific projects.

This type is particularly suitable for:

• Office lobbies
• Commercial buildings
• Bank entrances
• Hotels
• High-end residential developments
• Existing buildings with limited installation space

Choose a compact speed gate when the available entrance area is one of the main design constraints.

3. High-Throughput Speed Gates

For transportation hubs, stadiums, busy commercial buildings, and other locations with concentrated pedestrian traffic, BOLAN offers higher-throughput configurations.

For example, BLS-HS328 specifies approximately 40–50 people per minute under suitable operating conditions and supports a standard 600–1000 mm passage width.

These models are better suited to projects where the priority is:

High pedestrian flow + short queues + fast authorization + reliable passage monitoring.

However, actual throughput should not be judged only by the mechanical opening speed. Reader response time, authentication method, pedestrian behavior, lane width, and the number of installed lanes also affect real-world capacity.

4. High-Security Speed Gate Configurations

Some projects require more than basic entry control. They may need stronger anti-tailgating detection, abnormal passage monitoring, forced-entry alarms, or integration with advanced authentication systems.

BOLAN speed gates can use multiple infrared sensor pairs to monitor movement within the passage. Depending on the model, configurations can include 6–16 pairs of infrared sensors, providing detection of situations such as tailgating, reverse entry, forced passage, and other abnormal movement.

For these projects, selection should focus on the sensor configuration and access-control logic, rather than simply choosing the model with the fastest opening time.

5. Customized Speed Gate Turnstiles

BOLAN also provides OEM/ODM customization for projects with specific architectural or technical requirements.

Depending on the selected model, customization can include:

• Overall dimensions
• Passage width
• Cabinet material
• 304/316 stainless steel
• Powder-coated steel
• Anodized aluminum
• Brushed, mirror, matte or other finishes
• Glass, acrylic, PVC or stainless-steel barriers
• LED indicators
• Access-control reader openings
• Logo engraving or silk-screen printing
• Barrier size and configuration
• Communication and control interfaces
• Project-specific accessories

BOLAN's customization service is intended to adapt the speed gate to the actual site layout and access-control architecture, rather than simply changing its external appearance.

How do you choose the right speed gate?

The simplest way is to evaluate the project against six key factors.

1. Start with pedestrian traffic

Estimate the number of people who need to pass during the busiest period.

• Normal office traffic: standard speed gate
• Busy commercial entrance: higher-throughput configuration
• Airport, station or stadium: multiple lanes and higher-throughput models
• Temporary or low-volume access: compact or simplified configuration

For example, BLS-HS302/HS303 are specified at around 30–40 people/min, while BLS-HS328 is specified at around 40–50 people/min under suitable conditions.

2. Check the available installation space

Measure:

• Available entrance width
• Available installation length
• Required number of lanes
• Passage width
• Space for access-control readers
• Accessible or wider lanes

If space is limited, a slim configuration such as BLS-HS305 or BLS-HS321 may be more appropriate. If the project requires a wider passage, customized configurations can be evaluated.

3. Define the required security level

Ask what the gate needs to prevent.

For basic controlled access, a standard sensor configuration may be sufficient.

For higher-security entrances, consider:

• Higher-density infrared sensing
• Anti-tailgating detection
• Reverse-direction detection
• Forced-entry alarms
• Two-way authentication
• Facial or fingerprint recognition
• Integration with a centralized access-control platform

This is particularly important for financial institutions, data centers, government buildings and restricted facilities.

4. Decide on the authentication method

BOLAN speed gates can be configured to work with different authentication technologies, including:

RFID → QR code → NFC → fingerprint → facial recognition → ticketing systems → third-party access control

The correct reader should be selected according to the customer's existing system rather than choosing the turnstile first and trying to adapt the authentication equipment afterward.

This is especially important for projects that already have an access-control or visitor-management platform.

5. Consider the building's architectural style

For a premium office lobby, hotel, bank or commercial building, the speed gate is also part of the entrance design.

