Skip to main content

Facility Disaster and Contigency Planning



Facility disaster and contingency planning establishes the purpose, applicability, scope and assumptions for providing total facilities management for the public and user. Facility contingency planning provides critical business activities to continue without interruption when unexpected events arise. This planning will result in risk reduction and less time spent in contingency or recovery phases
during recovering the impacted operations.

Among theses facilities are:
(a) Schools;
(b) Hospitals;
(c) Nursing homes;
(d) Day-care facilities;
(e) Places of worship;
(f) Shopping malls;
(g) Colleges; and
(h) Business centres.

Facility contingency planning consists of identifying critical business processes, activities and related risk to proactively minimise potential losses and ensure the continuity of operations in the event of unexpected events. This planning establishes to recover the total facilities management system following a disruption. The following objectives have been established for this plan:

(a) Response;
(b) Resumption;
(c) Recovery and Backup Operations; and
(d) Restoration.

The coordinators of a system contingency plan shall coordinate the recovery processes and shall coordinate with recovery organisations. The recovery process shall also be in line with the Emergency Response Plan.

(a) Response Strategy
The Facility Contingency Plan Coordinator (FCPC) establishes an immediate team presence at the incident site. The planning for Emergency Response Procedures shall include a preliminary assessment of incident impact, known injuries, extent of damage and disruption to business operations. The FCPC shall seek and disseminate information to provide Facility Contingency Plan
management with the necessary details, to make informed decisions regarding subsequent resumption and recovery. The Facility Contingency Plan shall be planned and executed in conjunction with the Emergency Response Plan and shall adapt to the Incident Coding System (ICS).

(b) Resumption Strategy 
The management and the FCPC are responsible for the following:

(a) Establish and organise a management control centre and Headquarters for the resumption operations;

(b) Mobilise and activate the support teams necessary to facilitate and support the resumption process; and

(c) Alert the community, individuals and organisation affected.

(c) Recovery and Backup Operations Strategy
The Backup Operations Procedures shall be prepared and activated after the call for Emergency Response and Disaster Recovery processes. The transition process from normal operations to Backup Operations during emergency covers all the affected areas and shall be tested before the backup and recovery operations are activated. The System Contingency coordinator shall ensure that the Backup
Operations Procedures are carried out according to their respective departments' function and service delivery.

(d) Restoration Strategy
In returning to normal operations either at temporary site or original site, the System Contingency Coordinator and their team shall test all the necessary requirements for operations. Once tested and accepted at requirement level, the System Contingency Coordinator shall notify the situation to departments and other organisations upon restoration.
 

Comments

Popular posts from this blog

Classes of Fire

Depending on the country you are in, there are slightly different categorizations of fire, .e.g. its slightly different for USA from UK & Europe. Here will examine the USA's OSHA classifications. In OSHA, fires can be divided into five classes: Class A:  These are fires involving flammable solids, e.g. wood, cloth, rubber, paper, and some types of plastics. An example of this type of fire would be a campsite fire. Class B:  These are fires involving flammable liquids or liquefiable solids, e.g. petrol, oil, paint and also some waxes & plastics, but not cooking fats or oils. Class C:  Class C fire involves energized electrical equipment. Such as motors, transformers and appliances. Remove the power and the class C fire becomes one of the other classes of fire.  Class D:  These are fires involving combustible metals, e.g. sodium, magnesium, and potassium. Class K:  These are fires involving cooking fats and oils such as an...

Electrosmog & Electromagnetic Hypersensitivity Syndrome (EHS)

Electrosmog is the invisible electromagnetic radiation resulting from the use of both wireless technology and mains electricity. The most common sources of wireless electrosmog are: Cordless phones Cordless baby alarms Mobile/cellular phone masts/towers/transmitters Mobile/cellular phones Wireless networks Electrosmog is responsible for a condition known as Electrosensitivity (ES) or Electro hyper sensitivity (EHS). Many people are getting Electromagnetic Hypersensitivity Syndrome (EHS). It is a condition in which people are highly sensitive to electromagnetic fields  in the environment: power lines, motors, computers,  or in n an area such as a wireless hotspot or near celluar Towers, they experience pain or other symptoms. Such symptoms include: Headaches Disruptive sleep patterns Chronic fatigue Depression Hypersensitivity and erratic blood pressure Skin complaints Behavioural patterns in children Children, the elderly and anyone with a lowered...

Noise Control By Engineering Methods

The OSHA Noise Standard (29CFR1910.95) states when the 8-hour noise exposure exceeds 90 dB-A, an effort to control noise through engineering methods must be attempted. Hearing protection alone is not an acceptable means of OSHA compliance to the noise standard. The reason is simple, the poorest means of protection, whether to noise or other health hazard, is to utilize personal protection (in this case, hearing plugs or muff). The best protection is to eliminate the excessive noise or isolate the individual from the noise source. That means some form of engineering control—design changes to the source or separation of a worker from the machine. There are a vast assortment of possibilities depending upon the noise source and the amount of energy (in the form of noise) that is produced. Remember that noise is energy and multiple sources compound the energy produced. For example: two (2) machines side-by-side each producing noise of 88 decibels each when combined that is...