High-efficiency custom LED luminaires and intelligent lighting control solutions

Sep 11, 2026

Beaulighting (Zhongshan) Lighting Technology Co., Ltd.

Luminaria ad usum specialem, maxime efficaces · Rendimentum driveris 95 % · Solutiones systematis pro conservatione energiae · XX applicationes industriales · XXV protocolla intelligentis regendi luminis

de Beaulighting

Beaulighting (Zhongshan) Lighting Technology Co., Ltd. est fabricator qui in luminariis LED ad usum specialem maxime efficacibus et in solutionibus intelligentibus regendi luminis specializatur, atque loca consumens multum energiam in sectoribus commercii, industriae, infrastructurae publicae, sportis, agriculturae et centris computorum servit.

Noster modelus distributionis fundatur in personalisatione, non in catalogo fixo. Clientes configurant luminaria per octo dimensiones – efficacia, repraesentatio colorum, temperatura coloris, distributio photometrica, gradus protectionis, architectura driver, interface controlis et constructio facilis ad servitium – et obtinent auxilium integrum a analysi loci per planificationem et verificationem exemplorum usque ad servitium longae durationis.
Positiones indicatae
Nomen societatis Beaulighting (Zhongshan) Lighting Technology Co., Ltd.

Marca Beaulighting

Sphaera negotii Luminaria LED altissimae efficaciae ad mensuram, systemata intelligentis controlis luminis, solutiones ad conservationem energiae pro renovandis systematibus illuminationis

Modeli servitii Emptio directa / Contractus gestiones energiae (EMC) / Illuminatio ut Servitium (LaaS)

Mercatus destinati Europa, America Septentrionalis, Oriens Proximus, Asia Sudorientalis, Asia Meridionalis, America Latina, Africa

Website: beaulighting.com

Email [email protected]

WhatsApp / Telephonum +86 138 1840 3203

Certificationes producti CE, RoHS, ETL et relatus examinis UL disponibiles (numeri certificationum ad petitionem)

Locus productionis et capacitas annua: Guzhen, Zhongshan, provincia Guangdong, Sina; valor productus annuus circa 2,5 miliardos RMB

Quattuor specificatae technicae centrales

2.1 Classes efficacitatis: configurata secundum conditiones proiecti

Solutiones fontium lucis in quattuor classibus efficacitatis offerimus, ut clientes secundum pretium electricitatis et tempus optatum recuperationis eligere possint.
Classis efficacitatis Status suppeditationis Applicationes typicae
130–180 lm/W Series productorum standardium, disponibilis pro suppeditatione rapida magnis quantitatibus Aedificia industrialia generalia, magazina, parking subterranea

180–210 lm/W Series productorum standardium et ordines ad mensuram Centra commercialia, aedificia administrativa alta, scholae, hospitales

210–230 lm/W Alta efficienza, linea personalizzata; valori forniti confermati da rapporti di prova di terzi. Progetti classe A dell’efficienza energetica UE, grandi progetti di illuminazione stradale comunale, stadi sportivi

230–280 lm/W Limite tecnico superiore verificato in laboratorio; nessun impegno di fornitura in serie. Sviluppo specifico per progetto disponibile su richiesta. Regioni con tariffe elettriche elevate, centri dati, siti autonomi dalla rete

Due note sui dati di efficienza che i clienti dovrebbero considerare nella specifica del prodotto:

In primo luogo, un’efficienza superiore a 230 lm/W dipende dalle condizioni operative a bassa corrente. Applichiamo una strategia di sottostima («cavallo forte, carro leggero»): ridurre la corrente del driver per ogni modulo LED aumenta l’efficienza, abbassa la temperatura della giunzione e prolunga la durata utile a oltre cinque anni. Nella fase di progettazione, pertanto, fissiamo il livello di corrente del driver in base al reale fabbisogno di potenza misurato sul posto, anziché indicare un valore di picco.

Secundo, efficacia luminis mensurata saepe 20 %–30 % infra efficaciam nominalem pachetorum LED in ea incorporatorum est. Haec est proprietas obiectiva industriae illuminationis. Omnes nostrae propositiones et documenta planificatoria super valoribus luminis mensuratis, non super valoribus theoreticis in pacheto basantur, ut controversiae circa efficaciam in transfusione operis non oriatur.

2.2 Efficiens driver 95 % et distributio centralis DC

Noster efficiens driver ad 95 % pervenit. Requisitum consuetudinale industriae est saltem 90 %, ita ut 95 % perditos in gradu distributionis ad suum minimum practicum adducat.

Hoc numeri valorem in contextu systematis totalis amissio illustrat: Architecturae decentralizatae tradicionales circa 7 %–9 % energiam in conversione amittunt, ita ut suppletio electrica post amissionem thermicam ad fontem lucis secundus maior punctus amissionis sit. In aedificiis quae per 24 horas diei operantur – ut horrea, frigorifera, centra computatoria – differentia quinque punctorum procentualium in efficacia driveris per totam vitam producti ad magnam differentiam in pretio electricitatis adducit.
Architectura suppletionis Effectus conservandi energiam Conditio applicabilis
Driver altius efficax singulorum luminarium (non isolatus / topologia resonantis LLC) Efficiens driver 95 % Retrofitting aedificiorum iam existentium; nulla mutatio systematis distributionis requiritur

Alimentatio centralis DC (250 V ±20 V DC); pars alia 15 %–20 % economia praeter efficientissimos impulsores; melior securitas electrica; nova aedificia aut renovatio, ubi distributio mutari potest; compatibilis cum systematibus PV et accumulationis

Alimentatio centralis DC tollit gradum conversionis AC-DC in singulis lucernis et lucernas per communem bus DC supplet, ita ut cumulativae amissae conversionis multiplex gradus minuantur. Limitatio pretii est quod apparatus distribuendi DC fere 1,5× pretium habet apparatus AC correspondentes. Hanc igitur architecturam pro novis aedificiis cum conditionibus necessariis et impulsores lucernarum singularum maxime efficientes pro renovatione suademus, optima combinatione pro reditu investitionis in singulo projecto electa.

2.3 Economia energiae in systemate: tres fontes independens

Noster ad energiam conservandam modus in tribus inter se independentibus fontibus fundatur. Cliens, qui unum aut duo tantum eorum utitur, tamen partem correspondenter conservat.

Fons 1 – Conservationes per lucis fontium substitutionem. Substitutio productorum LED normalium per producta altissimae efficaciae magnas etiam secundarias conservationes efficit, ubi locus iam per LED illuminatur. Lampades LED altissimae efficaciae operantur in intervallo 180–240 lm/W, et conservationes respectu productorum LED normalium variae sunt, secundum efficaciam dispositivorum substituendorum, inter circiter 20 % et 75 %.