In these applications, customers may prioritize:

• Slim cabinet design
• Transparent glass barriers
• Stainless-steel finishes
• Low-noise operation
• Integrated LED guidance
• Custom branding

For industrial or more functional entrances, durability and practicality may be more important than decorative finishes.

6. Consider the environment and project requirements

Before selecting the final model, confirm:

• Indoor or outdoor installation
• Temperature range
• Required IP protection
• Stainless-steel grade
• Power supply
• Communication interface
• Local electrical requirements
• Fire and emergency-release requirements
• Accessibility requirements

The environmental protection level should always be confirmed for the specific model and project configuration, rather than assuming every speed gate has the same IP rating. BOLAN's current product pages list IP54/IP65 options depending on the model/configuration.

Which BOLAN speed gate should I choose?

These model recommendations should be treated as a starting point rather than a fixed product rule. Final selection should be confirmed against the project's traffic volume, dimensions, authentication system, security requirements, and environment.

Can BOLAN help select the right speed gate for a project?

Yes. For project-based orders, customers can provide the site layout, number of lanes, estimated peak pedestrian flow, required passage width, access-control system, installation environment, and target security level.

BOLAN can then recommend a suitable speed gate configuration and confirm the relevant dimensions, materials, barrier type, sensors, interfaces, and optional accessories before production.

In short: there is no single “best” speed gate for every project. Choose a standard swing-barrier model for general access control, a slim speed gate when installation space is limited, a high-throughput model for busy entrances, and a customized configuration when the project has specific architectural, accessibility, security, or integration requirements.

A speed gate turnstile is a high speed pedestrian access control system that uses motorized glass, acrylic, or other barrier panels together with sensors and an electronic control system to manage authorized entry and exit.

Unlike a basic mechanical turnstile, a speed gate combines physical access control, real-time pedestrian detection, authentication, and passage management in one system. It is designed for locations where security needs to be combined with fast pedestrian flow and a modern architectural appearance.

Depending on the model and configuration, BOLAN speed gate turnstiles can provide passage speeds of approximately 30–55 people per minute, with some models opening the barrier in around 0.2–0.5 seconds after authorization. Actual throughput depends on the authentication method, pedestrian behavior, lane configuration, and site conditions.

How does a speed gate turnstile work?

A typical speed gate works through several coordinated stages:

1. User authentication
The user presents an authorized credential, such as an RFID card, QR code, NFC device, fingerprint, facial recognition credential, or ticket.

2. Authorization
The connected access control or ticketing system verifies the credential and sends an authorization signal to the gate controller.

3. Passage detection
Infrared sensors monitor the lane to determine whether a person is entering, exiting, following another person, or attempting an unauthorized passage.

4. Barrier movement
Once access is authorized, the motorized barriers open rapidly and provide a controlled passage.

5. Passage confirmation and re-locking
The sensors monitor the person's movement through the lane. After the authorized passage is completed, the barriers return to the secure position.

BOLAN speed gate models typically use multiple pairs of infrared sensors, with some configurations using 6–16 pairs per lane, depending on the model.

What are the core functions of a speed gate turnstile?

The main functions can be divided into access control, pedestrian detection, anti-tailgating, traffic management, safety, and system integration.

1. Controlled pedestrian access

The primary function is to allow authorized users to pass while restricting unauthorized access.

Depending on the control configuration, BOLAN speed gates can support one-way authorized access, two-way verified access, one-way free flow, or full-lockdown modes. This allows the same gate to be adapted to different building security policies.

2. Anti-tailgating and abnormal passage detection

Speed gates can use infrared sensor arrays to monitor movement inside the passage.

The system can identify situations such as:

• Tailgating
• Unauthorized following
• Reverse-direction movement
• Passage without authorization
• Abnormal movement inside the lane

This is particularly important for offices, transportation hubs, financial facilities, and other entrances where controlling one authorized person at a time is required.

BOLAN's speed gate range uses multi-point infrared sensing, with higher-density sensor configurations available on selected models for more detailed passage monitoring.

