High-performance custom LED luminaires and smart lighting control solutions

Sep 11, 2026

Beaulighting (Zhongshan) Lighting Technology Co., Ltd.

High-efficiency custom light sources · 95% driver conversion efficiency · system-level energy-saving solutions · 20 application sectors · 25 smart control protocols

About Beaulighting

Beaulighting (Zhongshan) Lighting Technology Co., Ltd. is a manufacturer specialized in high-efficiency custom LED luminaires and smart lighting control solutions, operating in energy-intensive environments across commercial, industrial, municipal, sports, agricultural, and data center sectors.

Our delivery model is fully custom; no fixed catalog exists. Customers configure luminaires across eight dimensions — efficiency, color rendering, correlated color temperature, photometric distribution, ingress protection rating, driver architecture, control interface, and serviceable structure — and receive end-to-end support, from site survey and design proposal through prototype verification to long-term maintenance.
Component Details
Company Name Beaulighting (Zhongshan) Lighting Technology Co., Ltd.

Brand Beaulighting

Business Activities High-efficiency custom LED luminaires, smart lighting control systems, energy-saving lighting retrofit solutions

Service Models Direct Purchase / Energy Performance Contract (EMC) / Lighting as a Service (LaaS)

Target Markets Europe, North America, Middle East, Southeast Asia, South Asia, Latin America, Africa

Website: beaulighting.com

Email [email protected]

WhatsApp / Tel: +86 138 1840 3203

Product Certifications CE, RoHS, ETL, with UL test report available (certificate numbers upon request)

Production Location and Annual Capacity Production Location: Guzhen, Zhongshan, Guangdong Province, China; annual production value approx. RMB 2.5 billion

Quattuor specificatiónes centrales

2.1 Classes de efficacia: adaptatae ad conditiónes prōiectī

Offermus solutiónēs pro fōntibus luminis in quattuor classes efficaciae, ut clīēntēs possint elīgere secundum pretium electricitātis et tempus optātum reditūs.
Classis efficaciae Status suppeditationis Applicationēs typicās
130–180 lm/W Līnea productōrum standard, praesto ad suppeditatiōnem celerem in voluminibus magnīs Officinae industriālēs generālēs, magazīna, garagia pro stationibus automobilium

180–210 lm/W Līnea productōrum standard et ordines ad mensūram Centra commercialia, aedificia administrātōria, scholae, hospitālia

210–230 lm/W Līnea ad altam efficaciam ad mensūram; valōrēs praebitī confirmātī per rāpportum examinis ab partibus tertiīs Projecta cum ānnotātiōne energiae UE classis A, illuminātiō viārum municipalium magnae scālae, stadia sportīva

230–280 lm/W Maximum technicum verificātum in laboratōriō; nūlla promissiō pro productiōne in serie. Evolvenda ad speciem prōiectī ad petitionem praesto Regiōnēs cum pretiīs altīs, centra datōrum, loca extra rete

Duo puncta circa datos efficacitatis quos clientes considerare debent in specificatio producti:

Primum, efficacitas supra 230 lm/W pendet a conditionibus impulsum minimi. Nos adhibemus methodum designandi sub-impulsam («equus magnus, currus parvus»): diminuere impulsum per singulum LED-package augere efficacitatem, minuere temperaturam iunctionis, et prolongare vitam usque ad plus quam quinque annos. Ergo, in designo, determinamus classem impulsum ex potentia reali in loco mensurata, non ex valore pico declarato.

Secundum, efficacitas armaturae mensurata communiter 20%–30% minor est quam efficacitas nominalis LED-packages in ea. Hoc est characteristicum obiectivum industriae illuminationis. Omnes nostrae quotatationes et documenta proiectuum fundantur in valoribus armaturae mensuratis, non in valoribus theoreticis ad gradum package, ut nullum litigium circa efficacitatem oriatur in transfertione proiecti.

2.2 95% driver efficiency and centralized DC power supply

Our driver conversion efficiency reaches 95%. The common industrial requirement is at least 90%, so 95% places power supply losses near their practical lower limit.

The value of this figure becomes clear in the context of total system losses: conventional discrete architectures lose approximately 7%–9% during energy conversion, making the power supply the second-largest loss point after thermal losses at the light source. In facilities operating 24/7—warehouses, cold storage rooms, data centers—a five-percentage-point difference in driver efficiency over the product’s lifetime results in a significant difference in electricity costs.
Power supply architecture Energy-saving effect Application conditions
Driver de armatura de inaltă eficiență per armatură (topologie neizolată / rezonantă LLC); eficiență de conversie a driverului: 95 %; renovare a clădirilor existente; nu se cer modificări ale sistemului de distribuție

Alimentare DC centralizată (250 V ±20 V DC); economie suplimentară de 15 %–20 % peste driverii de înaltă eficiență, plus siguranță electrică îmbunătățită; proiecte de construcții noi sau renovări în care sistemul de distribuție poate fi adaptat; compatibil cu sistemele PV și de stocare

Centralized DC power supply eliminates the individual AC-DC conversion stage in each luminaire and powers luminaires via a shared DC bus, thereby reducing cumulative multi-stage conversion losses. The cost limitation is that DC distribution equipment costs approximately 1.5 times as much as equivalent AC equipment. We therefore recommend this architecture for new-build projects meeting the required conditions, and for renovations, high-efficiency luminaire drivers per luminaire—selecting the combination that delivers the best return on investment for the specific project.

2.3 Energy savings at system level: three independent sources

Our energy-saving approach relies on three mutually independent sources. A customer applying only one or two of them still achieves the corresponding share of savings.

Source 1 — Savings through replacement of light sources. Replacing standard LED products with high-efficiency products yields substantial secondary savings, even when the site is already lit with LED. High-efficiency LED luminaires operate in the range of 180–240 lm/W, and savings compared to standard LED products typically range from 20% to 75%, depending on the efficiency of the equipment being replaced.

Source 2 — Savings via system loss control. Four technical measures reduce transmission losses: selection of LED package bins with low current (a 0.2 W bin delivers higher efficiency than a 1 W bin); underdriving packages, which increases efficiency by 10%–15%; replacement of matte PC diffusers with high-transmission diffusers, which increases efficiency by 10%–12%; and use of high-efficiency power supplies in non-isolated or LLC resonant topologies, combined with 95% driver conversion efficiency.

Source 3 — Savings via intelligent control. Sensors and algorithms reduce hours of unnecessary lighting. Published industry data indicate combined savings of 60%–95%, with the actual figure depending on the share of unoccupied hours in the space.

