Circuits, Diagrams & Power€¢ Basic Reader All inputs and outputs necessary to control door hardware are located in the control panel (above door or centrally located) Access requests

Circuits, Diagrams & Power

Rodger Schmidt

ASSA ABLOY EMSO Group

HES/Folger Adams/Securitron/Adams Rite/Alarm Controls

2

Class Agenda

3

What is the

heart of the

EAC system?

Power

Supplies,

Boards and

the Circuit

Wiring circuit,

lets make it

work!

Laying out the

circuit &

diagram

Team System

Project

Open

Discussion

and

Questions

Access

Control the

Basics

Exiting,

Switches,

Existing

Locksets

• Basic Reader

All inputs and outputs necessary to control door hardware are located

in the control panel (above door or centrally located)

Access requests sent to host PC via control panel

Access Control Basics

Power

SupplyPower

Supply

//upload.wikimedia.org/wikipedia/commons/e/e0/Access_control_topologies_serial_controllers.png

//upload.wikimedia.org/wikipedia/commons/e/e0/Access_control_topologies_serial_controllers.png

5

• Traditional solution - Electromechanical hardware requiring hard wiring for power and communication

• Typically non-proprietary product solutions for access control locking, signaling, and monitoring

• Ideal for high security or complex electrified openings

• Usually requires access control panels and interface devices in a secure closet “not above ceiling“

• NEC Code Applies

Traditional Electronic Access Control

Access

Controller

Multiple

Readers

DPS

Wiegand Data

12 / 24

VDC

DPS

Strike

REX

Power

Supply

120VAC

12 / 24

VDC

66

Typical On-line Access Control

3rd Party

Access

Controller

3rd Party

Reader

Interface

Strike

DPS

Wiegand Data

12 / 24

VDC

REX

12 / 24

VDC

OEM AccessControl System

Ethernet (IEEE* 802.3af)

Power

Supply

Power

Supply

120

VAC120

VAC

7


7

3rd Party

Access

Controller

Integrated Wiegand Access Control:Harmony | Access 600 | Symphony | SE LP10

3rd Party

Reader

Interface

12 / 24

VDC

+ E-Lock Power

+ Wiegand Data

+ REX

+ DPS (mortise only)

12 / 24

VDC


8


8

WiFi Access Control:v.S2 | P2 | Access 800 WI1 | Access 800 PWI1 | IN120

WAP

• 2,400 Users• 10,000 Events

• Add Joe and Mary access M-

F 6AM-6PM

• Remove Stuart

• Jane lost her card. Don’t

grant access for her old

card.

• Suzie used her card on 11/11

@ 07:47:12

• Door opened on 11/11 @

5:44:23

• My battery voltage is 11.46

VDC


2.4 GHz(802.11 b/g/n)

Our focus today!

Brick and Mortar

Key

Components

Where to start?Relationships, Drawings, Codes

AIA Docs – Divisions / CSI Change

Div 1: General

Div 08: Doors and Windows-Hardware

Div 13: Special Construction: Old Version

Div 26: Electrical

Div 27: Communications

Div 28: Electronic Safety & Security

RELATIONSHIPS

11

A – Assembly

A-1, A-2, A-3, A-4, A-5

B – Business

E – Educational

Factory & Industrial

F-1, F-2

High Hazard

H-1, H-2, H-3, H-4, H-5

Institutional

I-1, I-2, I-3, I-4

Mercantile

Residential

R-1, R-2, R-3, R-4

Storage

S-1, S-2

Utility & Miscellaneous

1 – Movie theaters, 2 - Food & Drink

3–Comm Halls, 4–Arenas, 5–Stadium

Banks, Call Centers

Child vs. Adult

F-1 - Assembly/Finishing/Packaging

F-2 - Low Hazard

H-1-5 - Cleaning Products, Liquid, Dust

Extensive groupings-explosiveness

1 – Rehab, Assisted Living, 2-Foster Detox,

Psych, 3-Detenction, 4-Day Care

Stores, Markets. Sales Rooms

1–Transient Boarding-10+, 2-Apartment,

Dorms, Frats, 3-Group Living–16 & under, 4-

Supervised 5 to 16 - residents

1-Moderate burning haz-wood, tires, etc

2 – Low Haz.- Metals, Parking

Private Garage, Sheds, Fences-+6’

GroupingsHow it is used

Occupancy – IBC 2015 – Chapter 3

12

Electric Locking System Worksheet

New to the worksheet on the back!

13

Safety, Work Hours, Noise Limitations, Start/Finish,

14

Maglock

Keypad

30 Sec Button

Power Supply

Release Button

Who do we start with???

What you need?

• Floor Plan

• Picture

• Work Hours

• Electric Location

• Types of product

• Control locations

• Noise Limits

• Safety

• Start/Finish

• Ceiling – PlenumHow about a summary of expected operation?

What does he give us?

15

Function Surrounding

CodesExisting

Conditions

Restrictions

What should we know?

Who conducts a Site Survey?