Fonte 2 – Risparmi grazie al controllo delle perdite del sistema. Quattro misure tecniche riducono le perdite di trasmissione: selezione di bin di pacchetti LED a bassa corrente (un bin da 0,2 W offre un’efficienza superiore rispetto a un bin da 1 W); sottodimensionamento dei pacchetti, che aumenta l’efficienza del 10 %–15 %; sostituzione dei diffusori in policarbonato opaco con diffusori ad alta trasparenza, che aumentano l’efficienza del 10 %–12 %; e impiego di alimentatori ad alta efficienza con topologia non isolata o risonante LLC, abbinati a un rendimento del driver del 95 %.

Fonte 3 – Risparmi grazie alla gestione intelligente. Sensori e algoritmi riducono le ore di illuminazione superflue. Dati di settore pubblicati indicano risparmi combinati compresi tra il 60 % e il 95 %, con valore effettivo dipendente dalla percentuale di ore in cui lo spazio rimane inutilizzato.

Limitatio affirmationis „60 % economia energiae": 60 % est valor petendus attingibilis pro plurimis commercialibus et industrialibus scenariis sub approchione combinata „substitutio apparatus altissime efficientis plus configuratio intelligentis regulandi“. Non est garantia uniformis pro omnibus projectis. Economia realis in quolibet projecto pendet ab quattuor variabilibus: efficacia systematis illuminationis praesentis, profilo occupationis loci mensurato, profunditate configurationis regulandi, et qualitate operationis currentis et custodiae. Economiam realem cuiuslibet projecti determinamus per mensuras metrarum parallelarum: metrae installantur ante et post renovationem in eodem puncto mensurae et leguntur a cliente vel tertio, ut economia probetur per datos metrarum non per aestimationem.

2.4 Technica durabilitatis et fidabilitatis

The actual costs of a lighting project lie not in the purchase price, but in replacement and maintenance. We treat reliability engineering as a priority equal to efficiency.
Reliability dimension | Common industry problems | Our design control points
Thermal management | 40%–60% of input power is converted to heat in LEDs; insufficient heat dissipation causes efficiency loss. In high-power LEDs, about 70% of input energy becomes heat, and conventional aluminum-substrate-plus-fin arrangements reach their thermal resistance limit in compact luminaires. High-thermal-conductivity aluminum-profile heat sink structures; side-emitting housing designs that reduce temperature sensitivity of light source and optical components and stabilize output

Reliability of power supply: Temperature drift causes premature failure in some luminaires; the on-resistance temperature coefficient of standard MOSFETs can reach 10 % at high temperature, impairing brightness stability and efficiency; undersized design combined with RC filtering, rectification, and line protection to prevent excessive current or voltage spikes at the driver circuit

Module uniformity: Multi-chip parallel modules develop localized hotspots due to forward-voltage variations; package binning and optimization of current-distribution structure to reduce driver voltage and improve efficiency and uniformity

Luminous flux depreciation and lifetime. Industry-standard lifetime benchmark is L80 for no less than 50,000 hours. Configured from the EU mandatory minimum of L70/B50 for no less than 30,000 hours, extendable to 50,000–100,000 hours depending on project requirements.

Sensor accuracy. Under strong interference, intelligent detection algorithms lack robustness; published industry data report error rates up to 28.4 %. Millimeter-wave radar combined with AI algorithms, tuned to local interference levels, prevents luminaires from failing to switch on when needed or failing to switch off when unoccupied.

Regarding warranty, we offer 5–10 years warranty together with cloud-based remote monitoring (exact duration per contract). This warranty period matches typical contractual durations in European projects.

Twenty application industries.

3.1 Industry list and indicative savings.
Branch-Specific Environment Indicative Savings Range Key Specification Requirements Recommended Efficiency Class
Retail Shopping Centers and Complexes 40 %–59 % Lighting Power Density (LPD) not exceeding 2.1 W/m² at 300 lx 180–210 lm/W

Retail Supermarkets and Retail Chains 20 %–75 % (versus Standard LED) 180–240 lm/W; High CRI for Accurate Product Colors 210–230 lm/W

Retail Shopfronts and Signage Subject to Mandatory Switch-Off Times Must Support Remote-Controlled Switching 180–210 lm/W

Offices Entire Office Buildings 50 %–70 % Panels above 190 lm/W; Sensor Variants in Traffic Areas 190–230 lm/W

Offices Business Centers and Specialist Practices Up to 92 % Verified via Parallel Metering 210–230 lm/W

Education Schools and Classrooms 23.8 %–43.8 % Flicker-Free, Ra ≥ 90 180–210 lm/W

Healthcare Hospitals 58 %–60 % Flicker-Free, High CRI, Configurable to RG0 180–210 lm/W

Cultura: Galerias et spatia culturalia. Uniformitas coloris 23,8 %–43,8 %; Ra ≥ 90; efficentia luminis 180–210 lm/W

Loca sportiva: Stadia, piscinae, campos footballi, arenae, centra tennistica. Illuminatio verticalis 50 %–75 % usque ad 2000 lx; Ra ≥ 90; gradus glare non ultra 30; IP66; efficentia luminis 150–220 lm/W

Industria: Aedificia fabricarum et magazina. 50 %–70 %; IP65/IP66; Ra ≥ 80; efficentia luminis 180–230 lm/W

Industria: Aedificia textilis et levis industriae. Circa 67 %; uniformitas altior illuminatio; protectio contra pulverem; efficentia luminis 200–230 lm/W

Industria: Frigorifera et catena frigida. Usque ad 87 %; operatio ad temperaturas inferiores; resistentia ad umiditatem et condensationem; efficentia luminis 200–230 lm/W

Logistica: Parci logistici et centra distributionis. 32 %–38 %; lucernae altorum rastrellorum; sensoria intelligens; efficentia luminis 200–230 lm/W

Infrastructura publica et transitus: Viae urbanae. Reductio combinata supra 70 %; norma nationalis Sinica classis 1 (gradus „praecursor“) requirit non minus quam 170 lm/W; efficentia luminis 170–230 lm/W

Infrastructura municipalis et vehicula: Tunnels et nodi metro 35 %–40 %; aequalitas alta, protectio contra fulgorem, vita longa; 180–210 lm/W

Infrastructura municipalis et vehicula: Garagines subterraneae 80 %–95 %; sensoria radarica AI; potestas operativa media reducibilis ad 2–3 W; 180–230 lm/W

Infrastructura municipalis et vehicula: Aedificia habitatoria et viae usque ad 95 %; regulatio singulorum luminarium; conformitas ad pollutionem lucis; 170–210 lm/W

Agricultura: Sera intelligentia et fabricae plantarum consumptus circa tertiam partem minor quam natrium alti pressionis; efficacia photonica 3,1–4,6 μmol/J; spectrum configurabile; spectrum dedicatum

Centra computatorum: Camerae servorum et camerae technicorum usque ad 97 %; fere nulla illuminatio tempore inoccupationis; supra 230 lm/W; evolutio specifica pro projecto

Independens a rete: Lucernae viariae solares, insulae, loca excavationis mineralium apta ubi nulla suppletio retis praesens est; bateriae lithium-ferro-phosphatatae; integratio photovoltaica cum accumulatione; 170–230 lm/W

The savings margins in the table above come from published industry sources and from measured performance of projects with comparable technical approaches. They are intended to help customers estimate a likely savings margin and do not constitute a performance commitment by our company. Savings for a specific project are determined through site analysis and parallel metering.

