Tribhuvan University
Faculty of Management
Office of the Dean
Official Model Question Paper / Dean's Office Blueprint
Candidates are required to give their answers in their own words as far as practicable. Figures in the margin indicate full marks.
Group A
Brief Answer Questions. Attempt ALL questions. (5 × 2 = 10)
[5*2=10]- [2]
Define Property Risk. Distinguish between real property and personal property.
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Property Risk: Real vs. Personal Property
Property risk is the possibility of financial loss arising from the destruction, physical damage, theft, or loss of use of tangible physical assets.
- Real Property: Immovable land, buildings, structures, and permanent improvements attached to the land.
- Personal Property: Movable tangible property (furniture, inventory, plant machinery, mobile office equipment).
- [2]
Distinguish between Direct Loss and Indirect (Consequential) Loss.
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Direct vs. Indirect Loss
- Direct Loss: Immediate physical damage to or destruction of the property caused by an insured peril (e.g., factory roof collapsed by fire).
- Indirect (Consequential / Business Interruption) Loss: Secondary financial loss resulting from the inability to use the damaged property (e.g., lost business profits, continuing fixed employee salaries, and temporary relocation rent during factory reconstruction).
- [2]
What is Business Interruption (Consequential Loss) Insurance?
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Business Interruption Insurance
Business Interruption Insurance indemnifies an enterprise for lost net profit and continuing fixed operating expenses (salaries, bank loan interest, rent) during the period of operational shutdown following physical property damage caused by an insured peril.
- [2]
Define Estimated Maximum Loss (EML) / Probable Maximum Loss (PML).
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Estimated Maximum Loss (EML / PML)
EML / PML is the worst-case financial loss an underwriter estimates could occur to an insured property in a single disaster event, assuming that passive safety barriers function normally but active manual firefighting systems fail.
- [2]
What is the role of firewalls and compartmentation in passive fire protection?
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Firewalls and Compartmentation
Compartmentation divides a building into self-contained fire-resistant zones using masonry firewalls, fire doors, and rated floors to physically contain fire and smoke within the compartment of origin for a specified duration (e.g., 2 to 4 hours), preventing progressive collapse.
Group B
Short Answer Questions. Attempt any THREE questions. (3 × 10 = 30)
[3*10=30]- [10]
Explain the Fire Safety Engineering Triangle: Fuel, Oxygen, Heat, and the Chemical Chain Reaction. Discuss active vs. passive fire protection systems in commercial buildings.
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Fire Dynamics and Protection Systems in Property Risk
1. The Fire Tetrahedron (Combustion Elements)
Fire is an exothermic chemical reaction requiring four simultaneous components:
- Fuel: Combustible materials (wood, paper, textiles, hydrocarbons).
- Oxygen: Ambient air supporting combustion (
). - Heat: Sufficient thermal energy reaching the ignition temperature.
- Uninhibited Chemical Chain Reaction: Self-sustaining free radical propagation.
- Extinguishment works by removing any one element: cooling (water removing heat), smothering (foam/CO2 removing oxygen), or fuel removal.
2. Active vs. Passive Fire Protection Systems
Protection Category Core Mechanism Examples Passive Systems Built-in structural measures that contain fire and prevent building collapse without human or electronic activation. Fire-rated masonry compartment walls, fire-stopping dampers in HVAC ducts, fire-resistant doors, exterior fire escape staircases. Active Systems Systems that require motion, response, or automatic sensor triggering to detect and extinguish flames. Automated smoke/heat detectors, overhead wet-pipe sprinkler systems, fire hose reels, foam deluge systems, portable extinguishers. - [10]
Explain Earthquake Risk Assessment in property risk management in Nepal. Discuss structural seismic engineering, soil liquefaction, and building code compliance.
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Seismic Property Risk Management in Nepal
Nepal is situated along the seismically active collision boundary between the Indian and Eurasian tectonic plates, making seismic resilience paramount.
1. Core Seismic Risk Factors
- Ground Shaking & Peak Ground Acceleration (PGA): Lateral inertial forces that tear apart unreinforced masonry walls and induce soft-story building collapses.
- Soil Liquefaction: Saturated, loose sandy soils in river valleys losing shear strength during prolonged shaking, causing heavy building foundations to tilt and sink.
- Slope Failure & Landslides: High-altitude mountain terrain where earthquakes trigger destructive rock avalanches.
2. Risk Mitigation and Structural Engineering
- National Building Code (NBC 105:2020): Mandatory compliance for seismic design of buildings in Nepal.
- Ductile Detailing & Base Isolation: Integrating flexible elastomeric rubber bearings under foundation columns to decouple the superstructure from ground vibrations.
- Non-Structural Mitigation: Bolting down heavy industrial boilers, transformers, IT server racks, and overhead water tanks to prevent secondary fire and flooding.
- [10]
Discuss Industrial Safety Audits, Hazard and Operability (HAZOP) studies, and thermographic infrared inspections in factory risk control.
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Industrial Property Safety Audits and Preventive Diagnostics
1. Industrial Safety Audits
- Systematic, independent examinations of physical plant conditions, machinery guards, emergency evacuation routes, chemical storage protocols, and regulatory OSH compliance.
2. HAZOP (Hazard and Operability) Studies
- A structured, team-based brainstorming technique applying guide words (No, More, Less, As Well As, Reverse) to process flow piping and instrumentation diagrams (P&ID) to identify how process deviations could cause catastrophic explosions or toxic leaks.
3. Infrared Thermographic Inspections
- Non-contact thermal imaging of electrical switchboards, circuit breakers, busbars, and motor bearings.
- Detects localized electrical resistance hotspots (loose connections, phase overloads) before they ignite into electrical fires, enabling proactive maintenance.
- [10]
Explain Business Continuity Planning (BCP) and Disaster Recovery (DR) in property risk management. Detail the Business Impact Analysis (BIA).
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Business Continuity Planning (BCP) and Disaster Recovery
BCP ensures that critical organizational operations resume swiftly following property destruction.
1. Business Impact Analysis (BIA)
- Systematically identifies critical business processes, interdependencies, and evaluates the financial/operational consequences of interruption over time.
- Determines two vital recovery parameters:
- Recovery Time Objective (RTO): The maximum tolerable downtime an enterprise process can be offline before catastrophic operational failure.
- Recovery Point Objective (RPO): The maximum age of data that can be lost when a system crashes.
2. Disaster Recovery Site Strategies
- Hot Site: Fully equipped duplicate data center and operational desks running in real-time synchronization, enabling immediate failover within minutes.
- Cold Site: Empty physical facility equipped with power and networking, requiring equipment delivery before operations can resume.
Group C
Comprehensive Answer / Case Analysis Question. (1 × 20 = 20)
[1*20=20]- [20]
Read the following scenario and answer the questions:
Himalayan Steel & Rolling Mills operates a mega-industrial steel smelting plant in Bara district with a replacement asset value of Rs 4.5 billion. The plant processes scrap steel using high-voltage electric arc furnaces, hydraulic oil lines operating under high pressure, and vast outdoor raw material yards. A comprehensive property risk engineering audit revealed multiple severe vulnerabilities: (1) Over 5,000 liters of flammable hydraulic oil lines run directly adjacent to open molten-metal troughs without fire-resistant shielding; (2) The plant has no automated fire sprinkler system, relying on manual fire extinguishers, half of which are overdue for pressure servicing; (3) The primary electrical substation experiences chronic thermal overloads; (4) The factory has no secondary emergency power generator to keep furnace cooling jackets operating during national grid load shedding, creating risk of furnace wall explosion; and (5) The firm has zero Business Interruption (Consequential Loss) insurance.
Questions: a. Conduct a Comprehensive Hazard Identification & Risk Assessment (HIRA) evaluating Fire, Explosion, Machinery Breakdown, and Interruption risks. b. Compute the Estimated Maximum Loss (EML / PML) scenario if a hydraulic line ruptures near the electric arc furnace. c. Formulate an Enterprise Loss Prevention Engineering Plan (Active & Passive protection, interlocks, thermal imaging). d. Design an Optimal Property & Consequential Loss Insurance Portfolio specifying policy covers, business interruption indemnity periods, and deductibles.
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Case Analysis: Property Risk Engineering at Himalayan Steel & Rolling Mills
a. Hazard Identification & Risk Assessment (HIRA)
- Catastrophic Fire & BLEVE Risk: High-pressure flammable hydraulic oil lines adjacent to open molten-metal troughs (temperatures
) represent an extreme hazard. An oil line pinhole leak creates atomized flammable mist that ignites instantaneously. - Furnace Explosion (Cooling Jacket Failure): Grid failure without backup generators halts furnace water-cooling pumps, triggering steam explosion and catastrophic refractory lining collapse.
- Electrical Substation Fire: Thermal overloading of main transformers risks arc flash explosions, shutting down the entire plant for 6–12 months.
- Uninsured Consequential Loss: Zero business interruption coverage leaves the firm vulnerable to bankruptcy from unrecovered fixed debt service and wages during a shutdown.
b. Estimated Maximum Loss (EML / PML) Scenario
- Scenario: Hydraulic line rupture sprays oil onto molten metal; flames ignite overhead cable trays; plant roof trusses warp from extreme heat, causing partial factory collapse.
- Direct Physical Damage: Smelting furnace destroyed (Rs 800M) + Building collapse (Rs 400M) + Power substation (Rs 300M) = Rs 1.5 Billion.
- Consequential Loss (Downtime: 9 Months): Lost gross profit (Rs 120M/month
9) = Rs 1.08 Billion. - Total Combined EML: Rs 2.58 Billion (57.3% of Total Enterprise Value).
c. Loss Prevention Engineering Plan
- Hydraulic Oil Shielding & Fire-Resistant Fluids: Replace mineral-based hydraulic oils with water-glycol fire-resistant hydraulic fluids (FM Approved); encase all high-pressure lines in heavy-duty fire-resistant steel conduit.
- Automated Foam Deluge & Water Spray System: Install high-speed infrared optical flame detectors interlocked with an automated foam deluge system around the furnace perimeter.
- Emergency Backup Cooling Systems: Install an emergency dedicated diesel generator with automatic transfer switch (ATS) configured to restore furnace cooling water pumps within 8 seconds of grid failure.
- Thermographic Predictive Maintenance: Enforce monthly infrared thermographic scanning of electrical panels, transformers, and furnace shells.
d. Insurance Portfolio Structure
- Industrial All Risks (IAR) Policy: Covering all real and personal property (Rs 4.5 Billion sum insured on Reinstatement Value basis) against Fire, Explosion, Earthquake, Flood, and Machinery Breakdown.
- Business Interruption (Fire & Machinery Breakdown Consequential Loss): Sum insured of Rs 1.5 Billion covering Gross Profit for a 12-month Maximum Indemnity Period (MIP).
- Deductible Optimization: Accept a higher voluntary deductible (e.g., Rs 5 million per property claim) to secure a 25% premium discount, channeling the savings into loss prevention hardware.
- Catastrophic Fire & BLEVE Risk: High-pressure flammable hydraulic oil lines adjacent to open molten-metal troughs (temperatures