3. High pedestrian throughput

Speed gates are designed for environments where large numbers of people need to enter or exit without creating long queues.

For example, BOLAN models such as the BLS-HS301P and BLS-HS328 specify approximately 30–40 and 40–50 people per minute, respectively, under suitable operating conditions.

Actual site throughput should be evaluated together with the authentication technology and number of lanes rather than relying only on the gate's mechanical opening speed.

4. Integration with authentication systems

A speed gate can work as the physical barrier within a larger access control system.

Depending on the selected configuration, BOLAN speed gates can integrate with:

• RFID cards and wristbands
• QR codes and e-tickets
• NFC
• Fingerprint or palm recognition
• Facial recognition
• Barcode or ticket scanners
• Time attendance systems
• Third-party access control controllers

This allows customers to use the authentication technology that best matches their security requirements and user flow.

5. Safety and emergency access

Speed gates can also be configured with emergency functions for situations such as fire alarms, power failures, or emergency release requirements.

Depending on the project configuration, emergency release can allow the passage to be opened automatically or manually when normal access control is unavailable.

The exact emergency behavior should be defined according to the building's fire-safety strategy, evacuation requirements, and applicable local regulations.

6. Visual guidance and user feedback

LED indicators on the gate provide visual information about whether passage is authorized, unavailable, or in another operating state.

This helps users understand the correct direction and reduces hesitation at busy entrances. Selected BOLAN models can also be configured with additional access-control reader windows and related accessories.

7. Access control and communication integration

Speed gates can receive control signals from external access-control equipment and communicate with connected systems.

Depending on the model, BOLAN speed gates support interfaces including relay signals, dry contact, RS232, and RS485. This makes them suitable for integration with existing access-control and management systems rather than requiring every project to use a completely standalone solution.

Where are speed gate turnstiles commonly used?

Speed gates are particularly suitable for entrances where security, pedestrian throughput, and architectural appearance all matter.

Typical applications include:

• Corporate offices and headquarters
• Commercial buildings
• Banks and financial institutions
• Airports and transportation hubs
• Railway and metro stations
• Stadiums and event venues
• Universities and campuses
• Government buildings
• Hotels and high-end commercial facilities
• Data centers and controlled facilities

For high-traffic locations, multiple lanes can be installed together to increase overall entrance capacity.

What makes a speed gate different from a conventional turnstile?

The key difference is that a speed gate combines a fast motorized barrier with electronic authentication and real-time sensor monitoring.

A traditional tripod turnstile is generally simpler and more cost-oriented, while a full-height turnstile focuses more heavily on physical anti-bypass protection.

Speed gates occupy a middle-to-high security position where the project requires:

Fast passage + intelligent detection + access-control integration + modern design.

This makes them particularly suitable for modern buildings where the entrance is both a security checkpoint and part of the architectural environment.

Can speed gate turnstiles be customized?

Yes. BOLAN provides OEM/ODM customization for project-specific speed gate requirements.

Depending on the model, customization can include passage width, cabinet dimensions, 304/316 stainless steel, surface finish, colors, barrier materials, LED configuration, access-control reader openings, and installation layout. Wider passage configurations, including approximately 900 mm access channels, can also be considered for wheelchair users, luggage, delivery carts, or accessibility requirements.

The final configuration should be confirmed according to the site's traffic flow, security level, available space, authentication system, and installation conditions.

In short: a speed gate turnstile is more than a motorized entrance barrier. It combines pedestrian access control, authentication, infrared detection, anti-tailgating, fast passage, safety functions, and system integration in one access-control solution. This makes it a strong choice for modern facilities that need to balance security, efficiency, and user experience.

Speed gate turnstiles, tripod turnstiles, and full height turnstiles all control pedestrian access, but they are designed for different security, traffic, space, and architectural requirements.