3.2 Industry guidelines

Commercial and public buildings. Supermarkets, office skyscrapers, schools, hospitals, and galleries share three features: long operating hours, large floor areas, and high electricity tariffs. Therefore, absolute savings are substantial and payback periods short. In shopping mall circulation areas, replacing standard 12–15-W LED downlights with 5.5-W units yields approximately 59 % energy savings. Across an entire office building, panels exceeding 190 lm/W—combined with sensor-controlled circulation-area lighting—reduce whole-building energy consumption by 50 %–70 %. Schools and hospitals impose the strictest requirements regarding flicker-free operation, color rendering, and blue light emission; we configure these to Ra ≥ 90 with optional RG0 classification.

Sports facilities and large event venues. Stadiums, swimming halls, football fields, arenas, and tennis centers are technically demanding and high-value projects. LED efficacy ranges from 130–185 lm/W, compared to 65–100 lm/W for metal halide lamps; thus, installed power for equivalent illuminance is only 50 %–70 % of a metal halide solution, with typical total energy savings between 50 % and 75 %. Quality requirements in sports lighting are non-negotiable: instant start-up, flicker-free operation, high color rendering (Ra ≥ 90), and stable correlated color temperature are essential to meet HDTV broadcast requirements—vertical illuminance up to 2000 lx and uniformity. Sports-grade parameters we deliver include glare-control lenses with transmission above 98 % and luminaire efficacy above 95 %; compared to a conventional 1000-W metal halide lamp, a single LED luminaire consumes only 300 W with glare rating not exceeding 30; illuminance uniformity not below 0.7 and glare index GR not above 35. For eight standard tennis courts, annual energy consumption can drop from approximately 83,000 kWh to 31,000 kWh. Initial LED investment is about 1.5–2 times that of metal halide systems, yet total lifetime cost savings reach 50 %–70 %, with typical payback periods of 3–5 years for a medium-sized football field.

Industria et logistica. Totales Einsparung nach dem Austausch liegt typischerweise zwischen 50 % und 70 %, mit einer Amortisationszeit zwischen sechs Monaten und zwei Jahren – eine der kürzesten aller Branchen. Schutzart ist üblicherweise IP65/IP66, CRI nicht unter 80, mit batwing- oder präzisionslinsenbasierter Photometrie. Kühlhäuser demonstrieren den Wert intelligenter Steuerung am besten: Veröffentlichte Branchenfälle berichten von einer Reduzierung des Beleuchtungsverbrauchs um 87 % mit einer Amortisationszeit von etwa einem Jahr. In der Lagerhaltung weisen Branchendaten darauf hin, dass die Gesamtenergiekosten um bis zu 75 % gesenkt werden können. Unsere Industriebeleuchtungsmodule behalten in extremen Umgebungen 97 % ihrer Effizienz.

Infrastructura et vehicula municipalia. Illuminatio viarum LED consumptum minuit de 50 % usque ad 80 % respectu natrii alti pressionis, cum efficacia super 160 lm/W; combinata cum atenuatione intelligente, totales conservationes possunt superare 70 %. Revisio Sinica normae nationalis anni 2025 ampliavit classes efficaciae energiae pro illuminatione viarum a tribus ad quinque gradus, ubi limen introductorium classis III est non minus quam 120 lm/W et gradus I «praecursor» non minus quam 170 lm/W. Structura aestimationis mutavit ab efficacia unius fontis ad «efficaciam adaptatam», accentuans usum effectivum luminis in scena reali — quod significat praecisionem photometricam esse aeque importante ac valorem efficaciae. Subterraneae aedificia praesertim fortes resultatus ostendunt, quia maxima pars diei sunt vacuae: sensoria radar KI possunt reducere potestatem operationis mediam ad 2–3 W.

Agricultura et applicationes speciales. In illuminatione horticulturae, unitas relevans est μmol/J, non lm/W. Index efficacitatis variat ab approximative 1,5 μmol/J pro lampis natrii ad altam pressionem, usque ad approximative 2,8 μmol/J pro LED standard, et usque ad 4,1 μmol/J pro LED quantum-dot; LED specialiter pro horticultura attingunt 4,6 μmol/J. LED minuit consumptionem circa unum tertium respectu lamparum natrii ad altam pressionem et generat multo minus calorem — lucerna LED de 320 W emittit 130–160 W caloris, contra 420 W pro lampa natrii de 600 W — quod directe minuit onus refrigerationis in serre. Nos configuramus spectra secundum species plantarum. Loca technica et centra computatoria ostendunt fortissimos resultatus publicatos et attingunt 97 % in datis sectoris. Technologia nostra altae efficacitatis extenditur etiam ad communicationem luminis visibilis (Li-Fi), quae transfert datos per modulationem LED ad altam frequentiam, cum immunitate adversus perturbationes electromagneticas et nulla fuga signali, idonea pro applicationibus defensionis, medicinae et industriae Internet, ubi requiruntur conditio confidentialitatis aut exigentiae EMC.

Viginti quinque optiones intelligentis regulandi

4.1 Protocolla regulandi per cationem (9)
Num. Protocollum Caracteristica technica Adressatio singulorum luminarium Responsum status Applicationes recommendatae
1 Diminutio analogica 0–10 V Impensae parvae, compatibilitas lata, praecisio bona; requirit lineam signalem separatam, et omnia lumina in eodem circuitu simul diminuuntur Non suffragatum Non adhibendum Renovationes aedificiorum iam existentium, ad rationem impensarum

2 DALI / DALI-2 Norma digitalis specifica pro illuminatione (IEC 62386); bus binarius, communicatio bidirectionalis, connexio facilis, compatibilitas transmarcas; capacitas limitata per bus Suffragatum, usque ad 64 adressas per bus Suffragatum Aedificia commercialia; fundamentum vulgare pro proiectis municipalibus Europaeis

3 D4i Amplificat DALI-2 ad collectionem datorum luminarium et mensuram consumptionis energiae Suffragatum Suffragatum Mensura consumptionis energiae Proiecta quae requirunt reportationem energiae et computationem CO₂

4 DALI+ Supportat transmissiōnem sine filo / per IP et ampliat semantīcam DALI per rēte sine filo. Supportat renovātiōnem sine filo in praesentibus installātiōnibus DALI.