16

Customer

• Relationship

• Function/Narrative

• Fail Safe

• Fail Secure

• Security Level

• Threats/Concerns

• Budget – listen carefully

• Your Qualifications

Codes

• Building Codes

• Fire Codes

• Fire Assemblies

• Authority Having Jurisdiction – many

• Enforcement

• Occupancy/Loads

• Hardware

Environment

• Existing/Retrofit/New

• Occupancy/Loads

• Working Conditions

• Safety Standards

• Historical - Asbestos

• Pathways

• Wiring – Plenum/Non

Gathering Information

What is the lifeline for our systems?

So we start with the

Power Supply

right?

Simple Circuit

Hardware – Fail Safe/Secure

Switches – Common/Smart

Loads – Hardware/Switches

Distance – Out and Return

Conductors – Gauge/Number

Power Source – Volts/Amps

• If we break a circuit down we

have to know:

We Design the circuit from the furthest point in!

150mA

75mA

125 mA

F/A

AQD6

8F8R

EEB2

Mag

DK-264 Cond. 18 AWG 10 ft.

2 Cond. 18 AWG 15 ft.



PIR

170mA

6A

1250 mA

4 cond. 18 awg. 100 ft.

Power Supplies

Voltage

Amperage

Linear

Switching

Power Source

120 vs 240

Fan - cooling

UL Fire Relay

Other Features

Other Boards

Other Boards – Distribution - Relays

Outputs

Relays

Fire Relays

Auto Releases

Fuses or PTC

Distribution BoardsMultiple Outputs

Distinct + and -

Configurable Circuits

Fire Relays

Limited by Design

Vary by Manufacturer

Identify types of electronic hardware and how it is configured!

https://buydoorhardwarenow.com/image/cache/data/sargent/exits/57-8810-G-500x500.jpg


25

Switches are used to control a locking device or to signal a monitoring device

Each switch has one movable contact, the POLE, and one or more fixed contacts, the THROWS

SWITCH SYMBOL

Normally open

Fail Secure Electrified Hardware



26

Normally closed

Switches are used to control a locking device or to signal a monitoring device

SWITCH SYMBOL

Fail Safe Electrified Hardware

Each switch has one movable contact, the POLE, and

one or more fixed contacts, the THROWS

And all the Switches! And Many More

Plenum verses Non-Plenum Wire and Distances

VERIFY with

Mechanical

or GC!

C

NO

NC

+

-

REX

DK-12

NC

1

NO

2

COM

1

COM

2

Push Button

Common Switch –requires human interaction!

Common and Smart Devices

Smart Switch –requires power to work!

What comes in NC.

What goes out NC. + coming in.

What goes out NC.

What goes out NO.

+ coming in.

- coming in. - Going out.

+ throw coming in.What comes in NO.

What goes out NO.

Are there wires attached?

• What do you get from the manufactures?

If a manufacturer attaches a wire

they will tell you what it

represents!

If a manufacturer does not attach a

wire they tell what each location is

used for.

And we are now ready to select our PS?

Break Time

10 Minutes

33

BASIC QUESTIONS TO FIGURE OUT THE PARTS:

1) Devices on circuit – what is the load?

a) Hardware b) Switches

2) Wire type and gauge based on a distance circuit?

a) Plenum b) Non-Plenum

3) What is PS capable of for output per circuit?

a) Volts & Amps b) Output(s)

4) How big of a power supply do I need?

a) Spare power b) Distribution

• A NO contact means that the circuit is open and

voltage is not transferred from contact to contact in

the normal state. Used for

“Fail Secure” locks

• A NC contact means that the circuit is closed and

voltage is transferred from contact to contact in the

normal state. Used for

“Fail Safe” locks

NC

C

NOC

Contact Types

Form A Contact

Form B Contact

NC

C

NC

C

NOC NOC

• SPST

Normally Closed

• SPST

Normally Open

• Switches that have one input and just one output (NO or NC) are called single

pole-single throw (SPST).

SPST Switches

NO

NC

C NO

NC

C

• Switches with one input and two outputs are called single pole-double throw

(SPDT).

SPDT Switches

Form C Contact

NC1

C1

NO2C2

NC1

C1

NO2C2

• Switches with two input commons and one output for each are called

double pole-single throw (DPST).

DPST Switches

NO1

NC1

C1

NO2

NC2

C2

• Switches with two inputs and two outputs for each are called double pole-

double throw (DPDT).

NO1C1

NO2

NC2

C2

NC1

DPDT Switches

• Multiple NO switches are wired in parallel for fail- secure locks.

• Activating any of the NO switches will apply voltage, releasing the lock.

Parallel Switch Wiring – Normally Open Circuit

• Multiple NC switches wired in series for fail-safe lock.

• Activating any of the NC switches will break power, releasing the lock.

Series Switch Wiring – Normally Closed Circuit

Fail Safe Lock Wiring

Step 1: Connect all component negatives to the power supply negative.

+

-

NC-1

COM-1

PB3ER MAGNALOCKPSP-24

-

+

Why do we develop steps for wiring?

Step 2: Connect the power supply positive to the pushbutton COM-1 and

the pushbutton NC-1 to the lock positive.

MAGNALOCKPSP-24

+

-

-

+


NC-1

COM-1

PB3ER

Black

BW Stripe

Black

Red

Wht/Red

Red



+

-

MAGNALOCKPSP-24

-

+

COM-1

NC-1

PB3ER

NC-1

COM-1

PB3ER


+

-

COM-1

NC-1

PB3ERMAGNALOCKPSP-24

-

+

NC-1

COM-1

PB3ER

Step 2: Connect the power supply positive to the pushbutton COM-1, connect

the pushbutton NC-1 to the next pushbutton COM-1, and that pushbutton NC-1

to the lock positive.

Black

BW Stripe

Black

Red

Wht/Red

Wht/Red Red

Red

Fail Secure Lock Wiring

+

-

NO-2

COM-2

PB3ER Fail Safe LockPSP-24

-

+


http://www.hesinnovations.com/en/site/hesinnovations/Products-startpage/?groupId=141798&productId=148865


NO-2

COM-2

PB3ER

Step 2: Connect the power supply positive to the pushbutton COM-2, and

the pushbutton NO-2 to the lock positive.


-

+

+

-

PSP-24Fail Secure Lock

Black

Stripe

Black

Purple

Wht/Blue

Blue





+

-

Fail Secure LockPSP-24

-

+

NO-2

COM-2

PB3ER

NO-2

COM-2

PB3ER




+

-

NO-2

COM-2

PB3ERPSP-24

-

+

NO-2

COM-2

PB3ER

Step 2: Connect the power supply positive to the COM-2 of both

pushbuttons and the NO-2 of both pushbuttons to the lock positive.

Fail Secure Lock

Black

BW Stripe

Black

Purple

Wht/Blue

Blue

Wht/Blue

Blue



+

-

BPS 1 AMP

C

NO

NC

+

-

REX

DK-12

-

+

MAGNALOCK

NC

1

NO

2

COM

1

COM

2

PB3ER

Step 1: Type of electronic lock?

Step 2: Type of wiring circuit/s?


Step 4: Connect your circuit/s?

Wiring the Circuit

+

-

BPS 1 AMP

C

NO

NC

+

-

REX

DK-12

-

+

MAGNALOCK

NC

1

NO

2

COM

1

COM

2

PB3ER

Step 2: Connect all smart switch positives to the power supply positive.


+

-

BPS 1 AMP

C

NO

NC

+

-

REX

DK-12

-

+

MAGNALOCK

NC

1

NO

2

COM

1

COM

2

PB3ER

Step 3: Connect the power supply positive to the pushbutton COM-1, connect the pushbutton NC-1 to the keypad common, and the lock positive to the keypad normally closed.


R.E.X. Functions

• What is the R.E.X. function?

• The R.E.X. function allows you to use the access devices internal timer to release the lock from devices other than the access device.

+

-

BPS 1 AMP

C

NO

NC

+

-

REX

DK-12

-

+

MAGNALOCK

NC

1

NO

2

COM

1

COM

2

PB3ER

Fail Safe Wiring With R.E.X.

Step 4: Connect the pushbutton COM-2 to the power supply positive, then connect the NO-2 of the pushbutton to the

keypad REX input.

Black

Stripe

Black

Red

Red

Wht/Red

WhiteRed

Black

OrangeWht/BluBlue

Green

+

-

Power Supply

TRIG

NO

+

-

TM-9 Timer

-

+

Fail Safe Lock

NC

1

NO

2

COM

1

COM

2

Mom. Switch

MODEL TM-9 TIMEMATESparks, NV 89434 (702) 355-5625


NO

2

COM

2

Mom. Switch

COM

1

NC

1

Fail Safe Lock Wiring with Timer

NC

C

+

-

Power Supply

TRIG

NO

+

-

TM-9 Timer

-

+

Fail Safe Lock

NC

1

NO

2

COM

1

COM

2

Mom. Switch


NO

2

COM

2

Mom. Switch


COM

1

NC

1


NC

C

-

+

Fail Safe Lock

Step 3: Connect the power supply positive to the pushbutton COM-1, connect the pushbutton NC1 to the timer common, and the timer normally closed to the lock positive.

+

-

Power Supply

NC

1

NO

2

COM

1

COM

2

Mom. Switch

NO

2

COM

2

Mom. Switch

NC

TRIG

C

NO

+

-

TM-9 Timer


COM

1

NC

1


-

+

Fail Safe Lock

+

-

Power Supply

NC

1

NO

2

COM

1

COM

2

Mom. Switch

COM

1

NO

2

NC

1

COM

2

Mom. Switch

TRIG

NO

+

-

TM-9 Timer


Step 4: Connect the pushbutton COM 2 to the power supply positive, then connect the normally open of the pushbutton to the timer trigger input.