Speed gate turnstiles are generally the preferred option when a project needs fast pedestrian throughput, intelligent anti-tailgating detection, modern appearance, and integration with multiple authentication systems. Tripod turnstiles offer a more economical solution for basic one-person access control, while full height turnstiles provide a stronger physical barrier for high-security or perimeter applications.

The right choice depends on the balance between security level, pedestrian volume, available space, appearance, and project budget.

Speed gate vs. tripod turnstile

A tripod turnstile uses three rotating arms to control one person at a time. Its simple mechanical structure makes it a practical choice for applications where basic access control and cost efficiency are more important than premium appearance or maximum pedestrian flow.

Speed gate turnstiles use motorized glass or panel barriers together with sensors and access-control logic. They are designed for faster, smoother pedestrian movement and can provide more advanced detection and alarm functions.

Choose a speed gate when you need:

• Higher pedestrian throughput
• Faster entry and exit
• Optical or infrared anti-tailgating detection
• RFID, QR code, NFC, fingerprint, or facial recognition integration
• A more modern architectural appearance
• Better suitability for corporate and commercial entrances

Choose a tripod turnstile when you need:

• Basic one-person access control
• A relatively simple mechanical solution
• Cost-effective deployment
• Applications such as factories, gyms, campuses, staff entrances, or other controlled areas

BOLAN also offers automatic tripod turnstiles and customized tripod solutions for applications where cost efficiency and straightforward access control are priorities.

Speed gate vs. full-height turnstile

The biggest difference is the physical security concept.

A speed gate normally uses waist-to-chest-height glass barriers and electronic detection to manage pedestrian access. Its open visual design makes it particularly suitable for locations where security needs to coexist with a welcoming architectural environment.

A full-height turnstile creates a much more enclosed passage from floor to top. This physical structure makes climbing over, crawling under, or bypassing the gate significantly more difficult.

Speed gates are generally better suited to:

• Corporate offices
• Commercial buildings
• Banks and financial institutions
• Airports and transportation facilities
• Stadium VIP or hospitality areas
• Campuses
• Modern public buildings
• High-traffic entrances where appearance matters

Full height turnstiles are generally better suited to:

• Factories
• Construction sites
• Mining areas
• Industrial facilities
• Restricted areas
• Perimeter entrances
• Stadium back-of-house areas
• High-security facilities

BOLAN's full height turnstiles are specifically positioned for applications where physical security and controlled one-person passage are more important than achieving the highest possible pedestrian throughput.

Which type provides better anti-tailgating protection?

The answer depends on the application and the configuration.

Speed gates can use multiple infrared sensors to detect unauthorized following, forced entry, or abnormal movement. This makes them particularly useful where both high throughput and intelligent anti-tailgating are required.

Full height turnstiles rely more heavily on their enclosed physical structure and controlled rotor movement. They make common bypass methods such as climbing over or crawling underneath much more difficult.

Tripod turnstiles provide controlled one-person passage through their rotating arms, but their lower physical barrier makes them less suitable when the project requires a high level of anti-bypass protection.

Which turnstile is best for high-traffic entrances?

For busy entrances, speed gate turnstiles are usually the strongest choice when the project requires both high pedestrian throughput and a premium user experience.

Their fast opening mechanism, sensor-based passage monitoring, and integration with electronic authentication systems help reduce queues while maintaining controlled access. BOLAN currently positions its speed gate range for high-flow applications, with model selection based on expected traffic, security level, installation space, and environment.

However, throughput should not be evaluated only by the mechanical opening speed. Reader response time, authentication method, lane width, pedestrian behavior, and the number of lanes also affect actual site capacity.

Which turnstile is better for a modern office building?

For modern office buildings, speed gates are often the preferred option because they combine access security with architectural design.

The stainless-steel housing and transparent glass barriers provide a more open appearance than traditional enclosed barriers, while RFID cards, QR codes, NFC, biometrics, and other authentication methods can be integrated into the access-control system.

For a project where the entrance is also part of the building's reception or visitor experience, this combination can provide a better balance between security and aesthetics.