5 DMX512 Celer (250.000 bps), fortis in mutātiōnibus colorum RGB et effectibus dynamicīs; unidirectiōnālis, nullae notitiae status lampādum — Non supportātur pro spectāculīs luminōsis, illuminātiōne paesagī, projectīs cultūrae et turismī.

6 TRIAC (modulātiō phasium) Dimmātio sine additīvā connexiōne, impēnsae parvae; pronus ad tremulum in īnsignibus intensitātibus luminis — — Renovātiōnēs domēsticae et parvōrum commerciōrum cum commutātoribus iam praesentibus.

7 KNX Norma internatiōnālis pro automātiōne aedificiōrum; architectūra distribūta, plūrēs strāta physica, scalābilis ad decem milia dispositīvōrum, integrat illuminātiōnem, calefaciōnem/ventilātiōnem/conditiōnem aeris (HVAC) et securitātem; impēnsae initiales superiōrēs et inceptiō complexior. Supportātur pro officiīs praecellentibus, aedificiīs pūblicīs, projectīs quae requirunt integrātiōnem HVAC et securitātis.

8 BACnet Object-Oriented Building Automation Protocol; supports inter-subnet communication and integration with KNX and Modbus — Enables integration into unified building management platforms and BAS

9 RS485 / Modbus TCP Shielded Twisted-Pair Cable; stable, reliable, noise-resistant; requires wiring — Suitable for industrial environments, PV and energy storage system integration

4.2 Wireless Control Protocols (12)
No. Protocol Technical Features Gateway Required Recommended Applications
10 Matter Application-layer standard running over Thread, Wi-Fi, or Ethernet; cross-ecosystem interoperability; local control during offline operation Dependent on transport layer Cross-ecosystem retail channels, residential and light commercial projects

11 Thread IPv6-based energy-efficient mesh self-organizing network; latency under 100 ms; strong security Border Router required Large facilities, mid- to high-end buildings

12 Zigbee Energiesparendes Mesh; bona stabilitas; duratio bateriae 1–5 annos; compatibilitas inter marcas limitata; necessarium est gateway; illuminatio intelligens per totum aedificium; controllo unificatum in omnibus succursalis

13 Bluetooth Mesh; pretium parvum; controllo directum per smartphone; penetratio parietum limitata; administratio rete magni ambitus complexior; nullum gateway necessarium; aedificia commercialia; officinae; renovationes parvae ad mediocres

14 Wi-Fi; connexio directa ad routerem; celeritas magna; consumptio electricitatis maior et obstruens si multa instrumenta sunt; nullum gateway necessarium; controllo singulorum lucernarum; canales commerciales et e-commerce

15 Z-Wave; frequencia alta, pretiosa et energiasparis; amplitudo intra aedificia circa 30 m; gateway necessarium; loca habitatoria et parva commercialia

16 EnOcean; collectio energiae; interruptores generant suam propriam energiam; sine bateriis et sine cura; gateway necessarium; aedificia historica et loca ubi installatio filorum impossibilis est

17 NB-IoT urbscale, magnus volumen, frugalis energiam rete longe-distans non requiritur. Illuminatio viarum municipalis cum regula singulorum lucernarum.

18 LoRa / LoRaWAN campus-scale rete auto-organizans, longe-distans; gateway requiritur. Campus area, illuminatio externa.

19 4G Cat.1 nulla connexio filaris requiritur, alta facultas realis temporis; non requiritur. Loca eventuum temporaria, sedes eventorum, remota loca industrialia.

20 PLC (Powerline Carrier) utitur lineis electricis iam existentibus, itaque nulla connexio filaris necessaria est; sensibilis ad perturbationes rete. Illuminatio viarum et additio sine filis in aedificia antiquiora.

21 OneConnect / NearLink sustinet HarmonyOS aecosystema et protocolla propria, promovens interoperabilitatem trans-marcarum. Dependet ab conceptu. Projecta in mercatu Sinensi.

4.3 facultates sensorum et algorithmorum (4 categoriae)

Protocolles sunt canales transportis; quae experientiam utentis intelligentem creant sunt sensoria et iudicium.
Capacitas Contentus technicus Contributio ad conservationem energiae
Detectio praesentiae et ambientis Radar undarum milimetralium permittit gestionem energiae et CO₂ per singulas lucernas; sensoria radaris artificialis intelligentiae praebent lucem ad accessum et extinctionem lucis ad absentiam; 80 %–92 % combinata conservatio in cavernis subterraneis; potestas operativa media reducibilis ad 2–3 W

Algorithmi praedictionis artificialis intelligentiae Algorithmi LSTM pro praedictione occupationis, atenuatione adaptiva et administratione dynamica energiae; conservatio combinata 60 %–95 %, secundum proportionem horarum vacuarum

Utilizatio lucis diei Emissio lucis artificialis automatum se accommodat luci diei disponibili, primo atenuando zonas marginis; in agricultura ordinatio sequentiarum recepti luminis; conservationes additae in officiis et scholis; conservationes systematis in hortis conclusis

Operationis et custodiae remotae. Regulatio grupporum basata in app, automatica notificatio errorum, supervisio remota per nubem. Minuit impensas pro inspectione et custodia manu facta.

Autonomia lucernarum singularum distributa est directio technica praesens: quaelibet lucerna decisiones suas ipse facit absque gateway et combinat radium millemetricum cum algorismis LSTM ad efficiendam reductionem totalem 80 %–95 %, cum tempore reactionis computandi in orlo sub 0,5 secundis. Valor eius non solum in eliminatione impensarum pro gateway consistit, sed etiam in attenuatione problematum interoperabilitatis quae ex fragmentatione protocollorum oriuntur – coordinatio trans-protocollorum fit in ipsa machina, non in unica et suprema platea.

A cloud-edge-device architecture guarantees offline operation and millisecond-level response times: when the network fails, local lighting logic continues to operate, and data are automatically synchronized once network connectivity is restored. 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 Selection among three system architectures
Architecture Advantages Limitations Suitable customers
Centralized (gateway + bus) Commissioning is traceable and faults are easy to locate 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 campus sites, multi-building properties, phased projects.

PV + Storage Integration: Lighting becomes a controllable energy node instead of a pure load; configurable toward CO₂-neutral operation. Requires PV and storage investment. Regions with high electricity tariffs, off-grid locations, projects qualifying for storage incentives.

4.5 Standard protocol configuration per target market.

We do not deliver a single control configuration to all customers; we tailor the standard configuration to the prevailing infrastructure and usage habits of each target market.
Target Market — Standard Control Configuration — Rationale
Iluminatio publica et externa Europaea: DALI-2 + Zhaga Libri 18 + LoRaWAN / NB-IoT — Fundamentum praecipuum pro iluminatio externa Europaea

Praeclara officia Europaea: KNX + DALI-2 + Radar in microundis — Requirimenta pro integratione automationis aedificiorum; sustinet systemata certificandi pro aedificiis viridibus

Commercium et habitatio Nord-Americana: Matter super Thread + Wi-Fi — Interoperabilitas trans-ecosystematica; combinatio communis mediocris usque ad pretiosa, ab anno 2026

Mercatus Sinicus: OneConnect / NearLink + Zigbee + NB-IoT — Sustentatio ecosystematis HarmonyOS et protocollorum propriarum

Oriens Proximus, Asia Sud-Orientalis, Africa (publica): NB-IoT + LoRaWAN + 4G Cat.1 — Introductio scala urbis, ubi retia fixa forte desunt

Aedificia historica et loca sine possibilitate connexorum: EnOcean + PLC — Sine connexione, sine batteria, sine maintenance

Octo dimensiones personalizationis
Dimensio: Optiones disponibiles — Index selectionis
Efficientia fontis distributionis in gradibus ab 130 usque ad 230 lm/W; ultra 230 lm/W per evolutionem specificam proiecti. Gradus definitur secundum pretium electricitatis et postulationes reditus; ultra 210 lm/W suadetur in regionibus ubi pretia sunt alta.

Fidelitas colorum: Ra ≥ 80, Ra ≥ 90, Ra ≥ 95. Ra ≥ 80 pro magazinis industrialibus; Ra ≥ 90 pro aedificiis sportivis, hospitibus et galeriis; Ra ≥ 95 pro scholis, locis puerorum et emptionibus praemiis.

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 aedificiis habitandis, officiis et emptionibus; 4000–5000 K pro industria et viis publicis; 3000 K saepe adhibetur pro viis municipalibus Europaeis ut pollutio lucis limitetur.

Distributio photometrica Batwing, lensa praecisionis, sublensa spiral-array, lensa antifulgoris Batwing pro viis et aedificiis parking pro limitando luce diffusa; lentes antifulgoris pro locis sportivis ad regendam aestimationem fulgoris; sublensae spiral-array cum optica Fresnel pro projectorum qui requirunt altam intensitatem centralem et fascem lucis aequabilem

Grado protectionis IP20, IP44, IP65, IP66: IP20 pro interioribus communibus; IP44 pro zonis siccis balneorum et culinarum; IP65 pro locis docentis, aedificiis industrialibus et illuminatione viarum; IP66 pro locis sportivis et locis exterioribus exigentibus

Architectura driver: driver altissimae efficaciae pro singulis luminariis (95 %) aut alimentatio centralis DC (250 V ±20 V DC): driver pro singulis luminariis pro conversionibus; alimentatio centralis DC pro novis aedificiis et systematibus PV cum accumulatione

Interface de contrôle : Chacun des 25 protocoles du chapitre 4 ; fonctionnement multi-protocole pris en charge ; adaptation standard à la base du marché cible ; des passerelles peuvent être ajoutées pour la conversion de protocoles

Conception et facilité de maintenance : structure à sources lumineuses interchangeables, conception circulaire, maintenance modulaire ; peut être configuré pour satisfaire l’exigence ESPR de l’UE concernant les sources lumineuses interchangeables, tout en préservant une marge pour des mises à niveau futures des sources

Capacités d’individualisation optique et structurelle :

Des réflecteurs dotés de sections d’extension et de réflexion élargissent le faisceau lumineux et augmentent le rendement lumineux global
Des chambres de mélange avec interfaces angulaires améliorent l’efficacité optique et l’uniformité chromatique
Des embouts finaux monoblocs, translucides et opaques, garantissent une émission uniforme et améliorent l’uniformité de l’efficacité globale de l’éclairage
Lampae panelares meliorant efficacitatem luminis totalem per dispositionem optimatam chipporum, structuras diffusoras micro-nano, et geometriam lentium
Coating anti-reflexivum cum stratis alternis oxydi silicii et oxydi titani augmentat intensitatem emissionis in directione normali

Capacitas verificationis planificationis: Offrimus simulationem efficacitatis lamparum et cooperamus cum DIALux ut catenam verificationis completam praebere possimus, quae ante ordinationem distributiones intensitatis illuminationis, calculos uniformitatis, et praedictiones consumptionis energiae suppeditat, et opus post factum in loco minuit

Data referentia de performance conservationis energiae

6.1 Exemplar post numeros

Clientes qui volent evaluer le beneficium de su projecto personal pote referer se al sequente patrono graduali. Le economia realisate depende del proportione de „horas de illumination superflue" in le spatio: plus longe un spatio es vacue, plus grande es le economia disponibile per le controllo intelligent.
Typo de ambiente Intervallo indicativi de economia Factor determinant
Spatios tecnic, garages subterraneos 80 %–97 % Proportione multo alte de horas vacue; le sensoria pote reducer le illumination a quasi zero

Frigeratores, magasinos, centros de distribution 60 %–90 % Longe horario de operation combinate con sensoria intelligent; le locos operative 24 horas trae le maxime beneficio

Officinas, centros commercial, supermercatos 30 %–70 % Proportione alte de horas occupate; le economias es limitate per le necessitate de mantener le intensitate de illumination

Schulen, Krankenhäuser, Galerien 24 %–60 % Vorhersehbare Zeitpläne ermöglichen zeitbasierte Steuerung, aber CRI- und Beleuchtungsstärkeanforderungen sind hoch

Stadtstraßen, Tunnel, U-Bahn 28 %–70 % Nächtliche Sicherheit muss aufrechterhalten werden, sodass Einsparungen hauptsächlich aus geplantem Dimmen stammen; über 70 %, wenn intelligente Steuerung hinzugefügt wird

Sportstätten 50 %–75 % Geringe Nutzungshäufigkeit, aber hohe Leistung pro Veranstaltung; Gesamtlebensdauerkosteneinsparungen von 50 %–70 %

In der Analysephase messen wir zunächst das tatsächliche Belegungsprofil des Standorts und entscheiden dann, ob hocheffizienter Hardwareaustausch, intelligente Steuerungskonfiguration oder beides priorisiert werden soll. Diese Entscheidung bestimmt die optimale Investitionsrendite des Kunden.

6.2 Veröffentlichte Projektdaten aus aller Welt (Branchenreferenz)

The following measured results are documented in published industry sources and listed in descending order of savings. They show how comparable technical approaches have performed in various environments and can serve as a reference benchmark for customers estimating their own project benefits.
Project Location Environment Scope Savings / Consumption Reduction Economic Outcome
A national laboratory, North America Technical room — 97 % —

A residential complex, China Basement — 95 % —

A commercial complex, China Commercial 1,040 T8 smart tubes 93.5 % Annual electricity savings of CNY 245,000

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

An underground parking garage, Coastal region China Parking facility 400 luminaires 92 % —

A technology park parking lot, China Parking facility — 89.7 % (over 760 days) —

A cold chain service provider, North America cold storage — 87 %; 1.7 million kWh saved annually; payback period approximately one year

A city in Spain, municipal streets; 2,795 streetlights; 86.17 % of total project investment; EUR 1,608,800

A city in Germany, municipal streets; 1,533 streetlights; 82 %; EUR 210,000 saved annually; 400 tonnes CO₂ avoided

An Italian province and metropolitan region, public lighting — over 80 %; contractually guaranteed savings of 80.2 %, with an immediate budget reduction of 35 %

A university ice arena, North America, sports facility — 73 %; USD 350,000 projected savings over ten years

A city in Germany, municipal streets; 5,080 streetlights; average power reduced by 67 %; approximately 610,000 kWh saved annually; 480 tonnes CO₂ avoided

A textile factory, Eastern China Industry 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 intelligently controlled street 65 %–85 % Maintenance costs reduced by approx. 50 %

A city in Spain Municipal streets 350 high-pressure sodium sets Power consumption reduced by 65 % EUR 27,000 saved annually

A city in Croatia Municipal streets 160 sodium-vapor lamps replaced with 150 LED units Reduction over 65 % 157,305 kWh saved annually; Payback period approx. 4.3 years

A city in Lithuania Municipal lighting Over 3,500 luminaires Electricity costs reduced by 60 % Approx. EUR 120,000 saved annually

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

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

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

A city on the Baltic Sea — School — 13,000 lights — — EUR 120,000 saved annually

A city centre, China — Municipal streets — Approx. 150,000 lights — 40 % — Illuminance increased by 122.3 %

A city-level shopping mall, China — Commercial complex — 150,000 m² — 40 % — Annual consumption reduced from 4.8 million kWh to 2.9 million kWh

A city in France — Municipal streets — Sodium-vapour replaced by LED — Annual electricity costs reduced by 75 %

Nota importantissima: Omnes dati in tabula supra positi ex fontibus publicatis sectoris oriuntur et opera tertiorum describunt. Non sunt ratio projectuum Beaulighting (Zhongshan) Lighting Technology Co., Ltd. Adducuntur ut amplitudo praestantiae comparabilium rationum technicarum in variis ambientibus illustraretur. Data casuum et relationes probationum pro operibus a nostra societate perfectis ab aequipe venditionis nostrae ad petitionem obtineri possunt.

6.3 Mensura parallelorum contatorum: conservationes demonstrare

Conservationes projectuum per mensuram parallelorum contatorum, non per calculum theoricum aut coniecturam, determinamus. Contatores ante et post renovationem in eodem puncto mensurae pariter installantur et a cliente vel a tertio leguntur.

Hic modus verificandi compatibilis est cum modelo contractus de performance energetica (EPC-RG) promoto in Unione Europaea. Fontes editae documentant quod provincia et regio metropolitana Italica per EPC-RG in renovatione illuminationis publicae conservaverint plus quam 80 % energiae electricae, ubi licitatio garantivit rationem conservationis 80,2 % et immotam reductionem in budgeto 35 %.

Per totum orbem, modi praebendi Illuminationis ut Servitium (LaaS) et "Pensa ut Salvare" iam probati sunt. Utrumque offerre possumus.

Capacitas ad conformitatem exportationis

7.1 Opportunitas mercati

In mercatibus cum pretiis altis electricitatis et sensibilitate ad impensas energiae, postulatio pro efficientia illuminationis magis et magis a regulis impulsu habet, non solum ex initiativa clientium, quod opportunitatem mercati relativam praedictam creat.

Data published by the industry indicate that approximately 11 billion lamps are in use across Europe and that lighting accounts for 8 % of primary energy consumption; replacing all conventional lamps with LED lamps could save about EUR 65 billion in energy costs annually and avoid about 51 million tonnes of CO₂; and intelligent lighting management can achieve savings of up to 80 % compared to conventional technology.

Published industry forecasts estimate the European LED lighting market at approximately USD 24.69 billion in 2025, growing from USD 25.86 billion in 2026 to USD 95.36 billion by 2034, representing a compound annual growth rate of about 15.5 % for 2026–2034; LED already accounts for nearly 90 % of the total European lighting market. This implies that markets which have already completed the LED transition still retain significant room for a second upgrade cycle—from standard LED to a combination of high-efficiency LED and intelligent control.

7.2 Three EU Regulations and Our Corresponding Capabilities
Regulation Entry into Force Core Requirements Our Corresponding Capability
ESPR (Regulatio de Designo Ecologico pro Productis Sustentabilibus) 18 Iulii 2024: 16 criteria, inter quae durabilitas et facultas reparationis; introductio Passus Digitalis Producti (DPP); fontes lucis mutabiles esse debent; alioquin tota lampas ut «fons lucis» habetur, cum classe efficaciae energicae restricta; structura constructiva fontium lucis mutabilium praebetur ad requisita ESPR implenda

Regulae ErP / SLR de Efficiencia Energica 1 Septembris 2021: LED directae non infra 120 lm/W; non directae non infra 140 lm/W; potentia in statu stand-by non ultra 0,5 W; flicker SVM non ultra 0,4 et Pst LM non ultra 1,0; CRI non infra 80; duratio vitae L70/B50 non infra 30 000 horas; linea nostra altae efficentiae ad mensuram superat valores efficentiae; flicker, CRI et duratio vitae configurabiles sunt ad normam

ErP-Labeling Regulation, 1 September 2021: New A–G seven-class label replaces former A+++/A+ scheme; registration in EPREL database with QR code generation required. We can support customers through the EPREL registration process.

EPBD (Energy Performance of Buildings Directive): From 2028, non-residential buildings with HVAC capacity exceeding 290 kW must be equipped with intelligent lighting control systems enabling load management. Load management interfaces may be reserved at the control layer.

EPBD: From 2030, scope extended to buildings with capacity over 70 kW; mandatory deployment of building automation and control systems (BACS). BACnet/IP and Modbus TCP integration supported.

Tres regulamenta constituunt limen combinatum: ErP definit minimum efficiendi et flickering, ESPR definit postulationes pro intercambiabilitate et reparabilitate, et EPBD definit postulationes pro configuratione systematum de regimine. Aditus ad mercatum non obtinetur nisi omnes tres regulamenta satisfaciuntur.

Nota importantissima de etiquetta energiae: Secundum regulas nunc in vigore, ad gradum A attribuendum, saltem 210 lm/W requiruntur, dum 120 lm/W respondet antiquo gradui A++, qui iam abolitus est. Nova etiquetta valores liminales universim elevavit, ita ut producta quondam altissime efficiens sub novo schemate automatico degradentur. Nostri producti altissime efficiens, ad mensuram clientis (210–230 lm/W), postulationem efficiendi pro gradu A implere possunt.

7.3 Subsidia et canales acquisitionis statuum membrorum

Germania. Modellos de conversione ad LED transformant luminarias existentes in LED altissime efficacitatis; casus publicati monstrant reductiones in consumptione electrica de minimo 50 %, ubi subsidia nationalia possunt coprire expensas intra paucos annos. Lex de Aedificiis Energeticis (GEG) exigit ut aedificia nova ‘standardum efficacitatis 55’ implent, quod significat necessitatem energiae primariae non superare 55 % aedificii referentis. Subsidia pro ‘Balkonkraftwerken’ ascendunt usque ad EUR 500.

Francia. Decretum de pollutione lucis, quod ab 1 Ianuarii 2019 in vigore est, ad illuminationem exteram publicam et privatum spectat, et ad praecavendam effusionem energiae et protegendum aequilibria naturalia tendit. Loca commercialia tenentur signa illuminata inter horam 1:00 et 6:00 exstinguere et interruptores remoti controlles installare, ut parati sint ad tempora penuriae energiae. Illuminatio publica debet conformis esse normis NF C17-200 et EN 13201. Mechanismus certificatorum conservandae energiae (CEE) subsidia pecuniaria praebet pro renovationibus efficientiae, praeter remissiones fiscales pro societatibus et creditum fiscale C3IV pro investitionibus industrialibus in rebus viridibus.

Italia. Planus PNIEC postulat ut systemata publica illuminationis conversionem ad LED perficiant. Regio Lombardia subsidia usque ad 3000 EUR pro projectis photovoltaicis cum accumulatione usque ad 20 kW offert. Systema publicum acquisitionum contratus quadros pro publica illuminatione, distributione electricitatis, conservatione, mutationibus energiae et functionibus urbium intelligentium habet.

Hispania. Depreciatio accelerata absolute applicatur ad investitiones commerciales in systemata energiae renovabilis pro usu proprio. Ordinationes administrativae de conservatione energiae limites climatizationis ad 27 °C et calefactionis ad minimum 19 °C pro aedificiis publicis et emporiis statuunt, atque illuminationem fenestrarum ad horam 22:00 extinguendam. Programma FEDER 250 EUR pro kWh pro systematis accumulationis bateriarum offert. Casus editi urbem describunt quae 350 systemata natrii ad altam pressionem per LED substituit, potestatem 65 % minuit, et 27 000 EUR per annum salvat.

Suecia et regiones boreales. Subsidia pro installationibus solaribus aucta sunt ab 15 % ad 20 %, quae materiam et opus operis includunt. Auxilium pro renovationibus efficiens in domibus unifamiliaribus auctum est, et coniunctio energiae inter aedificia permittitur.

7.4 Definitio producti pro mercatus pretii alti

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

Efficientia luminis totalis non minor quam 210 lm/W, secundum exigentias classis A pro indicibus energiae
Structura fontium lucis intercambiabilium, secundum ESPR
Flicker SVM non ultra 0,4 et Pst LM non ultra 1,0; CRI non minor quam 80
Duratio vitae L70/B50 non minor quam 30 000 horae, configurabilis ad 50 000–100 000 horae
Potentia in statu stand-by non ultra 0,5 W
Nivelis regulandi sustinet tam DALI-2 quam Matter over Thread, conformis Zhaga Book 18
Interface de gestion de la charge réservé, conforme aux exigences de la directive EPBD à partir de 2028
Interface optionnelle pour stockage photovoltaïque et alimentation CC centrale
Assistance pour l’enregistrement dans la base de données EPREL

Trois voies d’accès au marché : le modèle allemand de kits de rétrofit LED correspond à la modernisation des luminaires existants ; les exigences PNIEC et les marchés-cadres pour l’éclairage public en Italie correspondent aux achats collectifs municipaux ; le décret français sur la pollution lumineuse et les exigences de télécommande correspondent au remplacement réglementaire.

Modèles de coopération et processus de livraison

8.1 Trois modèles de coopération
Modèle Investissement client Amortissement indicatif Clients appropriés
Achat direct Paiement unique pour les marchandises 6 mois à 2 ans pour les environnements industriels ; 1–2 ans pour les commerces ; 3–5 ans pour les installations sportives Clients disposant de capitaux disponibles et souhaitant la pleine propriété de l’installation

Contractus gestionis energiae (EMC): Nulla investitio praevia. Expensae ex parte reductionis consumptionis energiae solvuntur; tempus brevissimum 4–6 menses pro illuminatione commerciali, typice 1–3 anni in toto. Clientes qui praeficiunt non obligare fluxum pecuniarium suum et ex reductionibus solvere.

Illuminatio ut Servitium (LaaS): Solus pretium contractus servitii. Contractus comprehendit totam conversionem, curam et emendationes. Series tabernarum, clientes cum pluribus sedibus, institutiones publicae.

Credibilitas modello EMC fundatur in mensura parallelis contatoribus: Contatores ponuntur ante et post conversionem in eodem puncto mensurae, ita ut ratio reductionis per datos contatorum comprobetur. Offrimus garantiam 5–10 annorum (ut in contractu definitum est) una cum supervisione remota basata in nube.

8.2 Processus suppeditationis quattuor graduum

Gradus 1 – Analysys loci. Mensura veri occupationis profili, praesentis illuminantiae et potentiae, distributionis conditionum, et ambientis rumoris gradus. Hic gradus determinat utrum projectum prioritatem debeant dare altissimae efficaciae substitutioni apparatus, intelligenti configurationi controlli, an utrique.

Gradus 2 – Planificatio. Praebitio DIALux-illuminantiae simulationum, aequalitatis calculorum, efficaciae simulationum resultatorum, praedictionum consumi energiae, et analysium reditus, omnes octo parametri personalizationis specificati: classis efficaciae, CRI et temperatio coloris, distributio photometrica, gradus protectionis, architectura driveris, et protocolum controlli.

Gradus 3 – Verificatio et examinatio. Mensura exemplaris et confirmatio a cliente, collectio datum fundamentalis per mensuras cum contatoribus parallelis, et testes in operationem inter protocolum controlli et praesentes systemata aedificii.

Gradus 4 – Operatio et conservatio diuturna. Supervisio remota per nubem, notificatio automatica errorum, regula grupporum per applicationem, relationes periodicae de conservatione, et praestatio garantiae ut in contractu definitum est.

Parametri technici conversi in utilitatem clientis
Parametrum tecnicum Valor ex perspectiva clientis Limitatio
210–230 lm/W fons lucis (linea ad clientem adaptata) Expensae electricae multo minores ad eandem claritatem Valores dati confirmati per relationes probationis a tertius partibus

95 % efficacia driveris Eliminat perdita occulta in gradu suppeditationis Architecturae decentralizatae tradicionales amittunt circa 7 %–9 %

60 % conservatio systematis (valor obiectivus) Plurima opera commercialia et industrialia suam investitionem redimunt intra 1–2 annos Conservatio realis determinatur per analysim loci et mensuram metri paralleli

Design pro subalimentatio: prolongat duratam lucernarum et minuit frequentiam substitutionis. Operationem sub corrente parva extendit duratam ad plus quam quinque annos.

Alimentatio centralis DC: in novis constructionibus ulterius 15–20 % parcentur, cum meliori securitate electrica. Apparatus distributionis DC costa circa 1,5× quam apparatus AC.

Interfacs DALI-2: congruit cum praecipua basi pro projectis municipalibus Europaeis. DALI-2 cum Zhaga Book 18 est basi communis pro illuminatione externa Europaea.

Interfacs gestionis oneris: congruit cum requisitis configurationis pro magnis aedificiis Europaeis ab anno 2028. Applicatur ad aedificia non-residentia cum potestate HVAC supra 290 kW.

Structura fontium luminis intercambiabilium: congruit cum requisitis EU-ESPR et reservat spatium pro futuris mutationibus fontium. Fontes non-intercambiabiles limitant classen efficacitatis energicae totius lucernae.

Mensura paralela de contadores: Le economias sunt probate per datos de contadores, non per estimationes. Contage paralela al mesmo puncto ante e post le installation retroactiva.

Contratto EMC: Nulla investimento initial; pagamento ex le economias realisate. Base in participation in venditas; conditiones como specificate in le contracto.

garantia de 5–10 annos: Copre le ciclo complete del projecto secundo le contracto. Durata exacte como specificate in le contracto.

Sensorica radar con IA: Le illumination del parking activa se secundo le necessitates; potentia operative medie redubile a 2–3 W. Depende del nivel de interference local e del ajustamento.

Autonomia decentralisate de lampadas: Nulla gateway requirete; le illumination opera anc durante un defecto de rete. Tempus de reaction de computo edge sub 0,5 secunda.

Integration de PV e stoccage: Le illumination cambia ab un carga consumente a un nodo de energia controllabile. Require un investimento in PV e stoccage.

Contacto

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

Website: beaulighting.com
E-mail: [email protected]
WhatsApp / Telephono: +86 138 1840 3203
Adresse: Guzhen, Zhongshan, Provincia de Guangdong, China

Pro foliis technicis, relationibus de probatione ab tertio, copiis certificatorum, aut offertis pro projectis, quaesumus vos ad nostrum team commerciale per unum ex canalibus supra nominatis adire. Consilium praevium de planificatione intra 48 horas offerre possumus (tempus verum reactionis sub condicione communicationis).

Exclusio responsabilitatis et notatio de marca

Technical specifications. The efficiency, driver efficiency, lifetime, IP rating, color rendering, and other technical parameters stated in this document are design target values and available configuration ranges. The delivered values conform to those agreed upon in the technical specification confirmed by both parties, the sample measurement data, and third-party test reports. Efficiency data distinguish between measured luminaire values and nominal package values; measured luminaire efficacy is typically 20 %–30 % lower than nominal package efficacy. An efficacy exceeding 230 lm/W depends on low-current operating conditions, and 280 lm/W represents a technical upper limit verified under laboratory conditions; neither constitutes a serial production delivery commitment.

Prestatio conservationis energiae. Intervalla conservationis hic in hoc documento specificata sunt intervalla indicativa pro diversis ambientibus. Haec influuntur per efficacitatem praesentis systematis illuminationis, per tempora operationis realia in loco, per profunditatem configurationis systematis regulandi, et per qualitatem operationis et custodiae; non autem constituunt obligationem quae ad conservationem energiae in quodam projecto spectat. Expressio "60 % conservationis energiae" est valor obiectivus pro plurimis commercialibus et industrialibus scenariis sub approchione combinata ex substitutione hardware altius efficacis et configuratione intelligenti systematis regulandi. Conservatio realis pro quodam projecto determinatur per resultata analysium loci et per mensuras parallelas contorum.

Fontes dati. Datos projectus in Capitulo 6, datos mercatus et informationes regulatoriae in Capitulo 7, necnon omnes contenta in hoc documento notata ut „data sectoris publicata“ vel „casus publicati“ ex fontibus sectoris publice accessibilibus et ex registris projectuum tertiorum proveniunt. Haec tantum ad illustrandam latitudinem performance similium approchuum technicorum in diversis ambientibus adducuntur. Non repraesentant rationem projectus Beaulighting (Zhongshan) Lighting Technology Co., Ltd. nec approbationem informationum de projectis tertiorum. Data casuum et relationes examinum pro nostris propriis projectibus apud aequipe venditionis nostrae habentur.

Regulations and certifications. References in this document to EU ESPR, ErP/SLR, EPBD, and Member State measures serve solely to assist customers in understanding market access requirements in their target markets and do not constitute legal advice. Whether a product may be placed on a given market depends on the actual certifications, registrations, and test results obtained. Certifications held by our company are substantiated by original certificates; no certification is claimed that is not listed herein. Customers should verify the current version and applicability of relevant regulations prior to tendering or purchasing.

Brands. 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 mentioned 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, endorsement, approval, or certification relationship between Beaulighting (Zhongshan) Lighting Technology Co., Ltd. and these trademark owners, standards organizations, or certification bodies.

Copyright et usus licitus. Copyright huius documenti ad Beaulighting (Zhongshan) Lighting Technology Co., Ltd. pertinet. Clientes, mercatores, et officinae ingeniariae hoc documentum ad selectionem productorum, ad concursus pro iis, et ad exercitationes internas uti possunt, dummodo contentum integrum maneat et parametri technici ac clausulae exemptionis responsabilitatis immutati permaneant. Sine consensu scripto parametri technici in hoc documento in publicitate comparativa non uti possunt, nec clausulae exemptionis responsabilitatis deleri aut mutari possunt.

Editum: Septembris 2026 Versio: V1.1 Typus documenti: Materialis externus ad marketingum