The 8m Bus Stop Smart Pole with Info Display is a 5-in-1 integrated smart streetlight designed for transit hubs, roadside passenger-waiting shelters, and municipal smart-mobility projects. The configuration integrates 1 × 80W LED luminaire, 1 × AI camera, 1 × WiFi access point, 1 × portrait LED information display, and 1 × USB charging module on an 8m round-conical steel pole — providing compact installation in high-foot-traffic bus stop environments. For B2B buyers reviewing lifecycle value, the system is specified with 170 lm/W luminous efficacy, IP66 water/dust ingress protection, −40 °C to +55 °C operation, 4G/5G + LoRaWAN communications, and a 25-year design life with appropriately engineered foundation and maintenance schedule.
Compared with a conventional bus-stop configuration using one separate 8m lighting pole, one wall-mounted display, one standalone CCTV mast, one consumer WiFi router, and one exposed charging box, this integrated pole reduces visible street furniture by approximately 60–80%, simplifies trenching interfaces from 4–5 device points to a single integrated pole base, and can reduce recurring maintenance visits by an estimated 20–35% depending on municipal O&M practice. The design aligns with the modular smart-pole approach referenced in EN 50556, and luminaire performance is specified per IEC 60598 and IEC 62722. For buyers comparing smart-city infrastructure options, browse all Smart Streetlight (10-in-1 Multi-function Pole) products for adjacent 3-in-1 through 10-in-1 variants.
At bus stops, passenger dwell time typically ranges 3–15 minutes — making it well suited to combining lighting, information, surveillance, and public connectivity in a single asset. The portrait LED display is optimized for route guidance, estimated arrival times, public-service announcements, and emergency messages, while the 80W LED luminaire supports roadside and platform illumination with approximately 13,600 lumens output. The pole's round-conical design delivers a cleaner visual profile than heavy-duty urban octagonal poles, fitting transit corridors where municipalities want to reduce visual clutter while still demanding five functional modules in a single structure.
For transit operators and EPC contractors, the value proposition includes data integration in addition to hardware integration. A bus stop equipped with one smart pole per bay enables central management of lighting schedules, display content, camera feeds, and WiFi status through a common backhaul path. According to IEA's urban-digitalization and efficiency studies, connected public infrastructure can improve utilization and fault-response time by more than 20% versus isolated legacy assets. From a procurement perspective, replacing five independent product categories with a single engineered assembly also reduces supplier-coordination steps, civil-interface risk, and acceptance-test complexity at project delivery.
This variant integrates five modules tuned for bus-stop service. The LED luminaire uses a high-efficiency 80W engine rated at 170 lm/W to provide stable lighting for waiting areas, curb edges, and adjacent sidewalks. The AI camera supports security monitoring and can be configured for passenger-flow analytics, queue observation, and incident review. Typical smart-pole camera references in the market may include 4K resolution, 20× optical zoom, and 50 m IR night-vision depending on final project scope. The WiFi module extends passenger internet accessibility and can support high-density public use — platform-class AP options are typically offered at 500+ concurrent users.
The portrait LED display is a defining feature of this bus-stop version. Typical installation benchmarks for the 1024 × 512 mm P4 LED display are available upon inquiry (with installation included) — one of the highest-value functional components after the pole structure itself. In bus-stop scenarios, the portrait orientation improves readability within a narrow installation footprint. The vertical layout can display 2–4 route blocks, one service-alert area, and one advertisement or public-information zone without requiring a wide cabinet. The USB charging module adds a low-power passenger convenience supporting 5V charging for mobile phones and small devices. This matters particularly at transit hubs, where passenger phone-battery anxiety affects perceived service quality.
The pole structure is specified at 8m height with a round-conical geometry — a practical format that balances aesthetics, wind loading, and manufacturing efficiency in transit corridors. Based on the provided smart-pole template, the system carries a wind-speed resistance rating above 150 km/h, with the steel body typically using hot-dip galvanized steel and an exterior protective coating system suitable for urban outdoor exposure. Typical wall thickness in integrated smart poles falls in the 3–6 mm range depending on structural calculations, local codes, arm load, and seismic or wind requirements.
For outdoor electronics, enclosure protection is a key procurement criterion. This product is specified at IP66 — suitable for heavy rain, dust-ingress control, and roadside pollution. Operating temperature is −40 °C to +55 °C, enabling deployment across continental climates, coastal cities, and midsummer transit corridors. Industry design practice requires surge protection, grounding, and breaker coordination at the pole base — particularly where utility power quality is variable. If installing in coastal or high-salinity environments, request coating thickness, salt-spray test data, and anchor-bolt material details during bid review.