Is a speed gate always better than a tripod or full-height turnstile?

No. The most appropriate turnstile is determined by the application's actual requirements.

A speed gate may be the better choice for a corporate headquarters, but a full height turnstile can be more appropriate for a factory perimeter or restricted industrial area. Likewise, a tripod turnstile can be a practical solution for a project where basic access control and budget efficiency are the main priorities.

The selection should therefore consider:

Security → Traffic → Environment → Space → Appearance → Integration → Budget

BOLAN can recommend the appropriate turnstile configuration based on the expected pedestrian flow, required security level, access-control system, installation conditions, and project budget.

Quick comparison

In short: choose a speed gate turnstile when your priority is high-speed pedestrian flow, intelligent detection, access-control integration, and modern appearance; choose a tripod turnstile for straightforward and cost-effective access control; and choose a full-height turnstile when maximum physical security and anti-bypass protection are the primary objectives.

Speed gate turnstiles can integrate with a wide range of authentication methods, allowing the same gate to work with existing access control, time attendance, ticketing, visitor management, or biometric systems. Depending on the model and project requirements, BOLAN speed gates can support RFID cards/wristbands, QR codes, NFC, fingerprint recognition, facial recognition, palm recognition, and other third-party authentication devices.

The speed gate itself acts as the physical access barrier, while the connected reader or access control system verifies the user's credentials. Once authorization is confirmed, the controller sends an opening signal to the gate.

Which authentication methods are supported?

Depending on the selected speed gate model and configuration, common options include:

• RFID cards and wristbands – suitable for employee access, membership systems, campuses, and controlled facilities.
• QR codes and e-tickets – useful for visitor access, event venues, transportation hubs, and ticket validation.
• NFC devices – suitable for contactless credentials and compatible mobile or smart-card applications.
• Fingerprint recognition – provides biometric verification for applications requiring stronger identity control.
• Facial recognition – enables hands-free identity verification and is suitable for offices, VIP areas, government facilities, and other security-sensitive locations.
• Barcode and ticket scanners – suitable for venues and transportation applications where tickets need to be validated before passage.
• Third-party access control controllers – the turnstile can receive authorization signals from an existing security platform rather than requiring a completely new access control system.

BOLAN speed gate models can also be configured with different reader types and accessory arrangements according to the project. For example, the BLS-HS321 high speed swing barrier turnstile supports RFID, fingerprint, facial recognition, QR-code scanning, and other access-control configurations.

Can one speed gate support multiple authentication methods?

Yes. A speed gate can be configured for multi-modal authentication when the project requires more than one credential type.

For example, an office entrance could use RFID cards for employees while providing QR-code access for visitors. A high-security area could combine a QR credential with facial recognition to provide an additional identity verification layer.

This approach allows the same physical gate infrastructure to serve different user groups without requiring separate entrance systems.

Can speed gates integrate with an existing access control system?

In most projects, yes. The speed gate does not necessarily need to replace the customer's existing access control platform. The external reader or controller can continue to manage authentication, while the speed gate receives the authorization signal and controls the physical passage.

Depending on the selected model and system architecture, BOLAN supports interfaces such as dry contact, RS232 and RS485, while customized communication solutions can also be evaluated for project-specific requirements.

This makes speed gates suitable for integration with existing access control, time attendance, visitor management, ticketing, and security management systems.

Can speed gates be customized for project-specific authentication requirements?

Yes. As a speed gate manufacturer with OEM/ODM capabilities, BOLAN can evaluate project-specific requirements such as reader type, reader mounting position, access-control window dimensions, communication interface, access logic, LED indication, and related accessories.

For large projects, customers can provide their existing access control architecture or technical specifications so the required interface and authentication method can be confirmed before production.

In short: BOLAN speed gate turnstiles can integrate with RFID, QR code, NFC, fingerprint, palm recognition, facial recognition, ticketing systems, and third-party access control platforms. The appropriate authentication method depends on the required security level, user experience, traffic volume, and existing system architecture.