Qualification of the claim "60% energy saving": 60% is an achievable target value for most commercial and industrial scenarios under a combined approach of "high-efficiency hardware replacement plus intelligent control configuration". It is not a uniform guarantee for all projects. The actual saving in a specific project depends on four variables: the efficiency of the existing lighting installation, the measured occupancy profile of the site, the depth of the control configuration, and the quality of ongoing management and maintenance. We determine the actual saving per project via parallel metering: meters are installed in parallel at the same measurement point before and after renovation and read by the customer or a third party, so that the saving is demonstrated with meter data rather than estimation.

2.4 Lifetime and reliability engineering

The actual costs of a lighting project lie not in the purchase price but in replacement and maintenance. We regard reliability engineering as equally prioritized with efficiency.
Reliability dimension Common industrial challenges Our design focus points
Thermal management 40%–60% of input power in LED conversion becomes heat; insufficient heat dissipation causes efficiency degradation. In high-power LEDs, approximately 70% of input energy becomes heat, and conventional aluminum-substrate-plus-heat-sink constructions approach their thermal resistance ceiling in compact luminaires. Heat-dissipating structures using high-conductivity aluminum profiles; laterally emitting luminaire designs that reduce temperature sensitivity of light sources and optical components and stabilize output

Reliabilitas nutrisi: Drift temperatur menyebabkan kegagalan dini pada sebagian luminer; koefisien suhu resistansi-gate MOSFET standar dapat meningkat hingga 10% pada temperatur tinggi, yang memengaruhi stabilitas kecerahan dan efisiensi. Desain under-dimensioned dikombinasikan dengan filtering RC, rectifikasi, dan proteksi tabung konduksi untuk mencegah arus atau tegangan berlebih mencapai sirkuit driver.

Konsistensi modul: Modul paralel multi-chip mengembangkan hotspot lokal akibat variasi tegangan jatuh. Binning paket dan optimalisasi struktur distribusi arus untuk menurunkan tegangan penggerak serta meningkatkan efisiensi dan keseragaman.

Penurunan fluks cahaya dan masa pakai: Standar masa pakai industri umum adalah L80 selama tidak kurang dari 50.000 jam. Dikonfigurasi mulai dari batas bawah wajib UE yaitu L70/B50 selama tidak kurang dari 30.000 jam, dapat diperluas hingga 50.000–100.000 jam berdasarkan kebutuhan proyek.

Sensor accuracy: Under strong interference, smart sensor algorithms lack robustness; published industry data report false-positive rates up to 28.4%. Millimeter-wave radar combined with AI algorithms, tuned to local interference levels, prevents lamps from failing to turn on when needed or failing to turn off in absence.

Regarding warranty, we offer a 5–10 year warranty together with cloud-based remote monitoring (exact duration as stipulated in the contract). This warranty period aligns with contract cycles customary for European projects.

Twenty application sectors

3.1 Sector overview and indicative savings
Sector Specific environment Indicative savings range Key specification requirements Recommended efficiency class
Retail Shopping malls and complexes 40%–59% Lighting power density (LPD) no higher than 2.1 W/m² at 300 lx 180–210 lm/W

Commercium, supermercati et catenae commerciales: 20%–75% (respectu ad LED standard) 180–240 lm/W; altus CRI pro exacta colorum mercium repraesentatione 210–230 lm/W

Commercium, vitrinas et signa directionalia: subiecta temporibus obligatoriis extinctionis; debet suportare commutationem remotam 180–210 lm/W

Officia, aedificia officiorum completa: 50%–70%; tabellae supra 190 lm/W; versiones cum sensoribus in spatiis transitorum 190–230 lm/W

Officia, centra commercialia et exercitia professionalia: usque ad 92%; verificatum per mensuram parallelam 210–230 lm/W

Educatio, scholae et aulae: 23,8%–43,8%; sine flicker, Ra ≥ 90 180–210 lm/W

Sanitas, hospitales: 58%–60%; sine flicker, altus CRI, configurabilis usque ad RG0 180–210 lm/W

Cultura, galeriae et spatia culturalia: 23,8%–43,8%; consistentia colorum, Ra ≥ 90 180–210 lm/W

Loca Sportiva: Stadia, Piscinae, Campi Futballi, Arenae, Centra Tennisi; 50%–75% Intensitas Luminis Verticalis usque ad 2000 lx; Ra ≥ 90; Index Glare non ultra 30; IP66; 150–220 lm/W

Industria: Pavimenta Fabricarum et Magazina; 50%–70%; IP65/IP66; Ra ≥ 80; 180–230 lm/W

Industria: Officinae Textilis et Levis Industriae; Circa 67%; Alta Uniformitas Illuminationis; Protectio contra Pulverem; 200–230 lm/W

Industria: Frigorifera et Catena Frigida; Usque ad 87%; Operatio ad Temperaturas Infimas; Resistentia ad Humiditatem et Condensationem; 200–230 lm/W

Logistica: Parca Logistica et Centra Distributionis; 32%–38%; Lampadae Altiores; Sensoria Intellegentia; 200–230 lm/W

Publica et Transportus: Viae Urbanae; Combinatae Conservationes ultra 70%; Norma Nationalis Sinica Classis 1 "Praecursor" requirit non minus quam 170 lm/W; 170–230 lm/W

Publica et Transportus: Tunnels et Nodi Metro; 35%–40%; Alta Uniformitas; Anti-Glare; Longa Duratio Vitae; 180–210 lm/W

Municipal and transport parking garages 80%–95% AI radar sensors; average operational power reducible to 2–3 W; 180–230 lm/W

Municipal and transport residential neighborhoods and streets up to 95% individual luminaire control; light pollution compliance; 170–210 lm/W

Agriculture smart greenhouses and plant factories approx. one-third lower consumption than high-pressure sodium; photon efficacy 3.1–4.6 μmol/J; spectrum configurable; specific spectrum

Data centers equipment rooms and technical spaces up to 97% near-zero lighting during unoccupied periods; above 230 lm/W; project-specific development

Off-grid solar street lighting, islands, mining sites suitable where no grid power is available; lithium iron phosphate batteries; PV storage integration; 170–230 lm/W

Le gamme de économies indiquées dans le tableau ci-dessus proviennent de sources sectorielles publiées et de performances mesurées sur des projets utilisant des approches techniques similaires. Elles sont fournies afin d’aider les clients à estimer une fourchette probable d’avantages, mais ne constituent pas un engagement de performance de notre part. L’économie spécifique à un projet donné est déterminée par une étude sur site et des mesures simultanées avec des compteurs.

3.2 Remarques sectorielles

Commercial and public buildings. Supermarkets, office buildings, schools, hospitals, and galleries share three characteristics: long operating hours, large floor areas, and high electricity tariffs. The absolute value of savings is therefore substantial, and the payback period short. In shopping mall circulation areas, replacing standard 12–15 W LED downlights with 5.5 W units yields approximately 59% energy savings. In a full office building, luminaires exceeding 190 lm/W—combined with sensor-controlled lighting in circulation areas—reduce total building energy consumption by 50%–70%. Schools and hospitals impose the strictest requirements regarding flicker, color rendering, and blue light emission; we configure these to Ra ≥ 90 with RG0 available.

Sport and large venues. Stadiums, swimming halls, football fields, arenas, and tennis centers are technically demanding and high-quality projects. LED efficiency ranges from 130–185 lm/W, versus 65–100 lm/W for metal halide, meaning installed power for the same illuminance is only 50%–70% of a metal halide solution, with total energy savings typically between 50% and 75%. Quality constraints for venue lighting are non-negotiable: instant start, flicker-free operation, high color rendering (Ra ≥ 90), and stable correlated color temperature are required to meet HDTV broadcast requirements—vertical illuminance up to 2000 lx and uniformity. Venue quality parameters we deliver include anti-glare lenses with transmission above 98% and luminaire efficacy above 95%; compared to a conventional 1000 W metal halide luminaire, a single LED luminaire requires only 300 W, with glare index not exceeding 30; illuminance uniformity no lower than 0.7, and glare rating (GR) not higher than 35. For eight standard tennis courts, annual energy consumption can drop from approximately 83,000 kWh to 31,000 kWh. Initial LED costs are about 1.5–2 times higher than metal halide, but total lifetime cost savings amount to 50%–70%, with a typical payback period of 3–5 years for a medium-sized football field.

Industria et logistica. Totales conservationes post substitutionem solent esse inter 50% et 70%, cum tempore recuperationis inter sex menses et biennium — unum ex brevissimis omnium sectorum. Gradus protectionis solent esse IP65/IP66, CRI non inferior quam 80, cum photometria batwing vel precisionis. Frigoriferia optime demonstrant valorem regulorum intelligentium: exempla sectoris publicata referunt reductionem consumptionis luminis ad 87% et tempus recuperationis circa unum annum. In magazinis data sectoris indicant quod totales expensae energiae possint minui usque ad 75%. Nostri moduli illuminationis industrialis retinent 97% suae efficacitatis in extremis ambientibus.

Municipal and transport. LED street lighting reduces consumption by 50%–80% compared to high-pressure sodium, with efficiency above 160 lm/W; combined with smart dimming, total savings can exceed 70%. China’s 2025 revision of the national standard for road lighting expanded energy-efficiency classes for roadway lighting from three to five levels, setting the entry threshold for Class 3 at no less than 120 lm/W and the Class 1 “pioneer” level at no less than 170 lm/W. The evaluation framework has shifted from single-source efficiency toward “adaptive efficiency”, emphasizing effective light use in real-world conditions — meaning photometric precision is as important as the efficiency figure. Parking garages show especially strong results because they remain unoccupied for most of the day: AI radar sensors can reduce average operating power to 2–3 W.

Agriculture and special applications. In horticultural lighting, the relevant unit is μmol/J instead of lm/W. The efficiency ladder ranges from approximately 1.5 μmol/J for high-pressure sodium, to approximately 2.8 μmol/J for standard LED, to 4.1 μmol/J for quantum-dot LED; specific horticultural LEDs reach 4.6 μmol/J. LED reduces energy consumption by about one-third compared to high-pressure sodium and generates significantly less heat — a 320 W LED luminaire emits 130–160 W of heat versus 420 W from a 600 W sodium lamp — directly lowering greenhouse cooling loads. We configure spectra per crop type. Equipment rooms and data centers show the strongest published results, with 97% in industry data. Our high-efficiency technology also extends to visible-light communication (Li-Fi), which transmits data via high-frequency LED modulation with immunity to electromagnetic interference and no signal leakage, suitable for defence, medical, and industrial-internet applications with confidentiality or EMC requirements.

Viginti quinque optiones intelligentium regulorum

4.1 Protocolla regulata connexa (9)
Num. Protocol. Caracteristica technica. Adressatio singularis luminarium. Feedback status. Applicationes recommendatae.
1 0–10 V dimmatio analogica. Impensae parvae, compatibilitas late diffusa, praecisio bona; linea signali additiva requiritur, et omnia lumina in eodem circuitu simul dimmantur. Non supportata. Nulla. Renovationes limitatae per pecuniam in aedificiis iam existentibus.

2 DALI / DALI-2 Norma digitalis specifica pro illuminatione (IEC 62386); bus bi-filare, communicatio bi-directionalis, connexio facilis, compatibilitas inter multas marcas; capacitas limitata per bus. Supportata, usque ad 64 adresses per bus. Supportata. Aedificia commercialia; norma communis pro projectis municipalibus Europaeis.

3 D4i Amplificat DALI-2 cum collectione datorum luminarium et mensura energiae. Supportata. Supportat mensuram energiae. Projecta quae requirunt reportationem energiae et rationem carbonis.

4 DALI+ Supportat transmissio wireless / IP, extendens le stratum semantic DALI super rete wireless. Supportat. Supportat. Renovatio wireless de installationes DALI existentes.

5 DMX512 Velox (250.000 bps), fortis in mutatione coloris RGB et effectus dynamicos; unidirectionale, nullum reditum status luminaria — Non supportat. Spectacula lucis pro eventis, illuminationes pro paisagiis, projecta pro turismo culturali.

6 Diminutio TRIAC (sectione phasei) Nulla additio cablationis, impensa parva; sensibilis ad micrationem ad nivea parva luminositatis — — Renovationes residentialis et commercialis parvae cum interruptoribus existentibus.

7 KNX Standardis internationalis pro automatione aedificiorum; architectura distributa, plures strata physica, scalabilis usque ad decem milia apparatus, integratio illuminationis, HVAC et securitatis; impensae initiales altiores et installatio complexior. Supportat. Supportat. Aedificia officiorum praestantiora, aedificia publica, projecta quae requirunt integrationem HVAC et securitatis.

8 BACnet Object-Oriented Building Automation Protocol; supports communication between subnets and integration with KNX and Modbus — Supported Integration into Unified Building Management Platforms and BAS

9 RS485 / Modbus TCP Shielded Twisted Pair; stable, reliable, interference-resistant; requires cabling — Supported Industrial Environments, PV Storage System Integration

4.2 Wireless Control Protocols (12)
No. Protocol Technical Features Gateway Required Recommended Applications
10 Matter Application-Layer Standard Running on Thread, Wi-Fi or Ethernet; cross-brand ecosystem interoperability; local control during offline operation — Dependent on Transport Layer Cross-Ecosystem Retail Channels, Residential and Light-Commercial Projects

11 Thread IPv6-Based Low-Power Mesh Self-Organizing Network; latency under 100 ms; strong security — Border Router Required Large-Scale Sites, Mid- to High-End Buildings

12 Zigbee Bassis potentia mesh; bona stabilitas; duratio bateriae 1–5 annos; compatibilitas inter marcas limitata. Porta necessaria. Illuminatio aedificii integri, regulatio uniformis in emporiis catenatis.

13 Bluetooth Mesh Pretium parvum; regulatio directa per smartphone; penetratio parietum limitata; administratio rete magnae scalae complexior. Porta non necessaria. Aedificia commercialia, officinae, renovatio parva ad mediocris magnitudinis.

14 Wi-Fi Connectit directe ad routerem; celer; consumptio electrica maior et congestio ubi multa instrumenta sunt. Porta non necessaria. Regulatio singulorum luminarium, canales retail et e-commerce.

15 Z-Wave Pretium parvum; radiofrequentia bassi potentiae; ambitus interior circa 30 m. Porta necessaria. Spatia residencialia et parva commercialia.

16 EnOcean Captatio energiae; interruptores generant suam propriam potestatem; sine bateriis et sine cura. Porta necessaria. Aedificia historica et loca ubi cablatura impossibilis est.

17 NB-IoT Urban scale, high volume, low-power wide-area network Not required Municipal street lighting with individual luminaire control

18 LoRa / LoRaWAN Campus scale self-organizing network with long range Gateway required Campuses, outdoor lighting

19 4G Cat.1 No wiring needed, high real-time performance Not required Temporary sites, event venues, remote industrial locations

20 PLC (power-line carrier) Uses existing power cables, so no wiring needed; sensitive to grid noise Not required Street lighting and wiring-free renovation of older buildings

21 OneConnect / NearLink Supports HarmonyOS ecosystem and native protocols, promotes cross-brand interoperability Depends on solution Projects in the Chinese market

4.3 Sensor and algorithm capabilities (4 categories)

Protocols are transport channels; what creates an intelligent user experience is sensing and decision-making.
Habilitas Contentus Technicus Contributio ad Conservationem Energiae
Detectio Occupationis et Ambientis Radar in Millimetris Facit Possibilem Administrationem Singulorum Luminarium per Energiam et Carbonem; Sensoria Radaria Artificialis Intelligentiae Praebent Illuminationem Advenientibus et Extinguuntur Recedentibus; Combinata Reductio 80%–92% in Garaginis Parkandi; Potentia Media Operationis Reducibilis ad 2–3 W

Algorithmi Praedictionis Artificialis Intelligentiae Algorithmi LSTM pro Praedictione Occupationis, Diminutione Adaptativa et Administratione Dynamica Energiae; Combinata Reductio 60%–95%, Secundum Proportionem Horarum Vacuarum

Utilizatio Lucis Diurnae Output Lucis Artificialis Automatice Adaptatur ad Lucem Diurnam Disponibilem, Ubi Zonae Marginales Primum Diminuuntur; In Agricultura, Regulatio Sequentiae Receptorum Lucis; Reductio Extra in Officiis et Scholis; Reductio Systematis in Serribus

Administratio Externa et Manutentio Regulatio Gruppi Basata in App, Notificatio Automatica Defectuum, Supervisio Nubis Remota; Minuit Costus Inspectionis et Manutentionis Manualis

Decentralized individual luminaire autonomy is the current technical direction: each luminaire makes its own decisions without a gateway, combining millimeter-wave radar with LSTM algorithms to achieve 80%–95% total energy savings, with edge-computing response under 0.5 seconds. Its value lies not only in eliminating gateway costs but also in reducing interoperability issues caused by protocol fragmentation—cross-protocol coordination occurs at device level instead of relying on a uniform overarching platform.

A cloud-edge-device architecture ensures offline operation and millisecond response: if the network fails, local lighting logic continues to operate, and data is automatically synchronized when the network recovers. We support IoT-based lighting networks compatible with MQTT, CoAP, and BACnet, enabling integration and data exchange with building automation systems (BAS) and environmental monitoring systems.

4.4 Choice among three system architectures
Architecture Advantages Limitations Suitable customers
Centralized (gateway + bus) Deployment is visible and faults are easy to localize The gateway is a single point of failure; expansion is limited by bus capacity Single buildings, projects with defined scope

Decentralized (luminaire autonomy): No gateway; decision-making at device level; cross-protocol coordination; flexible scalability. Slightly higher cost per luminaire. Large campuses, multi-building sites, phased projects.

PV-storage integration: Lighting becomes a dispatchable energy node instead of a pure load; configurable toward carbon-neutral operation. Requires investment in PV and storage. Regions with high electricity tariffs, off-grid locations, projects eligible for storage subsidies.

4.5 Standard protocol configuration per target market.

We do not deliver a single rule configuration to all customers; instead, we tailor the standard configuration to the common baseline and usage habits of each target market.
Target market — Standard rule configuration — Rationale.
European municipal & outdoor — DALI-2 + Zhaga Book 18 + LoRaWAN / NB-IoT — The common baseline for European outdoor lighting.

Europaea premium officia KNX + DALI-2 + millimetroradioradar Aedificium automationis integrationis requisita; viridis aedificiorum certificationis schemata adiuvat

Septentrionalis Americae emporia et residencia Matter per Thread + Wi-Fi trans-ecosystematis interoperabilitas; communis media ad alta qualitas combinatio anno 2026

Sinica merces OneConnect / NearLink + Zigbee + NB-IoT HarmoniosOS ecosystematis et indigenorum protocollorum subsidium

Media Oriens, Sudorientalis Asia, Africa (municipalis) NB-IoT + LoRaWAN + 4G Cat.1 Urbana scala implementatio ubi retia fixa deficiunt

Aedificia historica et loca ubi conductus impossibilis est EnOcean + PLC Sine conductu, sine batteria, sine cura

Octo dimensiones ad mensuram factae
Dimensio Optiones disponibiles Directiva electionis
Bronefficientia Provida in classibus a 130 usque ad 230 lm/W; ultra 230 lm/W per evolutionem specificam proiecti. Determina classem ex pretio electricitatis et ex tempore recuperationis exigito; ultra 210 lm/W suadetur in regionibus cum pretiis altis.

Reproductio colorum Ra ≥ 80, Ra ≥ 90, Ra ≥ 95. Ra ≥ 80 pro magazinis industrialibus; Ra ≥ 90 pro locis sportivis, hospitibus et galeriis; Ra ≥ 95 pro scholis, locis puerorum et venditione praemio.

Temperatura coloris 2700 K, 3000 K, 3500 K, 4000 K, 5000 K, 6500 K. 2700–3000 K pro hotelibus et cubiculis dormitorum; 3500–4000 K pro aedibus habitabilibus, officiis et venditione; 4000–5000 K pro industria et viis; 3000 K saepissime utiturur pro viis municipalibus Europaeis ad pollutionem lucis minuendam.

Distributio photometrica Batwing, lensa praecisa, sublensa spiraliformis, lensa anti-glare Batwing pro viis et garagis parkingibus ad limitandum dispersionem lucis; lentes anti-glare pro locis sportivis ad regendam indicem glare; sublensae spiraliformes cum optica Fresnel pro spotis quae requirunt altam intensitatem centralem et fascem aequabilem

Gradus protectionis IP20, IP44, IP65, IP66: IP20 pro spatiis interioribus communibus; IP44 pro zonis siccis balneorum et culinarum; IP65 pro locis docci, officinis industrialibus et illuminatione viarum; IP66 pro locis sportivis et locis exterioribus exigentibus

Architectura driver: Driver luminarium alti rendimenti per singulum luminarium (95 %), aut alimentatio centralis DC (250 V ±20 V DC): Drivers per luminarium pro renovationibus; alimentatio centralis DC pro novis aedificiis et systematibus PV cum accumulatione

Regelinterface. Ćiu de 25 protokollorum in capitulo 4; multi-protocolum negotium supportatum. Configuratio standardis ad lineam basim mercati destinati adaptanda; portae ad conversionem protocolli addi possunt

Structura et manutentibilitas. Structura fontis lucis intercambiabilis, designum circulare, manutentio modularis. Configurari potest ut exigentiam Unionis Europaeae pro fontibus lucis intercambiabilibus (ESPR) implere possit, et spatium pro futuris incrementis fontis reservat

Possibilitates personalizationis opticae et structuralis:

Reflectoria cum sectionibus expansionis et reflexionis fasciculum dilatant et usum totalem lucis augent
Camarae mixtae cum interface obliquis efficienciam opticam et consistentiam coloris meliorant
Clausurae extremorum unibloc fusae, translucentes et non translucentes, pro outputo constante et uniformitate efficienciae totalis luminaris meliorata
Luminariae tabulares efficienciam totalem luminaris per distributionem optimatam chipporum, structuras micro-nano diffusorum et geometriam lentium augent
Anti-reflection coatings with alternating layers of silicon oxide and titanium oxide increase output intensity in the normal direction

Project verification capacity: we provide luminaire efficiency simulation and collaborate with DIALux to deliver a complete verification chain, including illuminance distribution charts, uniformity calculations, and energy consumption forecasts prior to order placement—thereby reducing on-site remediation work.

Reference data on energy-saving performance

6.1 The pattern behind the numbers

Customers wishing to estimate their own project benefit may refer to the layered pattern below. Achieved savings depend on the proportion of "unnecessary lighting hours" in the space: the longer a space remains unoccupied, the greater the savings attainable through smart control.
Environment type Indicative savings range Determining factor
Spatia technica, garagia parking 80%–97% Particulārē alta prōportiō horārum vacuārum; sensorēs possunt reducere lūcem ad nīhil prope

Frīgidāria, magazīna, centra distribūtiōnis 60%–90% Longae horae operis combinātae cum sensoribus intellīgentibus; loca 24-hōrārum maxime prōficiuntur

Officia, centra mercātōria, supermercāta 30%–70% Alta prōportiō horārum occupātārum; ōnēs sunt limitātae necessitāte servandī intensitātem lūcis

Scholae, hospitālia, galeriae 24%–60% Programmata praedīcibilia permittunt regulātiōnem tempore-bāsam, sed requīsīta pro CRI et intensitāte lūcis sunt alta

Viae urbānae, tūnnēlī, metrō 28%–70% Securitās nocturna servanda est, ergō ōnēs oriuntur praecipuē ex attenuātiōne programmātā; ultra 70% cum additā regulātiōne intellīgentī

Loca sportīva 50%–75% Rāra frequentia usūs sed altum potēntia per eventum; ōnēs totāles in cōstīs vitae 50%–70%

In the research phase, we first measure the actual occupancy profile of the site, then determine whether priority should be given to high-efficiency hardware replacement, smart control configuration, or both. This decision defines the optimal return on investment for the client.

6.2 Published project data from around the world (industry reference)

The following measured results are documented in published industry sources, ranked in descending order of savings. They show how comparable technical approaches have performed across different environments and can serve as a reference benchmark for clients estimating their own project benefits.
Project location Environment Scope Savings / consumption reduction Economic outcome
A national laboratory, North America Technical space — 97% —

A residential neighborhood, China Underground space — 95% —

A commercial complex, China Commercial 1.040 T8 smart tubes 93.5% Annual electricity saving of CNY 245,000

A business center, East China Office 256 T8 smart tubes 92% Verified by parallel metering

A parking garage, coastal area China Parking Garage 400 luminaires 92% —

A technology park parking garage, China Parking Garage — 89.7% (over 760 days) —

A cold chain company, North America Cold Storage — 87% 1.7 million kWh saved per year; payback period approx. one year

A city in Spain Municipal roads 2,795 streetlights 86.17% Total project investment EUR 1,608,800

A city in Germany Municipal roads 1,533 streetlights 82% EUR 210,000 saved per year; 400 tons CO₂ avoided

An Italian province and metropolitan area Public lighting — Above 80% Contractually guaranteed saving of 80.2%, with direct budget reduction of 35%

A university ice rink, North America sports venue — 73% USD 350,000 projected savings over ten years

A city in Germany, municipal roads — 5,080 streetlights — average power reduced by 67% — approx. 610,000 kWh saved per year; 480 tonnes CO₂ avoided

A textile factory, East China, industrial site — 862 luminaires — 67% — annual electricity costs reduced from CNY 123,000 to CNY 39,600; illuminance increased from 204 lx to 278 lx

A city in Estonia, smart street — first fully smart-regulated street — 65%–85% — maintenance costs reduced by approx. 50%

A city in Spain, municipal roads — 350 high-pressure sodium fixtures — power reduced by 65% — EUR 27,000 saved per year

A city in Croatia, municipal roads — 160 sodium lamps replaced by 150 LED — reduction above 65% — 157,305 kWh saved per year; payback period approx. 4.3 years

A city in Lithuania. Municipal lighting. More than 3,500 luminaires. Electricity costs reduced by 60%. Approximately EUR 120,000 saved per year.

A hospital, Eastern China. Healthcare. 7 T8 tubes and 2 panels. Tubes: 60%, panels: 58%. —

An industrial park, Eastern China. Municipal roads. 17,500 streetlights. Approximately 60%. Individual luminaire control and NB-IoT communication integrated.

A city in South Asia. Municipal roads. 48,524 streetlights. 53.76%. —

A city on the Baltic Sea. School. 13,000 luminaires. — EUR 120,000 saved per year.

A city center, China. Municipal roads. Approximately 150,000 luminaires. 40%. Illuminance increased by 122.3%.

A city shopping mall, China. Commercial complex. 150,000 m². 40%. Annual energy consumption decreased from 4.8 million kWh to 2.9 million kWh.

A city in France. Municipal roads. Sodium replaced by LED. — Annual electricity costs reduced by 75%.

Important note: all data in the table above come from published industry sources and concern third-party projects. They do not represent the project track record of Beaulighting (Zhongshan) Lighting Technology Co., Ltd. They are cited to demonstrate the performance range of comparable technical approaches across different environments. Case data and test reports from projects executed by our company are available upon request from our sales team.

6.3 Parallel metering: making savings verifiable

We determine project savings via parallel metering instead of theoretical calculation or estimation. Meters are installed in parallel at the same measurement point before and after renovation, and readings are taken by the client or a third party.

Hoc approchium verificationis compatibile est cum modello Contractus de Performantia Energetica (EPC-RG) quod in UE promovetur. Fontes publicati referunt unam provinciam Italicam et unam urbem magnam ad 80% plus conservasse electricitatem in renovatione luminis publici per EPC-RG, ubi una licitatio procentum conservationis 80,2% garantivit et reductionem directam praebuit in budgeto 35%.

Praesto sunt globales adfectiones servitii luminis (LaaS) et modelli "Paga ut Servas".

Facultates ad Compliantiam Exportationis

7.1 Occasio Mercati

In mercatus ubi pretia electricitatis alta sunt et sensibilitas ad impensas energiae magna, petitio pro efficientia luminis magis magisque a regulis ducitur quam solum ab initiativis clientium, quod occasionem mercati relativam praedictam creat.

Data publicata ab industria indicant circa 11 miliardum lamparum in Europa uti et illuminationem 8% energiae primariae consumi; substitutione omnium lamparum conventionalium per LED, circa €65 miliardum in pretiis energiae per annum et circa 51 millionum tonnarum CO₂ evitari possunt; et regula intelligentis illuminationis usque ad 80% pecuniam conservare potest comparata ad technologiam conventionalem.

Praedictiones publicatae ab industria aestimant mercatum Europaeum illuminationis LED circa USD 24,69 miliardum esse anno 2025, crescentem ab USD 25,86 miliardum anno 2026 ad USD 95,36 miliardum anno 2034, cum composito annuo incremento circa 15,5% pro annis 2026–2034; LED iam fere 90% partem totius Europaei mercatus illuminationis occupat. Hoc significat mercatus qui iam conversionem ad LED perfecerunt adhuc spatium manifestum habere pro secunda renovatione — a LED simplici ad combinationem LED alti redditus et regulorum intelligentium.

7.2 Tres regulamenta Unionis Europaeae et nostrae facultates correlatae
Regulamentum Dies initii Requisita principalia Nostra facultas correlata
ESPR (Ecodesign pro Sustentabilitate) Producta Regulamentum) 18 Iulii 2024 Sedecim criteria, inter quae sustentabilitas et reparabilitas; introductio Digitalis Passus Producti (DPP); fontes lucis debent esse substituendi, alioquin totum instrumentum ut "fons lucis" classificatur cum classe limitata tituli energiae; structura designi fontis lucis substituibilis disponibilis ad requisita ESPR implenda

Regulae ErP / SLR de efficacia energiae 1 Septembris 2021 LED directiva non infra 120 lm/W; non directiva non infra 140 lm/W; potentia in statu stand-by non supra 0,5 W; scintillatio SVM non supra 0,4 et Pst LM non supra 1,0; CRI non infra 80; duratio vitae L70/B50 non infra 30 000 horas; nostra linea ad mensuram altissimae efficaciae superat limina efficaciae; scintillatio, CRI et duratio vitae configurabiles usque ad normam

ErP-labelregulatio 1 septembris 2021 Nova septem-classis A–G labello, quod substituit prius usitatum A+++/A+ systema; registratio in EPREL-database et QR-codum generatio requiruntur. Nos adiuvari possumus clientes per EPREL-registrationis processum.

EPBD (Directiva de Performantia Energiae Aedificiorum) Ab anno 2028 aedificia non-residentialis cum potestate HVAC super 290 kW debent esse munita intelligentibus systematibus regulandae illuminationis, quae demand-response supportant. Interfaces demand-response in strato regulandi reservari possunt.

EPBD Ab anno 2030 ambitus applicationis dilatatur ad aedificia cum potestate super 70 kW; implementatio obligatoria systematum automationis et regulationis aedificiorum (BACS). Integratio BACnet/IP et Modbus TCP supportatur.

Tres regulamenta constituunt limen combinatum: ErP statuit minimum efficiens et scintillationis, ESPR statuit requisita pro commutabilitate et reparabilitate, et EPBD statuit requisita pro configuratione systematis regulandi. Admittere unum tantum eorum non sufficit ad accessum ad mercatum.

Nota importantissima de titulis energiae: secundum regulas titulorum currentes, minimum 210 lm/W requiritur pro classificatione A, dum 120 lm/W respondet ad praeteritam classificationem A++ quae nunc abolita est. Novus titulus elevavit limites per totam seriem, ita ut producta antea altissime efficiens automatico degradentur sub novo schemate. Noster linea specialis altissimae efficiens (210–230 lm/W) potest satisfacere requisito efficiens pro classificatione A.

7.3 Incentiva et canales emptionis a statibus membris

Germania. Modellos de kits de conversio LED convertunt luminaria iam existentia in LED alti efficacitatis; exempla publicata ostendunt reductionem consumi electrici minimi 50%, ubi subsidia nationalia pretium intra paucos annos compensare possunt. Lex de Aedificiis Energivora (GEG) requirit ut aedificia nova ad "Normam Efficiendi 55" satisfaciant, quod significat ut quaestus energiae primariae non plus quam 55% aedificii referentis sit. Subsidia pro PV Balconis (Balkonkraftwerk) usque ad EUR 500 attingere possunt.

Francia. Lex legem de pollutione lucis, quae ex die 1 Ianuarii 2019 in vigore est, ad luminaria publica et privata extra aedificia pertinet, et ad praecavendum consumum energiae superfluum et protegendum systemata naturalia spectat. Spatia commercialia obligata sunt signa luminosa directionis inter horam 1:00 et 6:00 noctis extinguere, et interruptores remoti operabilis installare, ut parati sint ad periodos penuriae energiae. Luminaria publica debent conformari normis NF C17-200 et EN 13201. Systema Certificatorum Conservationis Energiae (CEE) subsidium pecuniarium praebet pro innovationibus efficacioribus, praeter remissionem tributi societatis et creditum tributarium C3IV pro investitionibus industrialibus viridibus.

Italia. Planum PNIEC postulat ut systemata illuminationis publicae conversionem ad LED perficiant. Regio Lombardia subsidia usque ad 3 000 EUR pro projectis photovoltaicis cum accumulatione usque ad 20 kW offert. Systema publicum emptionis contratus cingentes continet pro illuminatione publica, quae suppeditationem electricitatis, conservationem, meliorationes energiae et functiones urbis prudentis includunt.

Hispania. Acceleratio depreciationis sine restrictione ad investitiones commerciales in systemata consumptionis proprii energiae renovabilis applicatur. Decreta administrativa de conservatione energiae limites climatizationis pro aedificiis publicis et emporiis statuunt: maxime 27 °C pro refrigeratione et minime 19 °C pro calefactione; praeterea illuminatio fenestrarum post horam 22:00 extinguenda est. Programma FEDER 250 EUR per kWh pro systematis accumulationis batteriarum offert. Exempla publicata urbem referunt quae 350 systemata natrii ad altam pressionem per LED substituit, potentiam 65 % minuit, et 27 000 EUR per annum economizat.

Suecia et terrae Nordicae. Subsidia pro systematibus solaribus aucta sunt ab 15% ad 20%, inclusis materiis et pretio laboris. Auxilium pro renovationibus ad efficientiam in domibus unifamilialibus incrementum fecit, et divisio energiae inter aedificia permittitur.

7.4 Definitio producti pro mercatus cum pretiis altis

Per coniunctionem exigentiarum regulativarum cum incitamentis disponibilibus, specificatio nostri producti pro merco Europaeo ita configurari potest:

Efficientia totalis luminariae non minor quam 210 lm/W, ut requisitis certificati A pro energia satisfaciat
Structura fontis lucis intercambiabilis, ut requisitis ESPR satisfaciat
Flicker SVM non superior quam 0,4 et Pst LM non superior quam 1,0; CRI non minor quam 80
Duratio vitae L70/B50 non minor quam 30.000 horae, configurabilis usque ad 50.000–100.000 horae
Potentia in statu stand-by non superior quam 0,5 W
Stratum regulae quod utrumque DALI-2 et Matter per Thread sublevat, secundum Zhaga Book 18
Interfacs responsionis ad petitionem reservata, ut ex 2028 requisitis EPBD satisfaciat
Optional PV storage interface and centralized DC power supply
Support for EPREL database registration

Three accessible market entry routes: the German LED retrofit kit model corresponds to renovation of existing luminaires; the Italian PNIEC requirements and framework contracts for public lighting correspond to municipal volume procurement; the French light pollution decree and remote switching requirements correspond to regulation-driven replacement.

Collaboration models and delivery process

8.1 Three collaboration models
Customer Investment Model Indicative payback period Suitable customers
Direct purchase One-time payment for goods 6 months to 2 years for industrial environments; 1–2 years for commercial; 3–5 years for sports venues Customers with available capital who wish to own it actively

Energy Performance Contract (EMC) No upfront investment; costs recovered from a share of energy savings; payback as short as 4–6 months for commercial lighting, typically 1–3 years total; for customers preferring not to tie up cash flow and wishing to pay from savings

Lighting as a Service (LaaS) Service-fee-only contract; covers full renovation, maintenance, and upgrades; chain retailers, multi-site customers, public institutions

Credibility of the EMC model rests on parallel metering: meters are installed in parallel at the same measurement point before and after renovation, so the savings percentage is determined using meter data. We provide 5–10 years warranty (as specified in the contract), together with cloud-based remote monitoring.

8.2 Four-step delivery process

Gradus 1 — Investigatio loci. Mensurae profili occupationis realis, intensitatis luminis praesentis et potentiae, condicionum distributionis, et graduum interference ambientis. Hoc gradus determinat utrum projectum prioritatem debeat dare substitutioni hardware altius efficacis, configurationi intelligentis regulandi, vel utrique.

Gradus 2 — Propositio designi. Praebet simulationes intensitatis luminis DIALux, calculationes uniformitatis, resultata simulationis efficaciae, prognoses consumptionis energiae, et analysin temporis recuperationis investitionis, cum specificatio omnium octo parametrorum ad mensuram: classis efficaciae, CRI et temperatio coloris, distributio photometrica, gradus protectionis, architectura driver et protocolum regulandi.

Gradus 3 — Verificatio et experimentatio. Experimentum per specimen et confirmatio a cliente, collectio datum basilarum per mensuras parallelas, et experimenta in operatione inter protocolum regulandi et systemata aedificiorum praesentia.

Gradus 4 — Administratio diuturna et conservatio. Supervisio nubis remota, notificatio automatica defectuum, regulatio grupporum per applicationem, relationes periodicæ de conservatione, et servitium garantiarum ut in contractu definitum.

Parametri technici conversi in valorem clientis
Parametrum tecnicum Valorem ex perspectiva clientis Qualificatio
210–230 lm/W fons lucis (linea ad mensuram) Impensae electricae multo minores pro eadem claritate Valores dati confirmati per relationem experimentalem tertii partis

95% efficacia driveris Eliminat perditas occultas in phasibus alimentationis Architecturae discretæ conventionalis perdunt circa 7%–9%

60% conservatio systematis (valorem ad quod tenditur) Plurima projecta commercialia et industrialia recuperant investitionem suam intra 1–2 annos Conservatio realis determinata per investigationem loci et metitionem parallelam metricam

Subtenut design. Prolongat durata de vita del luminaire e diminuit frequenza de substitution. Controllo a basso currente pote prolongar durata de vita usque ad plus de quinque annos.

Alimentatione DC centralisate. Proiectus de constructione nove salva extra 15%–20% con meliorate securitate electrica. Apparatus pro distributione DC costa circa 1,5 tempore plus quam illos pro AC.

Interfacie DALI-2. Conformi al linea base commun pro projectus municipal in Europa. DALI-2 con Zhaga Book 18 es le linea base commun pro illumination externe in Europa.

Interfacie de requesta-responsa. Correspondet con requisitos de configuration pro grandes edificios europee ab 2028. Applicabil a edificios non-residentiale con potentia HVAC super 290 kW.

Structura de fonte luminose intercambiabile. Correspondet con requisitos EU ESPR e conservat spatium pro actualisationes de fonte. Fontes non-intercambiabile limita le classe de etiquetta energetic del luminaire integre.

Mensuratio parallela. Parservationes definitae per datos metri, non per aestimationem. Mensuratio parallela ad idem punctum ante et post renovationem.

Contractum EMC. Nulla praesumptio investitionis; solutio ex partibus paratis. Basis divisio redituum; condicionibus ut in contractu definitis.

garantia 5–10 annorum. Hanc totam cyclus contractus operis tegit. Tempus exactum ut in contractu definitum.

Sensoria radaris AI. Illuminatio in garage parking activatur ad petitionem; potestas media operationis reducibilis ad 2–3 W. Dependet a gradu interference localis et adaptatione.

Autonomia decentralisata luminarium. Nulla porta necessaria; illuminatio manet operativa durante intermissione rete. Computatio edge responsio sub 0,5 secundis.

Integratio PV cum accumulatione. Illuminatio mutat statum ab onere consumptivo ad nodum energiae dispatchabilem. Requirit investitionem in PV et accumulatione.

Contactus

Beaulighting (Zhongshan) Lighting Technology Co., Ltd.
zhongshan Beaulighting Technology Co., Ltd.

Website: beaulighting.com
E-mail: [email protected]
WhatsApp / Tel: +86 138 1840 3203
Adres: Guzhen, Zhongshan, provincia Guangdong, Sina

Pro folia technica productorum, relationes probationum tertiorum partium, exemplaria certificationum, aut offertae proiecti, adhibete aequipe nostrum venditionis per unum ex canalibus supra enumeratis. Consilium ad tempus praebere possumus intra 48 horas (tempus verum responsionis pendet ab communicatione).

Renuntiatio et notificatio iuris proprietatis

Technical specifications. Efficiency, driver efficiency, lifetime, protection rating, color rendering, and other technical parameters listed in this document are design target values and available configuration ranges. Delivered values shall conform to the technical specification jointly confirmed by both parties, sample measurement data, and third-party test reports. Efficiency data distinguish between measured luminaire values and nominal package values; measured luminaire efficiency is typically 20%–30% lower than nominal package efficiency. Efficiency above 230 lm/W depends on low-current driving conditions, and 280 lm/W represents a technical maximum verified under laboratory conditions; neither constitutes a commitment for series production delivery.

Energy-saving performance. Energy savings ranges stated in this document are indicative ranges for various environments. They are influenced by the efficiency of the existing lighting installation, actual on-site operating hours, depth of control configuration, and quality of management and maintenance, and do not constitute a commitment regarding energy-saving performance for any specific project. The figure of "60% energy saving" is a target value for most commercial and industrial scenarios under a combined approach of high-efficiency hardware replacement and smart control configuration. Actual savings for a specific project must be determined by site survey results and parallel metering.

Fontes de datos. Los datos del proyecto en el capítulo 6, los datos de mercado y la información normativa en el capítulo 7, y todo el contenido de este documento identificado como "datos sectoriales publicados" o "ejemplos publicados" provienen de fuentes sectoriales públicamente disponibles y registros de proyectos de terceros. Se citan únicamente para ilustrar el desempeño de enfoques técnicos comparables en distintos entornos. No representan el historial de proyectos de Beaulighting (Zhongshan) Lighting Technology Co., Ltd., ni constituyen una aprobación de la información de proyectos de terceros. Los datos de casos y los informes de ensayo de nuestros propios proyectos están disponibles con nuestro equipo de ventas.

Regulationes et certificationes. Referentiae in hoc documento ad EU ESPR, ErP/SLR, EPBD et ad mensuras statuum membrorum tantummodo praebentur ut clientibus adiuvetur ad requisita aditūs ad mercatum in suis mercatus destinatarum intellegenda, et non constituunt consilium iuridicum. Utrum productum in certo mercatu introduci possit pendet ex certificatis, registrationibus, et resultatis experimentorum realiter acquisitis. Certificationes a nostra societate possessae probantur per certificata originalia; nulla certificatio quae in hoc documento non recensetur asseritur. Clientes debent versionem praesentem et applicabilitatem regulorum pertinentium ante inscriptionem vel emptionem verificare.

Trademarks. DALI, DALI-2, D4i, KNX, Matter, Thread, Zigbee, Bluetooth, Wi-Fi, Z-Wave, EnOcean, NB-IoT, LoRa, LoRaWAN, DMX512, BACnet, Modbus, DIALux, Zhaga, EPREL, ESPR, ErP, EPBD, LSTM, MQTT, CoAP, and all other protocol names, standard names, and organization names appearing in this document are trademarks, service marks, or registered standard designations of their respective owners. They are used solely to describe product compatibility and available technical configuration options, and imply no affiliation, sponsorship, authorization, or certification relationship between Beaulighting (Zhongshan) Lighting Technology Co., Ltd. and those trademark owners, standardization organizations, or certification bodies.

Copyright and permitted use. Copyright of this document belongs to Beaulighting (Zhongshan) Lighting Technology Co., Ltd. Customers, distributors, and engineering offices are welcome to use this document for product selection, project tendering, and internal training, provided that the content remains complete and the technical parameters and disclaimers remain unchanged. Without written permission, the technical parameters in this document may not be used in comparative advertising, and disclaimer sections may not be removed or modified.

Published: September 2026 Version: V1.1 Document type: External marketing material