Medical Gas Pipeline Cost Per Bed and Per Outlet in India

Medical gas pipeline budgets go wrong in a predictable way. Someone takes a per-bed figure from a similar hospital, multiplies it by the bed count, and puts the result in the project cost sheet. Six months later the number is 40 per cent short, and nobody can say exactly where it went.

It went into outlet count. A bed is not a unit of gas demand — an outlet is. And the number of outlets behind a “bed” varies from two to seven depending on what happens in that room. This guide gives you the ratios to plan from, decomposes the per-bed and per-outlet numbers into their parts, works through three hospital sizes, and takes the source-of-supply decision seriously, because that is the one Indian hospitals have got most wrong since 2020.

What Does a Medical Gas Pipeline System Cost in India?

Medical gas pipeline cost in India runs approximately ₹25,000 to ₹45,000 per general ward bed and ₹1.2 to ₹2.2 lakh per ICU bed, or ₹7,000 to ₹22,000 per gas outlet fully loaded — before the oxygen source plant, which is costed separately.

Scope	What it covers	Indicative cost
Per outlet, ward and OPD areas	Terminal unit plus proportionate copper, valves, alarms, labour, testing	₹7,000 – 15,000
Per outlet, ICU, theatre and emergency	As above, at higher outlet density and larger bore	₹12,000 – 22,000
Per general ward bed	2 outlets (O2 + vacuum)	₹25,000 – 45,000
Per HDU / step-down bed	3 outlets	₹60,000 – 1.1 lakh
Per ICU Level-3 bed	5 – 6 outlets plus bed head panel	₹1.2 – 2.2 lakh
Per major operating theatre	Full 13-terminal suite including AGSS, pipework only	₹3.5 – 7 lakh
Whole-hospital distribution, 100 beds	Copper, terminals, valves, manifolds, alarms, testing	₹35 – 70 lakh
Source plant	PSA, LMO, medical air, surgical air, vacuum	Separate — see below

Every rupee figure in this article is an indicative planning range for current Indian market conditions, not a quotation. Medical copper tube alone is typically 40 to 60 per cent of distribution material cost and tracks LME copper, which is why MGPS quotations are normally valid for only 15 to 30 days.

What Is Actually Inside a Per-Bed Number

The per-bed figure is a blend, and knowing the blend is what lets you flex it intelligently. For a typical ICU bed at ₹1.6 lakh:

Component of the per-bed cost	Share	Notes
Copper tube, fittings and brackets	35 – 45%	Tracks copper price; the largest single lever
Terminal units	15 – 20%	Indian vs imported BS/NIST/DISS is a 1.8 – 3x swing on this line
Bed head panel or pendant interface	15 – 30%	Ward strip vs full ICU BHP vs ceiling pendant
Valves, regulators, alarm coverage	10 – 15%	AVSUs, line regulators, area panel apportionment
Installation labour and brazing	15 – 20%	Higher in retrofit, high-rise and dispersed layouts
Testing, certification and documentation	5 – 8%	Non-negotiable; see the compliance section

Two implications follow. First, if a vendor’s per-bed price is far below market, look at the terminal unit brand and the copper specification before you look at anything else — those two lines carry most of the possible saving and most of the possible risk. Second, the bed head panel is a genuinely optional variable: a ward bed can take a simple two-outlet wall plate or a 1.2 m horizontal panel, and the difference is real money at 60 beds.

Cost Per Outlet by Gas Service

Gas service	Terminal unit hardware	Fully loaded, ward areas	Fully loaded, ICU / theatre	Notes
Oxygen, 4 bar	₹2,200 – 5,500	₹7,000 – 13,000	₹12,000 – 20,000	Highest consumption, widest peak-to-average swing
Medical air, 4 bar	₹2,200 – 5,500	₹7,500 – 13,500	₹12,500 – 20,000	Requires its own oil-free plant, not a regulator tap
Medical vacuum	₹2,000 – 5,000	₹7,000 – 14,000	₹13,000 – 22,000	Larger bore than intuition suggests; most-undersized service
Nitrous oxide, 4 bar	₹2,400 – 6,000	—	₹13,000 – 21,000	Theatres and labour rooms only
Surgical air, 7 bar	₹3,000 – 7,000	—	₹16,000 – 26,000	No diversity allowance, dedicated plant and header
Carbon dioxide, 4 bar	₹2,400 – 6,000	—	₹12,000 – 20,000	Only where laparoscopy volume justifies a pipeline
AGSS	₹4,000 – 9,000	—	₹18,000 – 32,000	Separate ducted disposal system, never the vacuum plant

“Fully loaded” means the terminal unit plus its proportionate share of copper, brackets, identification, zone valve, alarm coverage, labour and testing. A bare terminal unit costs a fraction of these numbers. The pipework behind it does not, which is why quoting on bare hardware prices produces budgets that fail.

Outlet Count Per Bed by Clinical Area

This is the table to plan from. Multiply, don’t guess.

Clinical area (per bed or per room)	O2	N2O	Air 4 bar	Air 7 bar	Vacuum	CO2	AGSS	Total
General ward bed	1	–	–	–	1	–	–	2
Private / deluxe room	1	–	–	–	1	–	–	2
HDU / step-down bed	1	–	1	–	1	–	–	3
ICU Level-3 bed	2	–	1	–	2	–	–	5
ICU bed with ECMO or HFOV	2 – 3	–	2	–	2	–	–	6 – 7
NICU cot / bay	2	–	2	–	2	–	–	6
Paediatric ICU bed	2	–	1	–	2	–	–	5
Labour / delivery bed	1 – 2	1	1	–	2	–	1	6 – 7
Recovery / PACU bay	1	–	1	–	1	–	–	3
Emergency / casualty bay	1	–	1	–	1	–	–	3
Dialysis station	1	–	–	–	1	–	–	2
Major operating theatre	2	2	2	1	3	1	2	13
Minor OT / procedure room	1	1	1	–	2	–	1	6
Endoscopy room	1	–	–	–	2	1	1	5
Cath lab	2	–	1	–	2	–	1	6

A useful cross-check once you have counted: a general multi-specialty Indian hospital lands at roughly 4.0 to 4.2 outlets per nominal bed. A critical-care-heavy, oncology or transplant facility runs 5.5 to 6.5. A ward-weighted nursing home runs 2.5 to 3.0. If your count is far outside the band for your hospital type, either the bed mix is unusual or something has been missed — and what has been missed is usually AGSS, surgical air, or the theatre suite.

Worked Examples: 50, 100 and 200 Beds

Same method each time: count outlets from the schedule above, then apply a blended fully-loaded rate of ₹9,000 to ₹16,500 per outlet across the mix.

50-bed hospital

Area	Units	Outlets each	Outlets
General ward beds	30	2	60
HDU beds	6	3	18
ICU beds	8	5	40
Major OT	2	13	26
Minor OT	1	6	6
Recovery bays	4	3	12
Labour beds	2	6	12
Casualty bays	4	3	12
NICU cots	4	6	24
Total			210

Distribution cost: ₹19 – 35 lakh. Ratio: 4.2 outlets per bed.

100-bed hospital

Area	Units	Outlets each	Outlets
General ward beds	55	2	110
HDU beds	12	3	36
ICU beds	18	5	90
Major OT	4	13	52
Minor OT	1	6	6
Recovery bays	8	3	24
Labour beds	3	6	18
Casualty bays	6	3	18
NICU cots	8	6	48
Dialysis stations	6	2	12
Total			414

Distribution cost: ₹37 – 68 lakh. Ratio: 4.14 outlets per bed.

200-bed hospital

Area	Units	Outlets each	Outlets
General ward beds	105	2	210
HDU beds	25	3	75
ICU beds	40	5	200
Major OT	7	13	91
Minor OT	2	6	12
Recovery bays	16	3	48
Labour beds	5	6	30
Casualty bays	12	3	36
NICU cots	14	6	84
Dialysis stations	12	2	24
Cath lab	1	6	6
Endoscopy rooms	2	5	10
Total			826

Distribution cost: ₹74 lakh – ₹1.36 crore. Ratio: 4.13 outlets per bed.

Notice what does not happen as the hospital scales: the outlet-per-bed ratio barely moves, and neither does the per-outlet rate. Distribution cost is close to linear in outlet count. What does scale non-linearly is the plant room — and that is the next decision.

Source of Supply: Manifold vs PSA vs Liquid Oxygen

This is the decision Indian hospitals get wrong most often, and the 2020–21 oxygen crisis made it worse in both directions. Some hospitals bought PSA plants sized for a peak that no longer exists and now run them at 15 to 25 per cent duty, where the economics never close. Others still run on cylinders at a bed count where that is indefensible. A third group has a PSA plant that was never properly integrated with the reserve manifold, the alarm system or the emergency supply connection — which means, in standards terms, they still do not have a compliant three-source supply.

	Cylinder manifold	PSA oxygen plant	Liquid medical oxygen (LMO)
Capex	₹1.5 – 3.5 lakh for a 2 × 10 automatic manifold	₹18 – 30 lakh at 20 Nm³/hr; ₹30 – 55 lakh at 40 Nm³/hr; ₹70 lakh – 1.2 crore at 100 Nm³/hr	₹25 – 60 lakh owned; frequently leased at zero capex against a supply contract
Enabling works	Ventilated cylinder room, minimal	Plant room 25 – 40 sq m, 15 – 45 kW connected load, DG backup, ventilation	PESO-approved pad with safety distances, vaporiser, fencing, tanker access road
Purity	99.5% medical oxygen	Oxygen 93 — nominally 93% ± 3%	99.5%
Main opex driver	Gas price plus cylinder rental plus handling labour	Electricity, roughly 0.7 – 1.1 kWh per Nm³, plus AMC and sieve replacement every 6 – 10 years	Liquid price, evaporation loss, tank rental
Indicative running cost per Nm³	₹28 – 55	₹10 – 22	₹15 – 30
Manpower burden	High — continuous cylinder handling	Low	Low
Primary failure mode	Supply chain and logistics	Power outage, sieve degradation, purity drift	Delivery delay, tanker access, run-down of a small tank
Typically makes sense	Below ~50 oxygen-dependent beds; always retained as reserve	~50 – 150 oxygen-dependent beds with stable power	Above ~150 oxygen-dependent beds, or wherever peaks are sharp

The crossover is a volume question, not a bed-count question

Bed count is only a proxy for oxygen volume, and a poor one if your occupancy or case mix differs from whoever’s rule of thumb you borrowed. The honest way to decide is to model consumption in Nm³ per month and compute payback directly.

Take a 20 Nm³/hr PSA plant at ₹24 lakh plus ₹8 lakh of enabling works — ₹32 lakh installed — running at an all-in ₹12 per Nm³ including electricity and AMC. Payback against buying oxygen:

Delivered cylinder / LMO cost	3,000 Nm³/month	6,000 Nm³/month	10,000 Nm³/month
₹20 per Nm³	11.1 years	5.6 years	3.3 years
₹30 per Nm³	4.9 years	2.5 years	1.5 years
₹45 per Nm³	2.7 years	1.3 years	0.8 years

Note that a 20 Nm³/hr plant produces about 14,400 Nm³ a month at 100 per cent duty, so the 10,000 Nm³ column already implies roughly 70 per cent duty — a well-loaded plant.

The table makes the real drivers visible. Payback is governed by delivered gas price multiplied by volume, and it collapses at low duty cycle. A hospital paying ₹20 per Nm³ on a good bulk contract and drawing 3,000 Nm³ a month should not buy a PSA plant, whatever its bed count. A hospital paying ₹45 per Nm³ with cylinder handling labour and drawing 6,000 Nm³ should have bought one already.

Three engineering caveats that do not appear in payback arithmetic:

• PSA delivers Oxygen 93, not 99.5 per cent. That is a pharmacopoeially recognised grade and clinically appropriate for the overwhelming majority of use, but it must be declared, monitored and documented — and some equipment specifications assume 99.5 per cent.
• A PSA plant is not a three-source supply by itself. NFPA 99 practice, which Indian hospitals generally adopt, calls for primary, secondary and reserve, plus an emergency supply connection point outside the building. A plant without an integrated reserve manifold and automatic changeover is a single point of failure with good marketing.
• PSA is power-dependent. Sizing the DG to carry the oxygen plant is part of the oxygen plant decision, not a separate electrical matter.

Most well-designed Indian hospitals above 100 beds end up with two generation or storage sources plus a cylinder manifold reserve. The question is which two.

Line-Item Cost Breakdown

Distribution

Item	Specification	Indicative installed cost
Copper 12mm / 15mm branch	EN 13348, degreased, capped	₹450 – 900 per running metre
Copper 22mm / 28mm sub-main	EN 13348	₹950 – 1,900 per running metre
Copper 42mm / 54mm main	EN 13348	₹2,200 – 4,500 per running metre
Copper 76mm / 108mm riser and header	EN 13348	₹5,000 – 11,000 per running metre
Automatic changeover manifold, 2 × 10 (O2)	With regulators, NRVs, alarm contacts	₹1.5 – 3.5 lakh
Manifold, 2 × 5 (N2O / CO2)	Automatic changeover	₹85,000 – 2 lakh
Area alarm panel	4 – 6 gas, audio-visual, per department	₹35,000 – 90,000
Master alarm panel	Plant status, BMS output	₹1.2 – 3.5 lakh
AVSU / zone valve box	3 – 5 gas, ball valves, gauges, break-glass front	₹28,000 – 85,000
Line pressure regulator assembly	Duplex, with filters and NRVs	₹45,000 – 1.5 lakh
Terminal unit, Indian make	ISO 9170-1, gas-specific	₹2,000 – 5,500
Terminal unit, imported BS / NIST / DISS / Ohmeda	ISO 9170-1	₹5,500 – 14,000
Bed head panel, ward horizontal 1.2 m	Services, sockets, light	₹12,000 – 28,000
Bed head panel, ICU 1.8 – 2.1 m	Services, sockets, nurse call, rails	₹35,000 – 1.1 lakh
ICU ceiling pendant, single arm	—	₹2.5 – 7 lakh
Theatre anaesthesia pendant	—	₹3 – 9 lakh
AGSS disposal unit and receiving systems	Per theatre suite	₹2.5 – 6 lakh

Installed cost for pipework covers tube, fittings, silver brazing with nitrogen purge, brackets, colour coding and identification, and testing.

Plant room

Item	Indicative cost
Oil-free medical air plant, duplex, 4 bar, with duplex dryers and triple filtration	₹6 – 15 lakh
Surgical air plant, 7 bar	₹4 – 9 lakh
Medical vacuum plant, duplex, with receiver and bacterial filtration	₹5 – 12 lakh
PSA oxygen plant, 20 / 40 / 100 Nm³/hr	₹18 – 30 lakh / ₹30 – 55 lakh / ₹70 lakh – 1.2 crore
LMO tank with vaporiser and telemetry, owned	₹25 – 60 lakh
Testing, purging, certification and validation dossier	3 – 6% of installed value

Why cheap plumbing copper is a false economy

Medical gas pipework uses seamless phosphorus-deoxidised copper to EN 13348: drawn, degreased, internally cleaned, capped at both ends at the mill, and supplied with mill test certificates. Plumbing and refrigeration copper looks identical, costs 12 to 25 per cent less on the tube line, and carries residual drawing lubricant on the bore.

In a 4-bar oxygen line, residual hydrocarbon is an ignition risk under the adiabatic compression that occurs when a valve is opened quickly, and any oil or particulate that survives into service travels downstream to regulators, ventilators and patient circuits. It is also detectable: oil content is part of the quality-of-gas test at purge stage, and failing it means re-purging or, in the worst case, re-piping a system that has already been closed up behind false ceilings.

The saving is roughly 5 to 10 per cent of distribution cost. The exposure is the entire distribution cost plus the programme. This is not a place to optimise.

What Drives MGPS Cost Up

Driver	Effect
Building geometry	A low-rise campus spread across four blocks can carry 30 – 50% more copper than a single tower with the same bed count. Vertical stacking is cheap; horizontal spread is not.
Pipeline run length to the most remote terminal	Drives pipe sizing on every upstream section, not just the last one
Retrofit in a live hospital	+15 – 30% on labour: night working, phased tie-ins, permit-to-work, temporary cylinder backup at affected bedsides, re-certification per zone
Redundancy level	Full N+1 on every plant adds 25 – 40% to plant room capex; three-source oxygen adds the reserve manifold and emergency supply connection
Terminal unit standard and origin	Imported BS / NIST / DISS units are 1.8 – 3x Indian equivalents on hardware, roughly 8 – 15% of distribution cost
Bed mix	ICU and theatre-heavy mixes double or triple outlet density per bed
Late addition of surgical air and AGSS	6 – 10% of distribution if designed in; 15 – 25% if added after first fix
Copper price	40 – 60% of distribution material cost; quotations valid 15 – 30 days
Site access and vertical transport	High-rise scaffolding, restricted working hours, material hoisting

The cheapest lever available is the earliest one: bring the MGPS designer in at civil design stage so that pipework runs in dedicated shafts rather than being routed around beams and ducts discovered on site. Second cheapest: procure pipework, plant and panels as one package rather than three, so nobody prices their interface risk into your budget three times.

Compliance Cost That Is Not Optional

India has no single mandatory MGPS engineering code, so hospitals design to HTM 02-01, cross-check against NFPA 99, and specify components to ISO 7396-1 and ISO 9170-1. NABH does not publish its own engineering standard — it audits whether you designed to a recognised one and whether you can prove it. That proof has a cost, and it belongs in the budget.

Activity	What it covers	Indicative cost
Design review and sizing calculations	Design flows, diversity factors by department, pipe sizing to allowable pressure drop	Within design fee
Pressure and leak test at 1.5 × working pressure	Recorded hold with temperature compensation, section by section	Within commissioning
Cross-connection and anti-confusion test	100% of outlets, gas-specific probes, no sampling rate is acceptable	₹250 – 600 per outlet equivalent
Mechanical function and interchangeability checks	Every terminal unit, probe engagement and seal	Within commissioning
Zone valve isolation verification	Every AVSU physically proven to isolate the zone it is labelled for	Within commissioning
Particulate testing	At the most remote outlets after purge	₹15,000 – 50,000 per campaign
Quality-of-gas testing	Purity, dew point, CO, CO2, oil content, odour	₹25,000 – 90,000 per gas per campaign
Alarm function testing	Every area panel and the master panel, with simulated faults and plant changeover	Within commissioning
Third-party verification	Where a tender or JCI track requires an independent verifier	₹1.5 – 5 lakh
Validation dossier compilation	As-builts, calculations, certificates, test records, calibration, PM schedule, PTW, training records	₹40,000 – 1.5 lakh
Annual re-validation	Gas quality certificates, alarm and gauge calibration	₹60,000 – 2.5 lakh per year

Budget 3 to 6 per cent of MGPS capital value for testing and certification at commissioning. If a bidder shows this as included-at-no-cost, ask which of the tests above they intend to perform, because the honest answer is “fewer than all of them”.

The documentation set a NABH assessor expects at the MGPS section:

• As-built drawings with valve and zone identification, and a valve schedule posted at nursing stations
• Design calculations stating the flow rates and diversity factors assumed, per department
• Material certificates, including copper mill test certificates and terminal unit conformity
• Signed, stage-by-stage commissioning test records — not a single summary certificate
• Gas purity and quality certificates from the purge campaign
• Calibration records for alarm panels, sensors and pressure gauges
• A written preventive maintenance schedule with completed visit logs
• A permit-to-work procedure for any intervention on live pipework, with a nominated Authorised Person
• Emergency procedures for gas failure, and records of staff training on shut-off valve locations

Hospitals lose points in this section far more often for missing records than for defective hardware. Budget the paperwork.

How to Compare Two MGPS Quotations

MGPS quotations are unusually easy to make look cheap, because the two biggest cost drivers — outlet count and copper tonnage — are invisible in a lump sum. Work through this list before shortlisting, and require answers inside the quotation.

1. Demand a room-by-room, gas-by-gas outlet schedule. Then count it yourself against the ratio table above. Most of the difference between two MGPS quotations is outlet count, not rate. This one step resolves the majority of price gaps.

2. Demand a bill of quantities in running metres by diameter. If two bidders differ on copper tonnage for the same building, they have not designed the same system. One of them has undersized it, and undersizing shows up as pressure drop at the furthest outlet exactly when every bed is loaded.

3. Ask which standard the sizing was done to, and for the diversity factors used, per department, in writing. Applying a general-ward diversity factor across an ICU floor is the classic Indian sizing error and precisely the failure mode that surfaced in 2021. ICU oxygen should be sized with explicit surge headroom.

4. Fix the terminal unit make, model and standard. BS 5682, NIST, DISS or Ohmeda — and the same type at every point in the hospital, because mixed types create a spares and probe-compatibility problem that lasts twenty years.

5. Confirm the copper specification and its paperwork. EN 13348, degreased, capped at the mill, with mill test certificates supplied per consignment. Ask whether tube stays capped on site until the moment of brazing.

6. Ask how joints are made. Silver brazing with a continuous internal purge of oxygen-free nitrogen is the only acceptable answer. Brazing without an inert purge forms cupric oxide scale on the bore that later breaks loose and travels into regulators and ventilators. Ask for brazer qualification records and joint traceability.

7. Count the zone valves. How many AVSUs, positioned where, covering which gases. Undercounting AVSUs is one of the easiest ways to look cheap, and it fails both the design intent and the audit.

8. Count the alarms. How many area panels, covering which zones. Is there a master panel with BMS output? Are sensors included, and is first calibration in scope?

9. Establish the plant scope boundary. Are the PSA, LMO, medical air, surgical air and vacuum plants in the same quotation? Who provides plant room civil works, electrical supply, ventilation and the DG connection? Who obtains PESO approval for bulk storage?

10. Require the testing sequence itemised. