high-Efficiency LED Custom Lighting Fixtures and Intelligent Control Solutions · Zhongshan Beaulighting Technology Co., Ltd. · Beaulighting

luminous-Efficiency LED Custom Luminaires and Intelligent Control Solutions

zhongshan Beaulighting Lighting Technology Co., Ltd. · Beaulighting

high-Luminous-Efficiency Custom Light Sources · 95% Driver Conversion Efficiency · System-Level Energy-Saving Solutions · 20 Application Environments · 25 Intelligent Control Protocols

i. About Beaulighting

zhongshan Beaulighting Lighting Technology Co., Ltd. (Beaulighting) is a manufacturer specializing in high-luminous-efficiency LED custom luminaires and intelligent control solutions, serving high-power-consumption sectors including commercial, industrial, municipal, sports, agricultural, and data center applications.

our delivery model is customization—not off-the-shelf catalog products. Clients may freely configure specifications across eight dimensions—luminous efficiency, color rendering, correlated color temperature, light distribution, ingress protection rating, driver type, control interface, and structural serviceability—according to project requirements, and receive end-to-end services from on-site survey and scheme design to prototype validation and long-term operation & maintenance.
project · Content
company Name · Zhongshan Beaulighting Lighting Technology Co., Ltd.

brand · Beaulighting

business Scope · High-Luminous-Efficiency LED Custom Luminaires · Intelligent Lighting Control Systems · Lighting Energy-Saving Retrofit Solutions

modus servitii: Emptio pretii pleni / Contractus gestiones energiae (EMC) / Illuminatio ut Servitium (LaaS)

mercatus destinatus: Europa, America Septentrionalis, Medius Oriens, Asia Sudorientalis, Asia Meridionalis, America Latina, Africa

pagina webis: beaulighting.com

e-mail contactus: [email protected]

WhatsApp / Telephonum: +86 138 1840 3203

certificationes producti: CE, RoHS, ETL; et reportus examinis UL praebentur (numeri certificationis pro petitione suppeditantur)

situs productorius et capacitas annua: Situs productorius: Zhongshan, urbs antica, provincia Guangdong, Sina; valor productus annuus approximative 2.5 miliardos renminbi

secunda: Quattuor indicatores technici principales

2.1 Efficiens lucis per gradus: ad conditiones proiecti personaliter adaptatur

nos quattuor gradus solutionum luminis praebemus; clientes secundum pretia electricitatis et tempus recuperationis investimenti eligere possunt.
nivel de eficacia luminosa, natura de fornimentum, usus aptus
130–180 lm/W: linea productorum standard, fornimentum massivum et celerem possibilem; usus in fabricis industrialibus communibus, magazinis, et garaginis subterraneis

180–210 lm/W: linea productorum standard et ad mensuram paranda; usus in complexibus commercialibus, aedificiis administrativis, scholis, et hospitilibus

210–230 lm/W: linea ad mensuram pro altissima efficacia luminosa; valor fornitus confirmatur per reportum probationis ab tertio; usus in projectis quae exigunt efficaciam energiae gradus A in Unione Europaea, in magnis viis municipalibus, et in gymnasiis

230–280 lm/W: limis technologicus verificatus in laboratorio; non promittitur pro productione massiva; pro projectis idoneis, evolutio specialis negotiari potest; usus in regionibus ubi pretium electricitatis altum est, in centris datorum, et in locis remotis sine connexionem retis

duae notae de datis efficaciae luminosae: rogamus clientes ut has observent dum eligunt productum

primum, efficacia luminosa supra 230 lm/W pendet a conditionibus impulsum electricum infimum. Nos adhibemus strategiam "equus magnus vehit currum parvum": impulsum electricum per singulum diodum luminosum minuimus, ut efficaciam luminosam augemus, temperaturam iunctionis deminuamus, et vitam usus ad plus quam quinque annos extendamus. Ergo, in fase conceptionis solutionis, impulsum electricum determinamus secundum realem necessitatem potentiae in loco, non secundum valorem nominalem maximae efficaciae luminosae.

secundo, efficacia luminis totalis lampadis, quae in experimentis realibus mensuratur, saepe 20%–30% minor est quam efficacia luminis singulorum diodorum, quae in specificatis technicis indicatur: hoc est lex naturalis industriae illuminationis. Omnes nostrae quotatio et descriptiones technicae fundantur in valoribus realiter mensuratis in lampadibus completis, non in valoribus theoricis diodorum, ut controversiae de efficacia luminis in tempore acceptationis operis evitantur.

2.2 Efficiens impellens (95%) et alimentatio directa centralis

efficientia conversionis in parte impellente ad 95% pervenire potest. Status quo in industria requirit ut efficientia conversionis alimentationis non minor sit quam 90%; 95% igitur significat quod damnum energiae in parte alimentationis ad minimum fere redigatur.

huius numeri pretium in contextu damni systematis intellegendum est: in architectura tradicionali separata damnum conversionis energiae est circa 7%–9%; alimentatio est secundus locus consumi energiae, post damnum calorificum a fonte luminis. In locis ubi operationes continuantur per 24 horas — ut in magazinis, frigoriferis, centris datorum — differentia 5% in efficientia impellente, per totam vitam operationis, magnam differentiam in pretio electricitatis generat.
architectura alimentationis — Effectus conservandi energiam — Conditio applicabilitatis
impulsor efficax singularis lampadis (non isolatus / architectura resonans LLC) — Efficientia conversionis impellentis 95% — Mutatio aedificiorum iam existentium, sine immutatione systematis distributionis electricitatis

direct current centralized power supply (250 V ± 20 V DC): achieves additional energy savings of 15–20 % on top of high-efficiency driving, while also enhancing electrical safety. Suitable for new construction projects or retrofit projects where the electrical distribution system can be modified; compatible with photovoltaic and energy storage systems.

the principle of DC centralized power supply is to eliminate individual AC–DC converters inside each luminaire and instead supply power via a centralized DC bus, thereby reducing cumulative losses from multiple conversion stages. Its cost constraint is that DC distribution equipment costs approximately 1.5 times that of AC equipment; therefore, we recommend this architecture for new projects where centralized supply is feasible, and for existing building retrofits, we apply high-efficiency single-luminaire drivers—delivering an optimal return-on-investment solution tailored to each project’s specific conditions.

2.3 System-level energy savings: three independent sources combined

our energy-saving solution comprises three mutually independent sources. Even if the customer adopts only one or two of them, they still achieve the corresponding proportional energy savings.

fons unus · Economia energiae per substitutionem fontis lucis. Substituendo LED ordinarios per productos LED altius efficaces, etiam si LED iam in loco utuntur, spatium secundarium magnificum pro economia energiae obtineri potest; efficacia lucis LED altius efficacium est inter 180 et 240 lm/W, et economia energiae respectu LED ordinariorum est circa 20%–75%, quae variat secundum efficaciam energiae productorum praecedentium.

fons secundus · Economia energiae per controllem damni systematis. Per quattuor methodos technicas damnum transmissionis minuitur: (a) electio perlarum lucis ad currentem infimam (efficacia lucis ad 0,2 W superior est quam ad 1 W); (b) usus perlarum lucis sub nominali incrementat efficaciam lucis de 10% ad 15%; (c) substitutio tabulae diffusae opacae polycarbonatis per tabulam diffusam altius transparens incrementat efficaciam lucis de 10% ad 12%; (d) adhibito alimentatore efficiens non-isolato vel architectura resonantis LLC, cum efficacia conversionis impulsum 95%.

fons tertius · Economia energiae per gestionem intelligentem. Per perceptionem et algoritmos tempus illuminationis inutilis minuitur; data publica industriae ostendunt rationem totalem economiae electricitatis attingere 60%–95%, quae variat secundum proportionem temporis sine hominibus in scenis specificis.

limitations on the claim "60% energy saving": 60% represents an achievable target for most commercial and industrial applications under the combined approach of "high-luminous-efficiency hardware replacement + intelligent control configuration", not a universal guarantee for all projects. Actual energy savings depend on four variables: the energy efficiency level of the original lighting system, the real-world usage duration profile at the site, the depth of control-system configuration, and operational maintenance execution. We determine actual energy savings per project via parallel electricity-meter measurement: meters are installed in parallel at the same metering point before and after retrofitting; readings are taken by the client or a third party; energy savings are verified by meter data—not estimation.

2.4 Longevity and Reliability Design

the true cost of a lighting project lies not in the purchase price, but in replacement and maintenance. We place reliability design on equal priority with luminous efficacy.
reliability Dimension | Common Industry Issues | Our Design Control Points
gestio termica: In conversione optoelectronica LED, 40%-60% energiae electricae convertuntur in calorem; si calor non removetur cito, efficiens luminis decrescit. In LED potenter potentibus, circa 70% energiae input convertitur in calorem; solutio tradicionalis cum tabulis aluminium et aletis refrigerationis iam appropinquat limitem resistentiae thermalis in lampis compactis. Structura refrigerans ex allumino altius conductivo adhibetur, et structura lampae cum emissione laterali minuit effectum temperaturae super fontem luminis et componentes opticos, stabilizans effectum luminis.

reliabilitas alimentationis: Aliquae lampae praemature deficiunt propter drift thermicum; in MOSFET communibus, resistentia conductiva ad altas temperaturas potest variare usque ad 10%, quod influentiam habet super stabilitatem luminis et efficaciam energiae. Designum derating, cum filtratione RC, rectificatione et protectione tuborum conductorum, impedit influxum currentis et tensionis nimium altorum in circuitum ducens.

consistentia modulorum: Moduli cum pluribus chip parallelis facile creant locos calidos propter differentias tensionis. Classificatio chip et optimizatio structurae extensionis currentis minuunt tensionem ducens, augent efficaciam luminis et consistentiam.

decrementum luminis et duratio: Norma industrialis pro duratio est L80 (decrementum luminis non ultra 20%) non minus quam 50 000 horarum. Secundum minimum obligatorium Unionis Europaeae L70/B50 (decrementum luminis non ultra 30%, cum probabilitate defectus 50%), initium est 30 000 horarum; secundum requisita projectus, configuratio potest esse inter 50 000 et 100 000 horarum.

accuratio perceptiva: algoritmi perceptivi intelligentes non sufficere robustitatem in scenariis fortissimae interference; data publica industriae ostendunt tassum falsorum positivorum usque ad 28,4%. Combinatio radaris millimetrorum et algorithmorum AI, parametri adaptati secundum intensitatem interference in loco, ut evitetur situatio "non accendendum ubi debet, non extinguendum ubi debet".

in parte garantiae, praebemus garantiam 5–10 annorum et servitium supervisionis remotae per platformam nubis (annos exactos conveniuntur in contractu). Haec duratio garantiae congruit cum communibus cyclis contractuum pro proiectis Europaeis.

tertio: 20 locorum applicationum

3.1 Index locorum et referentiae beneficiorum
categoria loci | Scenarium specificum | Intervallo referentiae rationis conservationis energiae | Requisita metrica principalia | Gradus efficaciae luminis recommendatus
commercium retail | Centra commercialia et complexa | 40%–59% | Densitas potestatis illuminationis (LPD) non superior 2,1 W/m² (sub illo lumine 300 lx) | 180–210 lm/W

commercium retail | Supermercati et catenae retail | 20%–75% (comparatum ad LED ordinarios) | Efficacia luminis 180–240 lm/W; colorum fidelitas alta ad repraesentationem colorum mercium | 210–230 lm/W

commercium retail | Fenestrae et signa tabernarum | Sub regulamento clausurae temporali | Necesse est supportare activationem/deactivationem remotam | 180–210 lm/W

officium | Aedificia officiorum integra | 50%–70% | Luminaria planae ≥190 lm/W; vestibula cum sensoribus | 190–230 lm/W

officium et centrum negotiorum et institutiones professionales: adiunctio 92% probata per mensuram parallelae tabulae electricae; 210–230 lm/W

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

medicina: hospitales; 58%–60%; sine pulsu, alta fidelitas coloris, configurabilis secundum normam RG0; 180–210 lm/W

cultura: salae exhibitionis et spatia culturalia; 23,8%–43,8%; consistentia coloris lucis, Ra ≥ 90; 180–210 lm/W

aedificia sportiva: gymnasia, piscinae, campos futballi, arenas, campos tennisi; 50%–75%; maxima illuminatio verticalis 2000 lx, Ra ≥ 90, valor glare non ultra 30, IP66; 150–220 lm/W

industria: officinae fabricarum et magazini; 50%–70%; IP65/IP66, Ra ≥ 80; 180–230 lm/W

industria: officinae textilium et levis industriae; circa 67%; uniformitas altioris illuminationis, contra pulverem; 200–230 lm/W

industria: frigorifera et catenae frigidae; usque ad 87%; resistentia frigori, contra humorem, contra condensationem; 200–230 lm/W

logistica: areae logisticae et centra distributionis; 32%–38%; lucernae altissimae, sensus intelligentis; 200–230 lm/W

municeps et transitus: viae urbanae; aggregatum superat 70%; dux normae nationalis Sinicae gradus I non infra 170 lm/W; 170–230 lm/W

transitus municipalis: Tunnels et stationes subterraneae metro. Uniformitas alta (35%–40%), antilux, vita longa. 180–210 lm/W

transitus municipalis: Garagines subterraneae et areae stationandi. Sensus radaris AI (80%–95%), potestas media operativa redigibilis ad 2–3 W. 180–230 lm/W

transitus municipalis: Areae habitatorum et viarum. Usque ad 95% controllo per singulum lucernam, regulatio pollutionis luminis. 170–210 lm/W

agricultura: Serres intelligentes et fabricae plantarum. Reductio consumi circa tertiam partem versus lampades natrii alti pressionis. Efficiens photonica 3,1–4,6 μmol/J, spectrum personalizabile. Spectrum speciale

centra data: Aulae apparatus et aulae machinarum. Usque ad 97%. Illuminatio prope nulla in temporibus sine hominibus. Plus quam 230 lm/W, specialiter evolutum

regiones extra rete: Lucernae solares, insulae, regiones metallicae. Applicabilis in regionibus sine electricitate urbana. Accumulatoria litii ferrophosphatica, integratio luminis et accumulationis. 170–230 lm/W

intervallo referentiae pro reductione consumi in tabula superiori derivatur ex fontibus publicis sectorialibus et ex observationibus realibus in projectis technicis similibus, ut auxilium praebere possit clientibus ad praedictionem intervalli fructuum. Non est promissio de performance nostra. Reductionem consumi pro projecto specifico determinat exploratio in situ et mensuratio per contorem electricum parallelo.

3,2 Puncta principalia scenariorum

commercial and public buildings. Supermarkets, office buildings, schools, hospitals, and exhibition halls share long lighting hours, large areas, and high electricity tariffs—thus yielding substantial absolute energy savings and short payback periods. Replacing conventional 12–15 W LED downlights with 5.5 W downlights in mall passageways achieves ~59% energy savings; equipping an entire office building with panel lights ≥190 lm/W and motion-sensor lighting for corridors reduces total energy consumption by 50–70%. Schools and hospitals impose the strictest requirements on flicker, color rendering, and blue light—so we customize solutions meeting Ra ≥90 and optionally RG0 compliance.

sports and large venues. Gymnasiums, swimming halls, football fields, arenas, and tennis courts represent a category of applications with high technical barriers and high unit costs. LED luminous efficacy ranges from 130 to 185 lm/W—significantly higher than metal halide lamps’ 65–100 lm/W. At equivalent illuminance, installed power is only 50%–70% of that required by metal halide lamps, yielding overall energy savings typically between 50% and 75%. Lighting quality requirements for venue applications are stringent: instant start-up, flicker-free operation, high color rendering index (Ra ≥ 90), and stable correlated color temperature are mandatory to meet HD broadcast demands for vertical illuminance (up to 2000 lx) and uniformity. Our venue-grade specifications include: anti-glare lens transmittance exceeding 98%, luminaire utilization efficiency above 95%; compared to conventional 1000 W metal halide lamps, LED fixtures require only 300 W per unit, with glare rating (UGR) no higher than 30; illuminance uniformity no less than 0.7, and glare index (GR) no higher than 35. For example, eight standard tennis courts reduce annual electricity consumption from approximately 83,000 kWh to 31,000 kWh. Initial LED investment is about 1.5–2 times that of metal halide lamps, yet total lifecycle cost savings reach 50%–70%; payback period for retrofitting medium-sized football fields is typically 3–5 years.

industria et logistica. Ratio generalis conservationis energiae post substitutionem saepe inter 50% et 70% est; tempus recuperationis investitionis inter sex menses et biennium variat, quod est brevissimum inter omnes scenas. Gradus protectionis plerumque sunt IP65/IP66; index coloris saepe non minor est quam 80; optice distributio luminis formae chiropterinae aut lentilae praecisae adhibetur. Frigoriferia sunt maxime idonea ad demonstrandam valorem intelligentis regulacionis in industria: casus publici sectoris ostendunt consumum luminis posse minui usque ad 87%, et tempus recuperationis investitionis esse circiter unum annum. In campo logistico et depositario, data sectoris indicant modificationem illuminationis depositi posse minuere totalem impensam energiae usque ad 75%. Nostri moduli illuminationis industrialis retinent 97% efficaciam luminis etiam in condicionibus extremis.

municipal and transportation infrastructure. LED streetlights reduce energy consumption by 50–80% compared to traditional high-pressure sodium lamps, with luminous efficacy increased to over 160 lm/W; when integrated with intelligent dimming systems, overall electricity savings exceed 70%. China’s 2025 updated national standard for road lighting reclassifies energy efficiency grades from three to five levels: Level 3 (minimum entry requirement) mandates luminous efficacy of no less than 120 lm/W, while Level 1 (top-tier “pioneer” level) requires no less than 170 lm/W. The evaluation system has shifted from focusing solely on source luminous efficacy to “application-optimized efficacy”, emphasizing effective utilization of optical energy in real-world scenarios—meaning optical distribution design accuracy is now equally critical as the luminous efficacy value itself. Underground parking garages represent a municipal application where energy savings are especially pronounced: occupancy is absent for most of the time, and AI radar sensing enables lighting power to be reduced to an average operational level of 2–3 W.

agriculture and special applications. The efficacy unit for agricultural lighting is μmol/J, not lm/W. Light source efficacy tiers: high-pressure sodium lamps ≈ 1.5 μmol/J; standard LED ≈ 2.8 μmol/J; quantum-dot LED up to 4.1 μmol/J; horticultural-specific LED up to 4.6 μmol/J. Compared to high-pressure sodium lamps, LED reduces energy consumption by ~one-third and generates significantly less heat—e.g., a 320 W LED emits 130–160 W of heat, whereas a 600 W sodium lamp emits 420 W—directly lowering greenhouse cooling energy demand. We customize spectral recipes per crop type. Data centers and equipment rooms are application categories with outstanding energy savings; publicly reported industry data shows up to 97% efficiency. Furthermore, our high-efficacy technology extends to visible-light communication (Li-Fi), using high-frequency LED flickering to transmit data—offering electromagnetic interference immunity and zero signal leakage, making it suitable for defense, medical, and industrial IoT applications requiring strict confidentiality and robustness against interference.

iV. 25 intelligent control methods

4.1 Wired control protocols (9 types)
no. Protocol Technical features Individual lamp addressing Status feedback Recommended application
1 0–10 V analog dimming: low cost, wide compatibility, high precision; requires additional signal wiring, synchronous dimming for luminaires on same circuit; no support; none; retrofit of existing buildings with limited budget

2 DALI / DALI-2: dedicated digital lighting standard (IEC 62386), two-wire bus, bidirectional communication, simple wiring, multi-brand compatibility; limited capacity per bus; supported, up to 64 addresses per bus; supported; baseline for commercial buildings and European municipal projects

3 D4i: extension of DALI-2 enabling intelligent luminaire data acquisition and energy metering; supported; energy metering supported; projects requiring energy consumption reporting and carbon accounting

4 DALI+: supports wireless / IP transport, extending DALI semantics into wireless networks; supported; supported; wireless retrofit of existing DALI systems

5 DMX512: high-speed communication (250,000 bps), excels at RGB color changing and dynamic effects; unidirectional communication, no status feedback; not supported; events lighting shows, landscape illumination, cultural & tourism projects

