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Power + data (combined)
Isolator
-
-
SLD & Loop Designer
SYSTEM-SPECIFICChoose a fire alarm system, build a loop from detector/call point/sounder/VAD quantities, and generate the single-line loop schematic, address assignment and loop current/volt-drop calculation together. Defaults are typical published ranges for that system class - confirm exact figures against the current datasheet for the specific device/panel model before issuing a design.
Smoke/heat detectors
18
Manual call points
4
Sounders
6
VADs / beacons
4
1 (project spec - isolator per device)
Addressing Technique
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QA/QC Review
SUBMITTAL · SHOP DRAWINGInteractive review checklists built from the fire alarm specification clauses. Mark each item, add a remark, then print or export the review as a Word-openable file.
Troubleshoot
FAULT · CAUSE · FIXSelect a system to see common field faults, likely causes and the standard fix approach. General diagnostic guidance - always follow the specific panel's fault code manual on site.
Side-by-Side Comparison
7 SYSTEMSProtocol, wiring default, addressing method and isolator strategy across all covered panels.
Max devices/loop is a typical order-of-magnitude figure for the protocol generation - actual capacity depends on the specific loop card/panel model and firmware. Use the SLD & Loop Designer tab to plan against the exact figure once confirmed from the datasheet.
Codes & Standards Comparison Lab
BS / EN · NFPA / UL · DCD · IEC / BS 7671Compare how the same fire alarm project is viewed under different frameworks. This training view explains the role and engineering approach of each framework; exact project requirements still come from the approved fire strategy, specification and current authority/code edition.
BS 5839-1 ↔ NFPA 72
Open Individual Code / Standard Notes
CLICK FOR DETAILThe cards below retain the detailed notes already included in the training file.
DCD & Project Specification Overlay
Important distinction. A local authority requirement or project specification can be more restrictive than the base code. Treat DCD requirements and the approved project specification as overlays that must be satisfied in addition to the declared design framework.
Certification route. The proposed equipment certification route must match the project/authority basis and the actual submitted models. Do not assume that a generic family certificate proves compatibility of the assembled system.
Compatibility. Where a system mixes components, verify system-level compatibility and manufacturer certification/approval rather than checking individual device certificates only.
Engineer’s Notes
CABLES · PROGRAMMING · PRACTICEPractical field and review notes. Open a note to see the written guidance plus an interactive visual showing how the issue appears on a real installation or review.
Interactive Fire Alarm Design Fundamentals
CLICK · CHANGE SCENARIO · LEARN WHYSelect a room condition, then click the highlighted devices or design issues in the floor plan. The visual explains the engineering decision rather than only showing a generic list.
DetectionAlternative detector selectionManual initiationNotificationGeometry / obstruction
TIP · Change the scenario above. The highlighted design priorities and explanation cards update automatically.
Design Decision Flow
ROOM → RISK → DEVICE → COVERAGE → INTERFACELive Cause & Effect / System Interface Simulator
VIRTUAL FIRE EVENT · ALARM INPUT → FACP → FIELD OUTPUTRun a virtual fire event and watch the signal move from the initiating device to the FACP and then to the programmed life-safety interfaces. This is a training simulation only: the actual project response shall follow the latest approved Cause & Effect matrix and fire strategy.
Commands: FIRE OFFICE · MCP · SPRINKLER · SUPPRESSION · RESET · HELP
FIRE ALARM CONTROL PANEL
SYSTEM NORMAL
ALL LOOPS HEALTHY
ALL LOOPS HEALTHY
POWER FIRE FAULT
Event 000 · Awaiting input
LIVE EVENT LOG
00:00.0 System normal. Simulator ready.
CURRENT STEP
StateREADY
ActionSelect a scenario and run
Training principle. The animation verifies the logic path, but real T&C must prove the final field response. For example, do not stop at “fire alarm relay operated”; verify that the AHU actually stops, the lift actually recalls, the access-controlled door actually releases, and the smoke-control system reaches the intended mode.
Battery Capacity Calculator
TRAINING CALCULATIONPreliminary battery sizing for training. Use project-specific standby/alarm durations and manufacturer charger/battery requirements for final design.
Important. Final battery selection must also satisfy manufacturer charger capacity, minimum terminal voltage, temperature effects, battery type, ageing criteria and authority/project specification requirements.
Testing & Commissioning
PRE-COMMISSIONING · FUNCTIONAL · INTERFACE · HANDOVER1 · Pre-commissioning
Cable & Loop Integrity
Continuity, insulation resistance as permitted by manufacturer, polarity, earth fault checks, loop return, labels and device addressing.
2 · Functional
100% Device Operation
Detectors, MCPs, sounders, VADs, fault signals, open circuit, short circuit, device removal and power supply fault tests.
3 · Interfaces
End-to-End C&E
AHU/FAHU, lifts, smoke control, dampers, access control, suppression, emergency lighting, BMS and other approved interfaces.
4 · Handover
Documentation & Training
As-built drawings, C&E, zone chart, address list, configuration backup, passwords/licences, O&M, T&C results and end-user training.
Commissioning principle. A device test is complete only when the panel indication, programmed logic, field output and final interfaced system response are all verified against the approved cause & effect.
Engineer Quiz
SELF-ASSESSMENTShort review questions based on the training content. Select an answer and check the explanation.