The integrated luminaire is rated at 80W and 170 lm/W efficacy, equating to approximately 13,600 lumens under nominal operating conditions. For bus-stop lighting, this output level is generally suitable for illuminating waiting areas, signage zones, and adjacent pedestrian access — installed at 8m with appropriate optics. Compared with a legacy 150W high-pressure sodium (HPS) streetlight, the 80W LED system can reduce luminaire power demand by approximately 46.7% while improving color rendering and ignition response. Compared with a legacy 120W metal-halide-class fixture, savings remain at approximately 33.3% even before adding a dimming schedule.
In municipal operations, lighting energy is only part of the total power profile. Displays, WiFi, cameras, and charging functions add continuous or intermittent loads, making integrated control essential. With scheduled dimming, adaptive display brightness, and off-peak WiFi management, annual power savings can still reach 15–30% versus a non-optimized multi-device bus stop, depending on operating duty cycle. NREL and IEA efficiency guides consistently show that controls and connected operation materially contribute to real-world savings versus static-output equipment. Buyers seeking advanced dimming logic can configure a system online to align with local illuminance targets and operating hours.
From an EPC perspective, this product follows a centralized smart-pole architecture where one utility entry, one pole-base cabinet zone, and one communications stack support five integrated functions. The standard communications template includes 4G/5G + LoRaWAN, with WiFi service provided via the onboard access point. In a typical deployment, the LED luminaire and display are controlled by remote schedule, the camera performs streaming or event recording, the USB charger is current-limited for safety, and all modules report status to a cloud dashboard or municipal platform through a security-gateway layer.
This architecture is also compatible with the smart-city trend of expansion to edge-connected assets. While this 5-in-1 bus-stop version does not include every optional feature found on larger 10-in-1 poles, it preserves modular upgrade potential for future additions such as sensors, audio, and emergency-call equipment. This matters because urban infrastructure lifecycles often exceed 10 years, while digital modules may be refreshed every 3–5 years. IRENA and BloombergNEF have both emphasized that as cities digitalize transport and public services, modular electrified infrastructure becomes more valuable for reducing stranded-asset risk.
The baseline technical scope for this variant includes 8m pole height, 80W LED power, 170 lm/W efficiency, 5 integrated modules, IP66 protection, −40 °C to +55 °C temperature range, 4G/5G + LoRaWAN communications, wind-speed resistance above 150 km/h, and 25-year design life. The pole form factor is round-conical, the display orientation is portrait — particularly suited to route information and narrow platform footprints. The standard utility supply is AC 220V/380V grid power, with internal distribution coordinated through breakers, surge protection, and smart-control interfaces.
Exact display and digital-communications specifications can be tuned per project. A typical reference is 1 × P4 LED display sized 1024 × 512 mm, and WiFi can be supplied at 300M-class or AX3000-class depending on user density and backhaul quality. Camera selection can range from 4 MP fixed AI cameras to 4K PTZ units, though bus-stop projects often choose fixed or mini-PTZ solutions to balance cost and coverage. If a tender requires a specific module schedule, please send target quantities, drawing requirements, and destination country with a custom quotation request.
Cloud monitoring transforms the pole from a passive lighting asset into an active urban node. Through remote supervision, operators can track lamp status, display uptime, camera connectivity, network status, and fault alarms for each installed pole. In many municipal O&M models, this reduces manual inspection frequency from, say, 12 site visits per year to a target of 4–6 visits per year. Smart asset management shortens fault-response windows — particularly important at bus stops, where display failures and dark zones directly affect passenger experience and safety perception.
Cloud-connected deployments also support content scheduling for information displays. Traffic announcements can be updated in minutes rather than days, and municipal public-service notices can be pushed from a single interface to 10, 50, or 500 poles simultaneously. Smart-infrastructure analyses by Wood Mackenzie and IEA have repeatedly shown that centralized management improves operational consistency and reduces service-recovery time. Buyers planning integrated city systems can reference the topic library for broader guidance on smart lighting, communications, and public-infrastructure convergence.