NC

C

Black

Stripe

Black

Red

Red

Wht/Red White

Red

Black

YellowWht/Blu

Blue

Green

Wht/

Blu Blue

Wht/Red

Red

REMINDER- Parallel Circuits – ALL COMMONS MUST TOUCH POSITIVE! ALL THROWS MUST TOUCH THE NEXT DEVICE IN!


+

-

BPS 1 AMP

C

NO

NC

+

-

REX

DK-12

-

+

Fail Secure Lock

Fail Secure Wiring With R.E.X.

COM-1

NO-2

COM-2

NC-1

PB3ER


+

-

BPS 1 AMP

C

NO

NC

+

-

REX

DK-12

-

+


Fail Secure LockFail Secure Lock

COM-1

NO-2

COM-2

NC-1

PB3ER

Step 3: Connect the COM-2 of the pushbutton to the power supply positive or keypad SRC then the C of the keypad to the power supply positive, and the lock positive to the NO of the keypad.

+

-

BPS 1 AMP


-

+

Fail Secure Lock

C

NO

NC

+

-

REX

DK-12

COM-1

NO-2

COM-2

NC-1

PB3ER


+

-

BPS 1 AMP

-

+

Fail Secure Lock

C

NO

NC

+

-

REX

DK-12

COM-1

NO-2

COM-2

NC-1

PB3ER

Step 4: Connect the pushbutton NO-2 to the keypad REX input.

Black

Stripe

Black

Purple

Red

White

Black

Orn

Wht/Blu

Blue

Blue

+

- -

+


NO

TRIG

C

NC

+

-

COM-1

NO-2

COM-2

NC-1


Fail Secure LockPower Supply TM-9 TimerMom. Switch

Fail Secure Lock Wiring with Timer

+

- -

+


NO

TRIG

C

NC

+

-

COM-1

NO-2

COM-2

NC-1




-

+

Step 3: Connect the power supply positive to the pushbutton COM-2 and TM-9 common, connect the timer normally open to the lock positive.


NO

TRIG

C

NC

+

-

+

- COM-1

NO-2

COM-2

NC-1



+

-

Power Supply

-

+

Step 4: Connect the pushbutton NO-2 to the timer trigger input.

NO

TRIG

C

NC

+

-

TM-9 Timer


COM-1

NO-2

COM-2

NC-1

Mom. Switch Fail Secure Lock


Black

Stripe

Black

Purple

Red

White

Black

Yellow

Wht/Blu

Blue

Blue

REMINDER- Parallel Circuits – ALL COMMONS MUST TOUCH POSITIVE! ALL THROWS MUST TOUCH THE NEXT DEVICE IN!

67

THE PATH

Wire – Pics of

•Shielded or Unshielded

•Solid or Stranded

•PVC Jacket or Plenum

Circuit Layout

DK-26/KP

Current

Draw

20mA

190mA

EEB2

Current

Draw

50mA

XMS

Current

Draw

50mAM62

Current

Draw

150 mA

Device Current Draw

On Circuit.

M62 150mA

EEB2 50mA

XMS 50mA

DK-26 190mA

Total 440mA

+25% 250mA

690mA

Minimum output from

circuit should be at

least 700 mA

Before determining the

wire run length.

We Design the circuit from the furthest point in!

150mA

75mA

125 mA

F/A

AQD6

8F8R

EEB2

Mag

DK-264 Cond. 18 AWG 10 ft.




PIR

170mA

6A

1250 mA

4 cond. 18 awg. 100 ft.

70

Sizing a Power Source Starts with the Circuit

•Add up amperage of all components & add 25% more mA

Example:

Strike 250mA

DK-12 40mA

Wire 125mA

415mA

1 Door per Circuit minimum amp on circuit ______

Example:

M32 Maglock 150mA

Keypad 70mA

Wire 125mA

465mA

PIR 120mA

18 Guage wire resistance = 1.6 vdc drop over 1000

ft (.250 x 6.4) = 1.6voltage drop

24vdc – 1.6 = 22.4 vdc

If both doors on the same circuit minimum amp _______

1

2

Wire Voltage Drop

To calculate the wire resistance, you need to know the distance from the power supply to the lock and the gauge of the wire. This chart shows wire resistance for copper wire per 1,000 ft

ELECTRIFIED HARDWARE

Wire Voltage Drop

Take the current draw of the lock and multiply by the resistance of the wire I X R = Voltage drop. An HES 5000 series strike requires .12 amp for 24 Vdc operation X 2.5 Ohms (14 gauge / 200 ft) = the Vdcdropped across the full length of the wire.

.12 X 2.5 = .6 voltage drop across the wire

Strike requirement is 24 Vdc ±10% (±1.2Vdc) or xx.x low and xx.xhigh, but .3 amps require for inrush to open the keeper.

12.0 Vdc - .6 Vdc = 11.4 Vdc delivered to the strike

.3 amp load needed by the strike X 2 for safety = .6 amps so a 1 amp power supply will be sufficient to run the strike with power to spare.

74

Systems Wiring Diagram orPoint to Point Wiring DiagramWIRING DIAGRAM

Creating the Circuit!