6 TRIAC dimming: no extra wiring required, low cost; flickering likely at low brightness levels; not supported; not supported; retrofit of existing switches in residential and small commercial spaces

7 KNX International standard for building automation, distributed architecture, supports multiple physical layers, scalable to tens of thousands of devices, integrates lighting, HVAC, and security; higher initial cost and more complex commissioning — Supported — Supported — High-end office buildings, public buildings, projects requiring HVAC and security integration

8 BACnet Object-oriented protocol for building automation, supports cross-subnet communication and integration with KNX and Modbus — Supported — Integration into unified building management platforms, BAS system integration

9 RS485 / Modbus TCP Shielded twisted-pair cabling, stable and reliable, strong interference resistance; wiring required — Supported — Industrial environments, PV + storage system integration

4.2 Wireless control protocols (12 types)
no. Protocol Technical features Gateway required? Recommended application scenarios
10 Matter Application-layer standard, runs over Thread, Wi-Fi, or Ethernet; enables cross-brand ecosystem interoperability, local control available during network outage — Depends on underlying transport layer — Cross-ecosystem retail channels, residential and light commercial projects

11 Thread Low-power IPv6-based mesh self-healing network, latency under 100 ms, high security — Requires border router — Large residences, mid-to-high-end buildings

12 Zigbee low-power Mesh: high stability; battery life 1–5 years; moderate cross-brand compatibility; gateway required; whole-home smart control, unified management for chain stores

13 Bluetooth Mesh: lower cost; direct smartphone control; limited wall-penetration capability; complex large-scale network management; no gateway needed; commercial buildings, offices, small-to-medium retrofits

14 Wi-Fi: direct connection to router; high speed; higher power consumption; network congestion with many devices; no gateway needed; individual lamp control; retail and e-commerce channels

15 Z-Wave: low-cost, low-power RF technology; indoor coverage ~30 m; gateway required; residential and small commercial spaces

16 EnOcean: energy-harvesting based; switches generate their own power; battery-free, maintenance-free; gateway required; historic buildings or old structures where wiring is impossible

17 NB-IoT: city-scale, large-scale, low-power wide-area network; no gateway needed; municipal streetlight single-lamp control

18 LoRa / LoRaWAN: campus-level self-organizing network; long coverage range; gateway required; campuses, outdoor lighting

19 4G Cat.1: no wiring required; high real-time performance; no gateway needed; temporary venues, sports event sites, remote industrial locations

20 PLC Electric Power Line Carrier: Uses existing power lines for transmission, eliminating need for additional wiring; susceptible to power grid noise interference. No wiring required for streetlights and retrofitting of old buildings.

21 OneConnect / StarFlash: Supports HarmonyOS ecosystem and proprietary protocols, enabling cross-brand interoperability. Deployment depends on solution. Targeted at China market projects.

4.3 Sensing and Algorithm Capabilities (4 Types)

protocols serve only as transmission channels; intelligent user experience of luminaires stems from sensing and decision-making capabilities.
capability Category — Technical Content — Energy-Saving Contribution
ambient and Human Sensing — Millimeter-wave radar enables fine-grained energy-and-carbon management per luminaire; AI-powered radar sensing activates lights upon human presence and deactivates them after departure. Underground parking garages achieve 80%–92% overall energy savings; average operating power reduced to 2–3 W.

AI Prediction Algorithms — LSTM algorithms forecast pedestrian flow, enable adaptive dimming, and support dynamic energy consumption management. Overall electricity savings range from 60% to 95% (depending on proportion of unoccupied time per scenario).

natural Light Integration — Artificial lighting output automatically adjusted based on daylight intensity; power reduction prioritized near windows; in agricultural applications, enables timed light-formula control. Additional energy savings in office and school settings; greenhouse systems also benefit.

remote operation and maintenance APP: remote group control, automatic fault alarm, cloud platform remote monitoring — reduces inspection and manual maintenance costs

decentralized single-lamp autonomy is the current technical direction: each lamp possesses independent decision-making capability without requiring a gateway; combined with millimeter-wave radar and LSTM algorithm, it achieves comprehensive energy saving of 80%–95%, with edge computing response under 0.5 seconds. Its value extends beyond reducing gateway cost — more importantly, it alleviates interoperability challenges caused by protocol fragmentation: cross-protocol coordination is completed at the edge device level, eliminating dependence on a centralized upper-layer platform.

cloud–edge–device architecture ensures offline operation and millisecond-level response: even during network interruption, local lighting logic continues operating normally, and data is automatically backfilled upon network recovery. We support IoT-based lighting networks compatible with protocols including MQTT, CoAP, and BACnet, enabling integration and data exchange with Building Automation Systems (BAS) and environmental & infrastructure monitoring systems.

4.4 Selection among three system architectures
architecture type | Advantages | Limitations | Target customers
centralized (gateway + bus): visual debugging, clear fault localization; gateway is a single point of failure, scalability limited by bus capacity; suitable for individual buildings with well-defined project scope

decentralized (lamp-autonomous): no gateway required, edge-side autonomous decision-making, cross-protocol coordination, highly scalable; slightly higher per-lamp cost; suitable for large campuses, multi-building sites, and phased construction projects

integrated light-and-storage: lighting transforms from energy consumer to dispatchable energy node, enabling configuration toward zero-carbon operation; requires complementary photovoltaic and energy storage investment; applicable in high-tariff regions, off-grid locations, and projects eligible for energy storage incentive policies

4.5 Match default protocol configuration to target market

we do not impose a uniform control solution on all customers; instead, we match default configurations to prevailing baselines and usage habits in each target market
target Market — Default Control Configuration — Matching Basis
europe Municipal & Outdoor — DALI-2 + Zhaga Book 18 + LoRaWAN/NB-IoT — Complies with standard baseline requirements for outdoor lighting in Europe

europe Premium Office Buildings — KNX + DALI-2 + Millimeter-wave Radar — Meets building automation integration requirements and supports compliance with green building certification systems

in North America, retail and residential Matter over Thread + Wi-Fi cross-ecosystem interoperability has become the mainstream combination in mid-to-high-end markets by 2026.

in the Chinese market, OneConnect / SLE (StarLink Express) + Zigbee + NB-IoT supports both HarmonyOS ecosystem and proprietary protocols.

in municipal deployments across the Middle East, Southeast Asia, and Africa: NB-IoT + LoRaWAN + 4G Cat.1 enable city-scale rollouts; some regions lack fixed-network infrastructure.

for historic buildings and wiring-prohibited environments: EnOcean + PLC provide wiring-free, battery-free, maintenance-free operation.

five or eight customizable dimensions.
customizable dimension — selectable parameter range — selection guidance.
luminous efficacy: 130–230 lm/W, delivered in graded tiers; efficacy above 230 lm/W requires dedicated development. Tier selection depends on electricity tariff and payback period requirements; regions with high electricity tariffs are advised to select ≥210 lm/W.

color rendering index (CRI): three tiers — Ra ≥ 80, Ra ≥ 90, Ra ≥ 95. Industrial warehouses: Ra ≥ 80; sports venues, hospitals, exhibition halls: Ra ≥ 90; schools, children’s spaces, premium retail: Ra ≥ 95.

correlated color temperature (CCT): 2700K, 3000K, 3500K, 4000K, 5000K, 6500K. Hotels and bedrooms: 2700K–3000K; living rooms, offices, retail: 3500K–4000K; industrial and roadway lighting: 4000K–5000K; European municipal roadways often adopt 3000K to minimize light pollution.

curva de distributio luminosa: forma de chiroptera, lentis precises, sublentis in distributione spirali, lentis anti-abbagliamento. Distributio luminosa in forma de chiroptera pro viis et garagis minuit lumen dispersum; lentis anti-abbagliamento pro areis sportivis regulat valorem abbagliamenti; sublentis in distributione spirali cum lentis Fresnel pro spotlights obtinet altam intensitatem luminis centralis et maculam luminosam uniformem.

gradus protectionis: IP20, IP44, IP65, IP66. IP20 pro usibus interioribus communibus; IP44 pro areis siccis in coquinis et balneis; IP65 pro areis lavationis, officinis industrialibus, et lucernis stratarum; IP66 pro areis sportivis et scenariis exterioribus exigentibus.

modus impulsionis: impulsio efficiens per singulam lucernam (efficiens 95%), impulsio directa centralis (250V±20V DC). Impulsio per singulam lucernam optima est pro renovationibus aedificiorum existentium; impulsio directa centralis optima est pro novis aedificiis et systematis photovoltaicis cum accumulatione.

interficies controlis: 25 protocollos enumeratos in Capitulo 4, quorum quisque seligi potest; multitudo protocollorum simul supportata. Configuratio praedefinita ad normam basilem mercati destinati adaptatur; additio gateway permittit conversionem protocolli.

structura et reparabilitas: structura disiungibilis pro fonte luminis, designum cyclabile, manutentio modularis. Hoc designum satisfacit requisitis Unionis Europaeae pro ESPR circa disiungibilitatem fontis luminis et spatium reservat pro futuris incrementis fontis luminis.

capacitas personalizationis opticae et structuralis:

the reflector expands the light-emitting area via an expansion section and a reflective section, thereby improving overall light utilization.
the optical mixing chamber’s interface design with the inclined surface enhances optical efficiency and color uniformity.
the transparent and non-transparent end caps are integrally molded to ensure consistent light output and improve uniformity of total luminous efficacy.
panel lights improve total luminous efficacy through optimized chip layout, micro-nano structures on the diffuser plate, and lens geometry.
the anti-reflective coating stack alternates silicon oxide and titanium oxide layers to boost normal-direction light intensity.

solution validation capability: We possess lamp luminous efficacy simulation capability; combined with DIALux simulation, this forms a complete solution validation chain. Illuminance distribution maps, uniformity calculation reports, and energy consumption forecasts can be delivered before customer order placement—reducing on-site rework.

vI. Reference Data on Energy-Saving Performance

6.1 Scene Stratification Pattern

when estimating project ROI, customers may refer to the following stratification pattern. The energy-saving rate depends on the proportion of 'ineffective lighting duration' in the scene—longer unoccupied durations yield greater energy-saving potential from intelligent control.
scene Type | Reference Energy-Saving Rate Range | Determining Factor
equipment rooms, underground garages, and parking lots: 80%–97% of lighting time is ineffective; intelligent sensing can reduce illumination to near zero.

cold storage facilities, warehouses, and logistics centers: 60%–90% of operation time is prolonged and overlaps with intelligent sensing—clear benefits in 24-hour scenarios.

office buildings, commercial complexes, and supermarkets: 30%–70% of time has human presence; energy-saving potential is constrained by rigid requirements for maintained illuminance.

schools, hospitals, and exhibition halls: 24%–60% of usage follows clear temporal patterns, enabling time-based control—but high color rendering and illuminance requirements apply.

municipal roads, tunnels, and metro systems: 28%–70% of time requires nighttime safety assurance; dimming by time slot is primary, and adding intelligent control pushes savings beyond 70%.

sports venues: 50%–75% utilization rate is low, yet single-use power demand is high; total lifecycle cost reduction reaches 50%–70%.

during our solution survey phase, we first measure the actual on-site usage time curve, then decide whether to prioritize high-luminous-efficiency hardware replacement, intelligent control configuration, or a combined approach—this determines the customer’s optimal return on investment.

6.2 Globally published project measurement data (industry reference)

hic sunt data realia ex projectibus modificatoris, excerpta ex fontibus publicis industriae, ordinata secundum rationem conservationis energiae (descendentem). Haec data demonstrant effectus reales technicarum simillimarum in diversis scenariis, et possunt ut norma ad computandum fructus proiectuum clientium.
regio projectus Typus scenarii Magnitudo modificationis Ratio conservationis energiae / Reductio consumptionis energiae Effectus oeconomici
laboratorium nationale quoddam in America Septentrionali Camera apparatus — 97% —

suburbium quoddam civile in Sina Spatium subterraneum — 95% —

complexus commercialis quidam in Sina Commercialis 1040 lucernae intelligentes T8 93.5% Economia annua in electricitate: 245 000 iuan

aedificium negotiale quoddam in regione orientali Sinarum Negotiale 256 tubuli lucernarum intelligentium T8 92% Mensura per contorem electricum parallela

garagium subterraneum urbis maritimae quaeque in Sina Garagium subterraneum 400 lucernae 92% —

aerarium subterraneum campus technologicus quidam in Sina Aerarium subterraneum — 89.7% (per 760 dies) —

firma servitii frigoriferi quaedam in America Septentrionali Frigoriferum — 87% Reductio consumi electrici annua: 1 700 000 kWh; tempus recuperationis investimenti: circiter unum annum

urbs quaedam in Hispania Via publica municipalis 2795 lucernae viales 86.17% Investitio totalis projectus: 1 608 800 euro

urbs Germanica, viae publicae municipalis: 1533 lucernae; 82% parcius; €210 000 annui pars electricitatis conservata; 400 tonnae CO₂ minuuntur.

provincia et urbs magna Italiae: illuminatio publica — super 80% contractuum certificant 80,2% parciendi; 35% instantanea diminutio in summis praebendis.

universitas Americae Septentrionalis: arena glaciaria; 73% parcius; $350 000 decennali conservanda.

vicus Germanicus: viae publicae municipalis; 5 080 lucernae; media potentia 67% minuitur; 610 000 kWh electricitatis annui conservantur; 480 tonnae CO₂ minuuntur.

fabrica textilis regionis orientalis Sinarum: usus industrialis; 862 lucernae; 67% parcius; pretium electricitatis annuum a ¥123 000 ad ¥39 600 deminuitur; lux a 204 lux ad 278 lux crescit.

vicus Estoniae: via intellegens; prima via sub controllo intelligente; 65–85% parcius; costus manutenentiae circa 50% minuuntur.

urbs Hispanica: viae publicae municipalis; 350 lucernae natrii alti pressionis; potentia 65% minuitur; €27 000 annui pretii electricitatis conservantur.

urbs Croatica: viae publicae municipalis; 160 lucernae natrii substitutae sunt per 150 lucernas LED; potentia 65% ultra minuitur; 157 305 kWh electricitatis annui consumi minuuntur; tempus reditus investimenti circiter 4,3 anni.

urbs Lituaniae: illuminatio municipalis; plus quam 3 500 lucernae; pretium electricitatis 60% minuitur; €120 000 annui conservantur.

hospitale regionis orientalis Sinarum: usus medicus; septem tubuli T8, duo lucernae planae; tubuli 60% parcius, lucernae planae 58% parcius.

industrial park in eastern China, municipal road, 17,500 streetlights, ~60%, integrated individual-lamp control and NB-IoT communication

city in South Asia, municipal road, 48,524 streetlights, 53.76%, —

city in the Baltic region, school, 13,000 luminaires, —, annual electricity savings of €120,000

main urban district in China, municipal road, ~150,000 luminaires, 40%, illuminance increased by 122.3%

city-level shopping center in China, commercial complex, 150,000 m², 40%, annual electricity consumption reduced from 4.8 million kWh to 2.9 million kWh

city in France, municipal road, replacement of sodium lamps with LED — annual electricity cost reduced by 75%

important note: All data above are sourced from publicly available industry references; they represent third-party project records and do not reflect the project performance of Zhongshan Biotlighting Technology Co., Ltd. The purpose of citation is to illustrate the performance range of similar technical approaches across different application scenarios. Case data and test reports from projects completed by our company are available upon request from our sales team.

6.3 Parallel metering verification: enabling verifiable energy-saving rates

we determine the project’s energy-saving rate using parallel electricity metering for actual measurement, rather than relying on theoretical calculation or estimation. Electricity meters are installed in parallel at the same metering point before and after retrofitting, and data are read by the client or a third party.

this verification mechanism aligns with the Energy Performance Contracting model (EPC-RG) promoted by the European Union. Publicly available data show that a province and metropolitan area in Italy achieved over 80% electricity savings through EPC-RG for public lighting upgrades; in one tender, the contract guaranteed an energy-saving rate of 80.2%, delivering an immediate 35% budget reduction.

globally, the ‘Lighting as a Service’ (LaaS) and ‘Pay as you Save’ (PAYS) models are emerging as key delivery formats. We offer both.

vII. Export Compliance Capability

7.1 Market Opportunity

in markets with high electricity tariffs and high sensitivity to energy costs, demand for lighting energy efficiency is increasingly driven by regulation—not solely by voluntary customer action—creating a relatively certain market opportunity.

public industry data: Approximately 11 billion lamps are in use across Europe; lighting accounts for 8% of primary energy consumption. Replacing conventional lamps entirely with LED lamps could save about €65 billion annually in energy costs and reduce CO₂ emissions by approximately 51 million tonnes per year. Compared to conventional technologies, intelligent lighting management can achieve energy savings of up to 80%.

public industry forecasts indicate that the European LED lighting market was valued at approximately USD 24.69 billion in 2025, and is projected to grow from USD 25.86 billion in 2026 to USD 95.36 billion in 2034, representing a compound annual growth rate (CAGR) of about 15.5% between 2026 and 2034. Within the overall European lighting market, LED’s share has already reached nearly 90%. This means that even markets where LED adoption is already complete still offer clear opportunities for a second wave of upgrades—from standard LED to high-luminous-efficiency LED combined with intelligent control.

7.2 Requirements of Three EU Regulations and Our Corresponding Capabilities
regulation | Effective Date | Core Requirements | Our Corresponding Capabilities
ESPR Regulatio de Designo Ecologicum Productorum Sustentabilium, 18 Iulii 2024: 16 normae, inter quas durabilitas et reparabilitas; introducitur Portus Digitalis Producti (DPP); fontes lucis debent esse amovibiles, alioquin tota lampas classificatur ut "fons lucis" et gradus efficaciae energicae limitantur; structura amovibilis fontis lucis prospici potest secundum requisita ESPR.

Nova Regulatio ErP/SLR de Efficacia Energica, 1 Septembris 2021: LED directivi non inferiores 120 lm/W, non directivi non inferiores 140 lm/W; potentia in statu stand-by non superior 0.5 W; flicker SVM non superior 0.4, PstLM non superior 1.0; CRI non inferior 80; vita L70/B50 non inferior 30 000 horarum; efficacia luminosa lineae ad mensuram alta superat limites minimos; flicker, redditus colorum, et vita omnes conformes sunt normis.

Regulatio ErP de Etiquettis, 1 Septembris 2021: nova etiquetta septem graduum A–G, abolita vetus systema A+++ / A+; registratio per databasem EPREL et generatio codicis QR obligatoriae; auxilium praebetur clientibus ad processum registrationis EPREL perficiendum.

Directiva EPBD de Efficacia Energica Aedificiorum: a anno 2028, aedificia non residencialia cum systematibus HVAC potestatis superioris 290 kW debent habere systemata intelligentis illuminationis cum capacitate responsionis ad necessitates; stratum controlis potest interficiem pro responsione ad necessitates reservare.

Directiva EPBD super energiam aedificiorum: ab anno 2030, ad aedificia maioris quam 70 kW potestatis applicatur; systemata automationis et controlis aedificiorum (BACS) obligatoria sunt, quae BACnet/IP et Modbus TCP supportent.

tres regulamenta constituunt umbram combinatam: ErP minima efficiens luminis et minimam flicker praescribit; ESPR removibilitatem et reparabilitatem praescribit; EPBD requisita pro intelligentibus systematis controlis praescribit. Ad unum horum satisfacere non sufficit ad mercatum intrare.

nota importantissima de classificatione efficientiae: secundum regulas actuales tabellarum, ad gradum A obtinendum, efficiens luminis ad minimum 210 lm/W requiritur; 120 lm/W autem ad antiquum gradum A++ (nunc abolitum) pertinet. Nova tabella generaliter limina elevat; itaque producta antiqua altae efficientiae in novo systemate automatico degradantur. Nostri lineae personalizatae altissimae efficientiae (210–230 lm/W) requisita efficiens luminis pro gradu A implent.

7.3 Instrumenta incentivorum et canales acquisitionum apud singulos status membrorum

germania. Modus pro conversione ad LED: kit pro conversione luminarium veterum in efficientes LED; casus publici demonstrant reductionem consumptionis electricae per minutum 50 %, et subsidia nationalia possunt coprire pretium intra paucos annos; regulatio de efficacia aedificiorum (GEG) postulat ut nova aedificia adimpleant "Normam Efficiendi 55", id est, necessitas energiae primariae non excedat 55 % necessitatis aedificii referentis; subsidium speciale pro photovoltaico balconis (Balkonkraftwerk) usque ad 500 euro.

gallia. Lex contra pollutionem lucis, quae ex die 1 Ianuarii 2019 viget, applicatur ad illuminationem exteram publicam et privatum, ut vitetur consumptio superflua energiae et protegantur systemata ecologica; gubernatio postulat ut commercia signa lucifera claudant inter horam 1 et 6 matutinam, et ut installentur interruptores remoti ad responsum ad tensiones energiae; illuminatio publica debet conformari normis NF C17-200 et EN 13201; certificata conservationis energiae (CEE) praebent subsidia pecuniaria pro mutationibus ad conservationem energiae; praeterea sunt remissiones tributorum pro societatibus et credita tributaria C3IV pro investitionibus industrialibus viridibus.

italia. Il piano PNIEC richiede la transizione dei sistemi di illuminazione pubblica alla tecnologia LED; la regione Lombardia offre un contributo massimo di 3.000 euro per progetti fotovoltaici abbinati a sistemi di accumulo con potenza non superiore a 20 kW; il sistema degli appalti pubblici ha istituito un contratto quadro per l'illuminazione pubblica che comprende fornitura di energia elettrica, manutenzione, miglioramento energetico e funzionalità per le smart city.

spagna. Le imprese che investono in impianti di energia rinnovabile per autoconsumo beneficiano di un ammortamento accelerato; il decreto amministrativo per il risparmio energetico fissa i limiti di temperatura per gli edifici pubblici e i negozi: 27 °C come massimo per il raffreddamento e 19 °C come minimo per il riscaldamento; inoltre, le luci delle vetrine devono essere spente entro le ore 22:00; il programma FEDER prevede un incentivo di 250 euro per ogni kWh di capacità installata nei sistemi di accumulo con batterie; un caso pubblicato mostra che una città ha sostituito 350 lampade a vapore di sodio ad alta pressione con apparecchi LED, ottenendo una riduzione della potenza del 65 % e un risparmio annuo di 27.000 euro sulla bolletta elettrica.

svezia e paesi nordici. L'incentivo per l'installazione di impianti solari è aumentato dal 15 % al 20 %, coprendo sia i costi dei materiali che quelli della manodopera; è stato potenziato il sostegno alle ristrutturazioni finalizzate al miglioramento dell'efficienza energetica nelle abitazioni unifamiliari e sono state rese possibili forme di condivisione energetica tra edifici.

7.4 Definizione del prodotto per i mercati con prezzi elevati dell'energia elettrica

in base ai requisiti normativi e agli strumenti incentivanti complessivi, i nostri prodotti destinati al mercato europeo possono essere configurati secondo le seguenti specifiche:

lumen efficacy of complete luminaire not less than 210 lm/W, to meet Class A energy efficiency rating requirements
replaceable light source design, to comply with ESPR requirements
flicker SVM not higher than 0.4, PstLM not higher than 1.0, CRI not lower than 80
L70/B50 lifetime not less than 30,000 hours; configurable up to 50,000–100,000 hours
standby power consumption not higher than 0.5 W
control layer supports dual baseline: DALI-2 and Matter over Thread, compliant with Zhaga Book 18
pre-provisioned demand response interface, to meet EPBD requirements effective after 2028
optional integrated light-and-storage interface and DC centralized power supply
assistance provided for EPREL database registration

three deployable implementation pathways: Germany’s LED retrofit kit model for existing luminaire upgrades; Italy’s PNIEC requirements and public lighting framework contracts for municipal bulk procurement; France’s light pollution regulation and remote control switch requirements for compliance-driven replacement.

vIII. Modelus Cooperationis et Processus Traductionis

8.1 Tres Modeli Cooperationis
modelus Cooperationis / Investitio Clientis / Tempus Referentiae Redditi / Clientes Idonei
emptio Plena / Praetium Merces Semel Solvitur / In Scenariis Industrialibus: 6 Mensibus ad 2 Annos; In Scenariis Commercialibus: 1–2 Anni; In Aedificiis Sportivis: 3–5 Anni / Clientes qui abunde habent pecuniam et volent tenere bona in suo patrimonio

Gestio Energiae per Contractum (EMC) / Nulla Investitio / Reductio Expensarum pro Energia Dividitur ad Recuperandum Impensas; In Illuminatione Commerciali, Tempus Breve Est: 4–6 Menses; Tempus Totale Recuperationis Plurimum Est: 1–3 Anni / Clientes qui nolunt impendere pecuniam suam correntem et volunt solvere ex pecunia quae conservatur in expensis electricitatis

illuminatio ut Servitium (LaaS) / Solvuntur Solum Expensae Contractus Servitii / Contractus Complectitur Totam Transformationem, Conservationem et Progressionem / Tabernae Catena, Clientes Multorum Situum, Institutiones Publicae

Basis Fidei in Modello EMC est Mensura per Electrometros Parallelos: Electrometri installantur simul in eodem Puncto Mensurae ante et post Transformationem; Ratio Conservationis Energiae determinatur ex Datibus Electrometrorum. Nos praebemus Garantiam 5–10 Annorum (secundum Conventionem Contractus) et Servitium Supervisionis Remotae per Plataformam Nubis.

8.2 Quattuor Gradus Processus Traductionis

primum gradum · Explorationis in loco. Mensuratio curvae temporis usus realis in loco, illuminantiae et potentiae praesentis, conditionum distributionis electricae, et intensitatis perturbationum ambientium. Hoc gradum determinat utrum subsequentia opera magis in substitutione hardware ad altam efficaciam luminis, an in configuratione intelligentis controlis versentur.

secundum gradum · Designatio solutionis. Productio imaginis simulationis illuminantiae DIALux, libri calculi uniformitatis, resultatorum simulationis efficaciae luminis, praedictionis consumptionis energiae, et libri calculi periodi recuperationis investitionis. Octo parametri personalizati clare definiti: gradus efficaciae luminis, fidelitas colorum et temperatura coloris, curva distributionis luminis, gradus protectionis, modus actionis, et protocolum controlis.

tertium gradum · Verificatio et experimentum. Experimentum practicum lucernarum exemplarium et confirmatio ab cliente; collectio datum basium per contores electricos parallelos; experimentum coniunctionis protocoli controlis cum systemate aedificii iam existente.

quartum gradum · Operatio et manutentio longa duratio. Supervisio remota per platformam nubis; alarma automatica defectuum; controllo remoto per APP in gruppo; reportus periodici rationis conservationis energiae; servitium garantiae secundum condiciones contractus.

iX. Comparatio inter parametros technicos et valorem pro cliente
parametri technici · Valorem ex perspectiva clientis · Conditio limitans
fons luminis: 210–230 lm/W (linea personalisata) · Expensae electricae multo minores ad eandem illuminantiam quam LED communis · Valor adhibendus confirmatus per reportum tertii partis de mensuratione reali

efficientia impulsum 95% minuit perdita occultam in circuitu electrico; architectura classica discreta habet perdita circa 7%-9%.

conservatio systematis electricitatis 60% (valorem propositum); in plurimis scenariis commercialibus et industrialibus investitio reditur intra unum ad duo annos; ratio realis conservationis electricitatis determinatur per inspectionem loci et mensuram directam per tabellam electricam parallela.

designum impulsum degradatum prolongat vitam lampadis et minuit frequentiam substitutionis; impulsio currente parvo potest vitam extendere ultra quinque annos.

alimentatio centralis directa (DC): in novis projectis conservatio electricitatis addit 15%-20% et securitatem usus electricitatis augent; pretium apparatus rete DC est circa 1,5× pretium apparatus rete alternantis (AC).

Interfacs DALI-2 satisfacit requisita basalia pro projectis municipalibus Europaeis; DALI-2 et Zhaga Book 18 sunt requisita basalibus communia pro illuminatione exteriore in Europa.

interfacs responsionis ad postulationes (demand response): adhibetur in aedificiis magnis Europae post annum 2028; aptum est pro aedificiis non-residentialibus ubi potentia HVAC superat 290 kW.

structura demontabilis luminis: adimplent requisita ESPR Unionis Europaeae et spatium reservant pro futura evolutione luminis; si non demontabilis, gradus efficaciae energiae totius lampadis limitabitur.

mensura directa per tabellam electricam parallela: ratio conservationis electricitatis definitur per datos tabellae electricae, non per estimationem; mensura parallela fit in eodem puncto metiendi ante et post renovationem.

EMC Energy Management Contract: Zero upfront investment renovation; payment sourced from electricity cost savings; profit sharing based on energy-saving performance, with specific terms defined in the contract.

5–10-year warranty covering the full contractual project duration; exact term specified in the contract.

AI radar sensing: garage lighting activates only on demand; average operating power reducible to 2–3 W, depending on on-site interference intensity and parameter tuning.

decentralized single-lamp autonomy: no gateway required; normal illumination continues even during network outage; edge-computing response time under 0.5 second.

integrated light-and-storage system: lighting transforms from an electricity-consuming device into a dispatchable energy node—requires concurrent photovoltaic and energy storage investment.

x. Contact Us

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

official website: beaulighting.com
email: [email protected]
WhatsApp / Telephonum: +86 138 1840 3203
adressa: Zhongshan, Provincia Guangdong, Sina

si opus est tabulae specificarum producti, reportationis examinis tertii partis, exemplaris certificatorum, aut pretii pro projecto, adhibe unam ex supradictis viis ad contrectandum aequipe venditionis nostrae. Suggestionem primariam praebere possumus intra 48 horas (tempus verum responsionis pendet ex communicatione reali).

declinatio Responsabilitatis et Declaratio Marcharum

declaratio Parametrorum Technicorum. Valores technici hic inclusi — ut efficacia luminis, efficacia impulsum, duratio vitae, gradus protectionis, index coloris — sunt valores designati et ambitus configurationum optabilium. Valores reales tradendi dependent ab accordo technico confirmato ab utraque parte, a datis mensurae specimenis, et a reportatione examinis tertii partis. Data efficaciae luminis distinguunt inter valorem mensuratum totius lampadis et valorem nominalem diodorum luminis; efficacia luminis totius lampadis mensurata saepe est 20–30% minor quam efficacia nominalis diodorum luminis. Efficacia luminis superior 230 lm/W requirit conditiones impulsum currentis infimi; 280 lm/W est limis superioris verificationis technicae in condicionibus laboratorii, non autem promissio pro productione massiva.

declaratio efficacitatis energiae. Intervallo procentuum reductionis consumi energiae in hoc documento praebetur ut referentia pro diversis scenariis; haec autem procentua influuntur a pluribus variabilibus, ut efficiens originalis systematis illuminationis, tempus reale usus in loco, profunditas configurationis schematis controlis, et status executionis operationis et manutentionis; ergo non constituunt promissionem de effectu specifico pro quocumque projecto. "Reductio 60%" est valor obiectivus pro plurimis scenariis commercialibus et industrialibus, ubi combinantur substitutio hardware ad altam efficacitatem luminis et configuratio intelligentis systematis controlis. Pro quocumque projecto specifico, verum procentum reductionis consumi energiae determinandum est per inspectionem in loco et per datos mensuratos realiter per contores electricos parallelos.

declaratio fontis dati. Data projectuum in Capitulo VI, data mercati et informationes regulativas in Capitulo VII, necnon contenta notata ut "data publica industriae" vel "casus publici" in omnibus capitulis, omnia proveniunt ex fontibus publicis industriae et ex registris tertiorum partium pro projectis; haec data tantum ut illustrarent intervalla performance technicarum similium in diversis scenariis, non representant acta projectuum Societatis Zhongshan Biotlight Technology Co., Ltd., nec constituunt approbationem informationum de projectis tertiarum partium. Casus proprii societatis et data examinata peti possunt ab aequipe venditionis.

declaratio de regulis et certificationibus. Citatio documenti de regulis Unionis Europaeae (ESPR, ErP/SLR, EPBD) et de regulis statuum membrorum tantum ad auxilium clientium ad intellegendum requisita ad introitum in mercatum destinatum data est, non autem ut opinio iuridica. Utrum productum in certum mercatum introire possit, pendet ex certificationibus, registrationibus et experimentis realiter obtentis. Certificatorum quae societas vere habet ambitus ex originalibus certificatis pendet; nullae certificationes hic non enumeratae asseruntur. Antequam cliens offert vel emat, ipse debet novissimam versionem et condiciones applicationis regulorum pertinentium per se verificare.

trademark Notice. 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, and CoAP — as well as other protocol names, standard names, and organization names appearing in this document — are trademarks, service marks, or registered standard names of their respective owners. They are used herein solely to indicate product compatibility and technical configuration options, and do not imply any affiliation, sponsorship, authorization, or certification by Zhongshan Biotlight Technology Co., Ltd. with the trademark owners, standard-setting bodies, or certification authorities.

copyright and Use License. This document is copyrighted by Zhongshan Biotlight Technology Co., Ltd. Customers, distributors, and engineering parties are welcome to use this document for product selection, project bidding, and internal training, provided that its content remains complete and unaltered, especially regarding technical specifications and disclaimers. Without prior written permission, technical specifications from this document must not be used in comparative advertising, and the disclaimer section must not be removed or modified.

data de publicação: Setembro de 2026 — Versão: V1.1 — Natureza do documento: Material promocional externo