Networked Lighting Controls for Non-residential Buildings ... · Room vs. Building/Enterprise...

Networked Lighting Controls for Non-residential Buildings

Gary Meshberg, LEED AP, LC, CLCP

OSRAM

May 21, 2020

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Ameren Illinois Energy Efficiency Programs

COVID-19 Support

• Financial assistance for Ameren Illinois customers

• Service disconnections suspended and forgiveness of late fees for non-payment until

further notice

• Customers needing assistance with paying their bill should contact the customer care team

at AmerenIllinois.com for payment options

• Resources for small business support

• Resources on appropriate PPE

• Links to information to support your business

• Links to webinars with information on COVID-19

AmerenIllinoisSavings.com/COVID-19

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• Intelligent group of individually addressable luminaires, sensors and switches

• Luminaires and other devices talk to each other over the network

• Allows for multiple control strategies

• Programmable based on owner’s needs/wants

What is a Networked Lighting Control System?

Features & Benefits

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Popular Features

• Networking of luminaires and devices

• Central server

• Luminaire and device addressability

• Sensors – occupancy, photocell, others

• Zoning via software

• Continuous dimming

Image courtesy of OSRAM Encelium

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Additional Features

• Plug-load control

• Color changing / tuning

• Device monitoring / remote diagnostics

• Energy monitoring / recording

• Interface with other systems

Image courtesy of OSRAM Encelium

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Control Strategies

SMART TIME SCHEDULING

DAYLIGHT HARVESTING

TASK TUNING

OCCUPANCY CONTROL

PERSONAL CONTROL

VARIABLE LOAD SHEDDING

COMBINED ENERGY SAVINGS =

PLUG LOAD MANAGEMENT

up to 75%

Dimmin

g

Dimmin

g

Dimmin

g

Dimmin

g

10-50%

38%

10%

38%

35%

28%

17%

Image courtesy of OSRAM Encelium

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Energy Savings

2017 DLC Study:

90%

50%

0%

47% average across buildings

Building with most savings

Building with least savings% S

avin

gs

114 Buildings

Image courtesy of DesignLights Consortium

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• Maximum energy savings

• Occupant comfort

• Potential for global control

• Measuring and monitoring

Benefits

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• Asset tracking

• Space utilization

• Indoor positioning

• Conference room scheduling

• Security

• Integration with BMS/HVAC

Image courtesy of OSRAM Encelium

Non-Energy Benefits

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DLC Qualified Products List

https://www.designlights.org/lighting-controls/download-the-qpl/

Image courtesy of DesignLights Consortium

System Types

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• Centralized controllers switch and dim limited groups of luminaires

• Typically handle one branch circuit worth of load

• Zones are based on physical wiring

• These products do not meet the DLC specifications for inclusion in the Qualified Products List

Room-Based

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1 Control station

2 Light sensor

3 Vacancy sensor

4 – 6 Controller

7 Power supply

Image courtesy of ETC

Room-Based Example

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• Luminaires have on-board controllers for individual addressability

• As a result, these systems can generally handle an unlimited amount of load

• Zones are created in the software and are not based on physical wiring

• These systems do meet DLC specifications for the Qualified Products List

Building/Enterprise

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Image courtesy of OSRAM Encelium

Building/Enterprise

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Room vs. Building/Enterprise Systems

Room-Based:

• Centralized load controllers

• Zoning based on physical wiring

• Limited lighting load capacity

• May not use all control strategies

• Relatively low-cost and easy to specify and

install

Building/Enterprise:

• Luminaire-integrated load controllers

• Zoning created in software

• Virtually unlimited lighting load capacity

• Typically uses all control strategies

• Relatively higher-cost and may be more complex to

specify and install

Elements of a Control System

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• Contains relay for switching luminaire ON and OFF

• Contains circuitry for sending a dimming signal to the luminaire

Image courtesy of OSRAM Encelium

Luminaire Controller

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• Occupancy / vacancy sensors

• Photosensors for daylight harvesting

• Some sensors combine different functions

(i.e., occupancy and photosensing)

Image courtesy of OSRAM Encelium

Sensors

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• “Area” switches (for zone ON/OFF)

• Scene selectors

• Other override devices

Images courtesy of OSRAM Encelium

Switches

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Distributes network connections from a central server to end nodes (luminaires, sensors, switches)

Image courtesy of GDSTA

Gateway

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• Stores programming, schedules, behavior, control profiles, zoning information and energy use data

• Manages operation of the system including notifications when problems arise

Image courtesy of Enlighted

Server

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• Create zones/assign equipment to zones

• Create schedules

• Program variables/options for component behavior

• Manage the system

• Display and record energy use

• Check for faults/problems

Images courtesy of OSRAM Encelium

Software

Specification

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• Wired Communication: data travels along wires as digital information

• Wireless Communication: data travels through the air as digital information

• Hybrid System: wired/wireless combination

Image courtesy of Daintree

Wired vs. Wireless

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All devices communicate directly with gateway

May reduce network traffic and increase communication speed

Self-healing mesh network

All devices can talk to each other and to gateways

If a device fails the signal finds an alternate path to the

gateway

Determines how devices talk to each other

Different topologies present unique pros and cons

Some topologies are more common in wired vs.

wireless systems

Luminaires, sensors and switches are connected to gateways or

directly to the server via low-voltage cables

Essentially functions as a wired local area network (LAN)

Image courtesy of Eaton

Topology

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• Set of rules that define how devices communicate

• Devices designed to same protocol(s) are interoperable

• May be open standard, de facto open standard, or proprietary

Server ⟷ gateways: often uses propriety protocol

Gateways ⟷ components (wireless): often ZigBee or Bluetooth

Gateways ⟷ components (wired): often proprietary, sometimes DALI

Luminaire controllers ⟷ LED drivers: typically 0-10V, sometimes DALI

Protocols

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• Provisions in building/enterprise-based systems

• Third-party current transducers attached to branch circuits

• Embedded in luminaire-integrated controllers

Measuring Energy Use

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• Building/enterprise-based systems typically monitor the health of the system

• Continuous check of status of connected devices

• Automatic notification to designated staff about problems that arise

Images courtesy of OSRAM Encelium

Monitoring

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• Device not reporting

• Luminaire fault detected

• Communications failure

Image courtesy of Steve Mesh

Occupancy change

Photosensor event

Upcoming DR event

Monitoring

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Common network security methods:

128-bit AES encryption

User names/passwords for authorized operators/users

• UL 2900 certification addresses potential vulnerability

• Connecting a lighting control system’s devices via an existing IT network may cause additional risk of hacking

Security

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• Building Management System (BMS)

• Automated Demand Response Server (ADR)

• Heating, Ventilation & Air Conditioning (HVAC)

• Security/Life Safety

Integration with Other Systems

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• Lighting devices used for light, control, and as

sources of lighting and other data

• Remote or luminaire-integrated sensors

• May pass along data to third-party software or other

building systems

• Internet-Ready Alliance Standard: defines physical,

electrical, and communication interface between

luminaires, sensors, systems

• Data, data, data

The Information of Things

Internet of Things (IoT)

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• Owner Project Requirements

• Basis of Design

• Lighting Controls Narrative

• Evaluate potential vendors

• Select and procure desired system

Deployment Steps

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• Install system

• Installation verification and functional testing

• Commissioning

• Documentation turnover

• End-user training

Image courtesy of OSRAM Encelium

Deployment Steps

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• Discovery: finding components

• Zoning: creating distinct groups of luminaires

• Assignment: placing components in zones

• Programming: creating schedules, control profiles, etc.

Startup

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• Depending on space type

• Open vs. Private office

• Individual luminaire vs. group control

• No. of control stations

• Programming / services

• Stand Alone - analog

• $0.25 – $0.90

• Min. savings / LC Strategies

• Room based system

• $0.40 - $1.25

• Moderate savings / more LC Strategies

• Networked Building Wide

• $1.00 - $1.50

• Maximum savings / LC Strategies

System Types: Typical $ / Ft2

Resources

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• Education Express series of courses on various topics, including networked lighting control and

wireless control

• New products and industry news

• Networked lighting control system generic troubleshooting guide

• www.lightingcontrolsassociation.org

Lighting Controls Association

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• Qualified Products List (QPL)

• Energy-savings study

• Training

• www.DesignLights.org

DesignLights Consortium

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• Networked lighting control systems link all components related to a lighting system –

luminaires, sensors, switches, etc.

• Systems are zoned, programmed and operated using software

• There are many potential benefits to using a networked lighting control system including

energy savings, but also significant non-energy benefits

Conclusions

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QUESTIONS?

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Thank you for attending!

Gary Meshberg, LEED AP, LC, CLCP

Director of Industry and Market Engagement

gmeshberg@osram.com

1.214.476.5895

Ameren Illinois Energy

Efficiency Resources

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• Objective: Strategically allocate cash/technical

resources, reward real efficiency

• Underlying Concept – Everybody Wins

• Offset increase in energy demand due to growth

• Costs ratepayers less than new generation (NRDC,

+$7 Billiion net savings)

• Funded by, and for, customers, since 2008

• EDR/GDR Rider on your bill

• Common pool of funds reallocated

Energy Efficiency Program

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• Local Energy Advisors

• Free site walk-throughs/consultations

• Consult on projects/application process

• AmerenIllinoisSavings.com

• Program Industrial Energy Manager

Joe Birschbach

Joseph.birschbach@leidos.com

1.636.215.5096

Program Resources

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• Cash incentives available for your facility!

• Application Process, three types:

1. Standard

2. Custom

3. Study (to originate custom applications)

• Typically paid upon project completion, based on kwh/therm saved

• Pre-Approvals (before PO cut)

• No – if <$10,000 incentive

• Yes – if >$10,000 incentive, or any Custom/Study applications

• …also, LIRF – if >$50,000 incentive

Incentives

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New Construction Lighting

• Incorporates all fixtures/controls strategies (14¢-18¢/kwh saved annually)

• Considers lighting power density, operational hours and $150,000 cap

Standard

• Instant Incentives – up to 80% reduced cost through online store or participating distributors, generally low

wattage/easy install (i.e. generally screw in, pin or recessed LED bulbs)

• Standard App’s, generally:

• Int./Ext. LED (20¢-40¢/watt redux)

• fixture removal (15¢/watt eliminated)

• Occupancy sensors/daylight harvesting (new, hard-wired, replacing manual, <800W controlled, $20-

$50/control)

Custom (anything non-standard)

• Typically non-DLC or >800W controls or integrated systems, resulting annual savings, 6 mo. – 10 year simple

payback, max. 80% project cost

• $0.12/kwh saved, no max., 1-2 weeks pre/post metering typical

Lighting System Incentives

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• Feasibility Study (to support Custom project development)

– Up to 75% third party costs ($20,000 max.) for technical analysis/modeling, performance

component

• Metering & Monitoring Study (to support Custom project development)

– Up to $30,000 for equipment/install costs, performance component

Lighting System Incentives

Protocols – examples

DALI

PWM

MIDI

RS232

RS485

EnOcean

DMX512

Konnex

LonWorks

Modbus

RDM

SMPTE

TCP/IP

XML

Zigbee

Z-Wave

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Image courtesy of Illuminating Engineering Society