Electric StrikeTransformer

+ -

Non-polarized

C

NO

NC

Pushbutton

PUSH TO

EXIT

120VACLockedUn-Locked

Rectifier

+

-

AC Side

DC Side

75

ONE

OPERATIONS NARRATIVE

HARDWARE

LIST THREE

ELEVATION

DRAWING FOUR

SYSTEM WIRING

DIAGRAM

TWO

Elements of a System


76

Required in Specifications and Submittals

1. OPERATIONS

NARRATIVE

4. WIRING DIAGRAM

2. HARDWARE

LIST

3. ELEVATION DRAWING

REQUIREMENTS

Outside Operation

– At Rest (while locked)

– Electrically Unlock

– Mechanically Unlock

Power Failure

LED’s

Inside Operation

1. OPERATIONS

NARRATIVE


77

Door shall be closed and secure at all times.

Entry by valid code in keypad. Electric strike will relock in 5 seconds.

Outside trim has key override for emergency entry.

Outside trim shall remain locked with loss of power

Inside always free for immediate egress.


4. WIRING DIAGRAM

2. HARDWARE

LIST

1. OPERATIONS NARRATIVE



78

1. Power Supply

2 Key Pad

3. Electric Strike



4. WIRING DIAGRAM

2.

HARDWARE

LIST


2. HARDWARE

LIST


79

3.

ELEVATION

DRAWING

4. WIRING DIAGRAM


2. HARDWARE

LIST


120VAC inputPower Supply

Not required in Specifications Required in Submittals


• • •

• • •

• • •

Key Pad

Electric Strike

80

4. WIRING

DIAGRAM

2. HARDWARE

LIST



4. WIRING DIAGRAM

Not required in Specifications Required in Submittals


Riser diagrams

Wiring diagrams

Door is normally closed, latched and secure

from the outside. Depressing the push switch

will unlock the electric strike to allow ingress.

The strike will stay unlocked until depressing the

push button the second time. The electric strike

will be locked during a power failure.

Free egress is allowed at all times.

Operations narratives

2 CONDUCTOR

2 CONDUCTOR

120 VAC INPUT

310 2 ¾ 24VAC

ELECTRIC

STRIKE

PUSH

BUTTON

TRANSFORMER

Hardware List Mfg. Product No.

Electric strike hes 5000-24V Momentary pushbutton Securitron PB5 Power supply Securitron AQD6 Buzzer Securitron PZ1Wiring diagram

Operating Instructions:Push button to unlock strike and sound a buzzer to indicate strike unlocked.

Student Instructions1. Write an operations narrative 2. Draw an elevation diagram3. Complete the point to point wiring diagram4. Wire the basic circuit5. Have instructor check wiring before applying power6. Plug in power supply

INSTRUCTIONS SYSTEM 1

Page No. Fail Secure, DC System

Operations Narrative:

Hardware List

Electric strike (xxxx-24V) Mom. pushbutton (PB5) Power supply (BPS24-2) Buzzer (PZ1)

NARRATIVE/RISER DIAGRAM SYSTEM 1


EXERCISE NO. 1

Ceiling line

Finished floor

• Door is normally closed latched and secure from outside

• Depressing pushbutton will unlockstrike and buzzer will sound.

• Releasing pushbutton will relockstrike and shunt buzzer.

• Mechanical key override fromoutside at all times.

• During a power failure or fire alarmactivation strike will be locked

• Free egress from inside at all times

Power Supply

120VAC24VDC out

24VDC out

2-18AWG

2-18AWG

Pushbutton located at receptions desk

Buzzer

PUSHTO

EXIT

+-

Electric Strike

LockedUn-Locked

WIRING DIAGRAM SYSTEM 1


Hardware List

Electric strike (5000-24V) Mom. Pushbutton (PB5) Power supply (AQD6 24v) Buzzer (PZ1)

Buzzer

+-

C

NO

NC

R1

P1

FA

H

F2

F1

N

G

H

Fir

eA

lar

mC

on

ta

cts

24

VD

CP

osit

ive

Ou

tputs

24

VD

CN

eg

ati

ve

Ou

tputs

24v

120VAC in

put

+-

Electric Strike

Locked



Buzzer

+-

C

NO

NC

R1

P1

FA

H

F2

F1

N

G

H

Fir

eA

lar

mC

on

ta

cts

24

VD

CP

osit

ive

Ou

tputs

24

VD

CN

eg

ati

ve

Ou

tputs

24v

120VAC in

put

PUSHTO

EXIT

Hardware List

Electric strike (8300-24V) Mom. pushbutton (PB5) Buzzer (PZ1) Power supply (BPS24-2)



Page No. Fail Secure, DC System x timer

EXERCISE NO. 2

Ceiling line

Finished floor


• Depressing and releasing pushbutton will unlock strike and sound buzzer for 5 seconds,automatically relocking and shunting buzzer

• Mechanical key override fromoutside at all times.

• During a power failure or fire alarmactivation strike will be locked


Power Supply

120VAC24VDC out

24VDC out

2-18AWG

2-18AWG

Pushbutton located at receptions desk

Buzzer

X Timer

Hardware List

Electric strike (8300-24V) Mom. pushbutton (PB5) Buzzer (ZP1) Timer (TM9) Power supply (BPS24-2)

PUSHTO

EXIT

+-

Electric Strike

LockedUn-Locked


Page No. Fail Secure, DC System, timer

Buzzer

+-

C

NO

NC

R1

P1

FA

H

F2

F1

N

G

H

Fir

eA

lar

mC

on

ta

cts

24

VD

CP

osit

ive

Ou

tputs

24

VD

CN

eg

ati

ve

Ou

tputs

To

NC

Fir

eA

larm

co

nta

cts

24v

120VAC in

put

ON

12

34

5

TM

-9

Tim

em

ate

BLACK (NEG OR AC

IN)

RED (+v OR AC IN)

YELLOW (TRIGGER)

WHITE (REL.COM)

GREEN (REL. N.C.)

BLUE (REL. N.O.)

Hardware List

Electric strike (xxxx-24V) Mom. pushbutton (PB5) Buzzer (ZP1) Timer (TM9) Power supply (ADQ6 -24v)

P2

P3

P4

R2

R3

R4


Hardware List

Monitor strike (LML-1) LED’s (ZLP-1) Door position switch Power supply (AQD6-24-6) Wiring diagram


Page No. Monitor Strike x LED’s and DPS

EXERCISE NO. 3

Ceiling line

Finished floor

• Door is normally closed, latched and secure all times

• Mechanical key entry at all times.

• During a power failure door remains secure and LED’s not illuminated.

• Red LED, door closed and latched.

• Green LED, door opened and latchdisengaged from strike


Power Supply

120VAC

24VDC out

24VDC out

3-18AWG

2-18AWG

LED’s located at security panel

2-18AWG

C

NO

NC

Monitor strike

(Shown Tripped with

latch engaged)

Hardware List

Monitor strike (LML-1) LED’s (ZLP-1) Door position switch Power supply (BPS-24-2)

RED

GREEN

+

+

LED’s

-

-



R2

R4

R3

R1

P2

P4

P3

P1

FA

H

F2

F1

N

G

H

Fir

eA

lar

mC

on

ta

cts

24

VD

CP

osit

ive

Ou

tputs

24

VD

CN

eg

ati

ve

Ou

tputs

To

NC

Fir

eA

larm

co

nta

cts

24-2

120VAC in

put

C

NC

NO

White

Red

C

NO

NC

Monitor strike

(Shown Tripped with latch

engaged)

Hardware List


RED

GREEN

+

+

LED’s

-

-



R2

R4

R3

R1

P2

P4

P3

P1

FA

H

F2

F1

N

G

H

Fir

eA

lar

mC

on

ta

cts

24

VD

CP

osit

ive

Ou

tputs

24

VD

CN

eg

ati

ve

Ou

tputs

To

NC

Fir

eA

larm

co

nta

cts

24-2

120VAC in

put

C

NC

NO

White

Red

C

NO

NC

Monitor strike

(Shown Tripped with

latch engaged)

Hardware List


RED

GREEN

+

+

LED’s

-

-



R2

R4

R3

R1

P2

P4

P3

P1

FA

H

F2

F1

N

G

H

Fir

eA

lar

mC

on

ta

cts

24

VD

CP

osit

ive

Ou

tputs

24

VD

CN

eg

ati

ve

Ou

tputs

To

NC

Fir

eA

larm

co

nta

cts

24-2

120VAC in

put

C

NC

NO

White

Red

C

NO

NC

Monitor strike

(Shown Tripped with

latch engaged)

Hardware List


RED

GREEN

+

+

LED’s

-

-



R2

R4

R3

R1

P2

P4

P3

P1

FA

H

F2

F1

N

G

H

Fir

eA

lar

mC

on

ta

cts

24

VD

CP

osit

ive

Ou

tputs

24

VD

CN

eg

ati

ve

Ou

tputs

To

NC

Fir

eA

larm

co

nta

cts

24-2

120VAC in

put

C

NC

NO

Red

White


Power transfer hinge McKinney TA2714 x 4-1/2 x 4-1/2 x QC8

Exit Device Sargent 56-8810F x 24VDC

Digital keypad Securitron DK12 x 24VDC

Digital timer Securitron DT-7 x 24VDC

Power supply Securitron BPS24-2

Wiring diagram

Operating instructions:Connect the components so that latchbolt retracts and projects automatically at a certain time. Keypad to only operate when latchbolt is projected.

Student instructions1. Write an operations narrative2. Draw an elevation diagram3. Complete the point to point wiring diagram4. Wire the basic circuit5. Have instructor check wiring before applying power6. Plug in power supply


Page No. Latch Retraction by Keypad


Hardware List

Power transfer hinge Exit Device (latch retraction) Digital keypad (DK12) Digital timer (DT-7) Power supply (BPS24-2) Wiring Diagram


Page No. Latch Retraction by Keypad

EXERCISE NO. 4

Ceiling line

Finished floor

Power Supply x timer

4-18AWG

Keypad mounted 42” ABF

CL

120VAC

2-18AWG

• During business hours (8:00am -5:00pm) latchbolt will be retractedand door is push – pull.

• After hours latchbolt automaticallyprojects and secures door.

• Entering valid numerical code willretract latchbolt for 5 secondsand then automatically release

• Mechanical key override from secure side at all times

• During a power failure or firealarm activation door will remainsecure



Page No.

Hardware List

Power transfer hinge Exit device (56-8810) Digital keypad (DK12) Digital timer (DT-7) Power supply (BPS24-2)

R2

R4

R3

R1

P2

P4

P3

P1

FA

H

F2

F1

N

G

H

Fir

eA

lar

mC

on

ta

cts

24

VD

CP

osit

ive

Outp

uts

24

VD

CN

egati

ve

Outp

uts

To

NC

Fir

eA

larm

co

nta

cts

24-2

120VAC in

put

Black

Green

Red

Pink

Tan

3

5 6

7 8 9

* 0 #

1

2

3

4

5

6

DK12

+

-

C

NO

NC

REX1 2

4

Latch Retraction by Keypad


Page No.

Hardware List

Power transfer hinge Exit device (56-8810) Digital keypad (DK12) Digital timer (DT-7 Power supply (BPS24-2)

R2

R4

R3

R1

P2

P4

P3

P1

FA

H

F2

F1

N

G

H

Fir

eA

lar

mC

on

ta

cts

24

VD

CP

osit

ive

Outp

uts

24

VD

CN

egati

ve

Outp

uts

To

NC

Fir

eA

larm

co

nta

cts

24-2

120VAC in

put

Black

Green

Red

Pink

Tan

3

5 6

7 8 9

* 0 #

1

2

3

4

5

6

DK12

+

-

C

NO

NC

REX1 2

4

Latch Retraction by Keypad

REX

Wiring


Power transfer hinge McKinney TA2714 x 4-1/2 x 4-1/2 x QC8 Mortise lock CR, Sargent, Yale ML20905, 8270, 8890FL x 24VDC Digital keypad Securitron DK12 x 24VDC Alt. keyswitch Securitron MKA Power supply Securitron BPS 24-2 Wiring diagram

Operating Instructions:Connect the components so that entering a code will unlock the lock for 5 seconds and relock. A keyswitch to turn system on and off.

Student Instructions1. Write an operations narrative2. Draw an elevation diagram3. Complete the point to point wiring diagram4. Wire the basic circuit5. Have instructor check wiring before applying power6. Plug in power supply


Page No. Fail safe, mortise lock x keypad


Hardware List

Power transfer hinge Mortise lock (fail safe) Digital keypad (DK12) Alt. keyswitch (MKA2) Power supply (BPS 24-2)


Page No.

EXERCISE NO. 5

Ceiling line

Finished floor


• Entering valid numerical code will unlock the lock for 5 seconds andautomatically relock

• Mechanical key override fromoutside at all times

• During a power failure or fire alarmactivation lock will be unlocked

• Authorized key in keyswitch will turn system on and off


Power Supply

3-18AWG

42” AFF

CL

120VAC

2-18AWG

2-18AWG

CL

72” AFF

Fail safe, mortise lock x keypad

BLACK

RED


Page No.

Hardware List

Power transfer hinge Mortise lock (fail safe) Digital keypad (DK12) Alt. keyswitch (MKA2) Power supply (BPS24-2)

3

5 6

7 8 9

* 0 #

1

2

3

4

5

6

DK12

+

-

C

NO

NC

REX1 2

4

R2

R4

R3

R1

P2

P4

P3

P1

FA

H

F2

F1

N

G

H

Fir

eA

lar

mC

on

ta

cts

24

VD

CP

osit

ive

Outp

uts

24

VD

CN

egati

ve

Outp

uts

To

NC

Fir

eA

larm

co

nta

cts

24-2

120VAC in

put

C

NO

NC


BLACK

RED


Page No.

Hardware List

Power transfer hinge Mortise lock (fail safe) Digital keypad (DK12) Alt. keyswitch (MKA2) Power supply (BPS24-2)

3

5 6

7 8 9

* 0 #

1

2

3

4

5

6

DK12

+

-

C

NO

NC

REX1 2

4

R2

R4

R3

R1

P2

P4

P3

P1

FA

H

F2

F1

N

G

H

Fir

eA

lar

mC

on

ta

cts

24

VD

CP

osit

ive

Outp

uts

24

VD

CN

egati

ve

Outp

uts

To

NC

Fir

eA

larm

co

nta

cts

24-2

120VAC in

put

C

NO

NC


Break Time

10 Minutes

And we are now ready to select our PS?

103

• Plug-in Transformers

• Hard-wired Power Supplies

• Fire alarm interface

• Battery charging

• Plug-in Power Supplies

Types of Power Supplies

• Power supply monitors

Linear verses Switching Power

Linear : Block transformer

(steel or iron)

decreases voltage by

burning off heat!

Old School

Switching:Steps down power through

diodes and capacitors to

smooth out and drop

voltage, reducing noise!

2017

Switching:Steps down power through

diodes and capacitors to

smooth out and drop

voltage, reducing noise!

Linear

Linear Power – Dominant until

1970’s

Now : Consumer Products,

Toys, Cell, etc.

Uses diodes & capacitors for

smoothing out voltage - Quieter

Approx. 60% efficiency

Reliability – Higher

Conversion required for use

outside the US

Does not tolerate small losses

of power – can cause major

issues

Handles voltage load changes

better

Switching

Switch Mode – Available in

1970’s

Diodes & capacitors smooth in

high voltage DC.

DC converted to low voltage by

small ferrite xtrmr and FET’s or

transistors.

Voltage is converted into DC

output by another set of diodes

and capacitors & inductors.

Approx. 96+% efficiency

Reliability – Lower

Operate almost worldwide

Tolerates small power losses

What do you order?

• Call your favorite distributor!• Ask for 12/24 Volt AC/DC Power Supply and Amps needed

• Which PS do you normally get and why?

They give you a PS Rated at 6 Amps

at 12 Volts DC

Convert to 24 VDC – what

happens to Amps?

Some systems convert to 50%

of original amperage?

6 Amps now becomes 3 Amps

Does the Power Supply use

amperage to work?

Does a distribution board use

amperage to work?

Older Generation Power Supply

• Pick your voltage 12/24

• Select your Amps

• Convert from 12 to 24• Reduce your amps in half

• Ex. 10 amps went to 5 amps*

• Install Backup Battery• Reduces amp output

• Ex. 1 amp went to 750 mA*

Approx. Values *

Next Generation Power Supply

Pick your voltage 12/24

Select your Amps

Convert from 12 to 24

– No Reduction in amps

– Ex. 10 amps went to 5 amps*

Install Backup Battery

– Charging Circuit Separate from

output

Selecting Fused or PTC

AC

Voltage

Input

115-230

DC

Voltage

Output

Voltage Jumper 12 – 24 VDC

Output

Main PS Board

Monitor for AC and Battery

Fail

Average Voltage Output at 24VDC

Will be around 24-27 VDC

What is the important?

Output Boards

• Different Sizes and functions

• Fire or Non-Fire Ratings

• Fuses verses PTC

• Universal Verses Separate Control

• Requires power to work

Amazing what the wrong voltage can do to a board.

Distribution Board Specifications

Fire Alarm Interface

BPS 1 Amp BPS 2-15 Amp

2.2

KEOL

Resistor

N/O Contacts

N/C Contacts

Fire Alarm Contacts

2.2

K

EOL Resistor

N/O Contacts

N/C Contacts

Fire Alarm Contacts

BPS 1 Amp BPS 2-15 Amp EOL Resistor

• Used to release fail safe locks in the event of fire.

• Needed to meet life safety codes on most electric locking systems.

• Usually between power supply and fire system.

• EOL resistor fire alarm interface – Is the circuit closed.

Our focus today – AQD6-8PCI

Fire Alarm Input

Relay UL Listed


AQDer transfer hinge McKinney TA2714 x 4-1/2 x 4-1/2 x QC8 Mortise lock CR, Sargent, Yale ML20905, 8270, 8890FL x 24VDC Digital keypad Securitron DK12 x 24VDC Alt. keyswitch Securitron MKA Power supply Securitron AQD6 Wiring diagram

Operating Instructions:Connect the components so that entering a code will unlock the lock for 5 seconds and relock. A keyswitch to turn system on and off.

Student Instructions1. Write an operations narrative2. Draw an elevation diagram3. Complete the point to point wiring diagram4. Wire the basic circuit5. Have instructor check wiring before applying power6. Plug in power supply


Page No. Fail safe, mortise lock x keypad

ProjectTime

Invest in training

119

NEW COURSES IN DEVELOPMENT: • EMS Product Troubleshooting

• Aperio Product and Applications

• DKC Access Control Wiring & Configuration

• Advanced Technical Product Troubleshooting

HES Electric Strike Applications & Installation

Securitron State of the Art Smart Product Applications

Access Control Hardware Selection

Basic Low Voltage Electricity for Installers

Advanced Electronic System Wiring & Troubleshooting

Site Survey & Magnetic Lock System Installation

Adams Rite Storefront Products Mechanical to Electronic

TechnicalSupport

[email protected]

Rodger Schmidt

[email protected]

10 Minute Rule

Rodger Schmidt

Product Trainer – ASSA ABLOY

HES/Securitron/Adams Rite

480-815-8242

[email protected]

Phoenix, AZ

mailto:[email protected]

Thanks for a “Shockingly” good time

www.assaabloy.com

Level 3 Electric – Power, Circuits and Systems

11.16.15

124

Documents

Circuits, Diagrams & Power€¢ Basic Reader All inputs and outputs necessary to control door hardware are located in the control panel (above door or centrally located) Access requests