A municipal transit operator in the MENA region deployed 36 integrated bus-stop smart poles across 12 bus corridors serving approximately 18,000 daily passengers. Before the upgrade, each stop used one sodium lamp, one printed timetable case, and ad-hoc third-party CCTV coverage — resulting in inconsistent service information and fragmented maintenance. After installing the 8m smart pole with digital display and WiFi, the agency reported an expected 28% reduction in annual maintenance dispatches, approximately 45% lighting energy savings versus legacy 150W HPS, and improved incident-review coverage thanks to centralized camera visibility.
The same project also benefited in revenue and service-flexibility terms. The portrait display allocated approximately 70% of screen time to transit data and 30% to municipal announcements or paid messages, contributing to partial operating-cost offset. Because the system used one engineered pole platform instead of four separate roadside devices, civil works were also simplified in constrained curb zones where underground utility conflicts are common. Deployments of this type increasingly align with the smart-mobility funding frameworks cited by IEA and IRENA, where digital public infrastructure is evaluated not just on energy savings but also on service quality and asset utilization.
Conventional bus-stop technology stacks often consist of one lighting pole, one separate CCTV pole or wall bracket, one display enclosure, one consumer-grade router, and one charging kiosk — each component with different suppliers, warranty terms, and cable routes. This approach increases installation interfaces from approximately one integrated foundation and feeder to three or more physical mounting systems and often adds 15–30% coordination overhead in EPC delivery. It also creates more visible clutter and more failure points in public spaces.
In contrast, the integrated 5-in-1 pole consolidates those assets into a single vertical structure with coordinated factory assembly and acceptance testing. In many urban projects, this can reduce on-site installation time per stop by 1–2 labor days depending on foundation readiness and utility access. Cities also manage one structured BOM rather than a mix of retail-grade devices, reducing spare-parts complexity. For purchasing officers, this means fewer supplier lines, clearer warranty boundaries, and more predictable lifecycle cost management across 5–10 years.
Pricing available upon inquiry.
Engineers preparing a tender must verify foundation design loads, local wind-load codes, display brightness requirements, camera privacy compliance, and backhaul availability before finalizing the module schedule. Review at least five technical checkpoints: pole structural calculations, feeder specification, grounding-resistance target, surge-protection coordination, and display content-management interface. If the bus stop is in an area with high vandalism risk, buyers can also specify tamper-resistant fasteners, reinforced access doors, and IK-rated protective glass.
Developers planning phased rollouts typically begin with 10–20 pilot poles to validate uptime and passenger response over 3–6 months before scaling across the corridor. This staged approach reduces integration risk and lets cities optimize display-content policy, WiFi bandwidth limits, and camera retention settings before ordering more than 50 units. Reference the topic library for technical background on smart-infrastructure deployment models and compare adjacent system architectures within the MAXLUMI portfolio.
Not every smart pole needs 10 modules. The most frequently used functions in bus-stop infrastructure are typically lighting, visible information, surveillance, connectivity, and low-power charging. This 5-in-1 configuration concentrates budget on five practical functions rather than adding hardware that may be underused. With EPC turnkey pricing available upon inquiry, it sits in a much more cost-effective position than premium 10-in-1 urban-integrated poles while still delivering measurable gains in safety, passenger communication, and digital-service readiness.
For transit authorities, advertising agencies, EPC firms, and smart-city integrators, the 8m Bus Stop Smart Pole with Info Display is a cost-rational option for upgrading public-transit hubs with a single engineered asset. Combining an 8m structural height, 80W efficient lighting, five integrated modules, and standards-compliant design, it provides a deployment-ready platform for modern bus-stop environments. To benchmark against other multifunction pole models, browse all Smart Streetlight (10-in-1 Multi-function Pole) products or configure a system online.
| Product Variant | 8m Bus Stop Smart Pole with Info Display |
|---|---|
| Product Line | Smart Streetlight (10-in-1 Multi-function Pole) |
| Pole Height | 8 m |
| Pole Design | Round conical |
| Applications | Bus stop |
| Integrated Modules | 5 in-1 |
| LED Power | 80 W |
| Luminous Efficacy | 170 lm/W |
| Estimated Luminous Flux | 13600 lm |
| Display Orientation | Portrait |
| Wind Speed Resistance | 150 km/h+ |
| IP Rating | IP66 |
| Operating Temperature | -40 to +55 °C |
| Communication | 4G/5G + LoRaWAN + WiFi |
| Energy Savings | 46.7 % |
| Power Supply | AC220/380V grid |
| Design Lifetime | 25 years |
Pricing available upon inquiry.
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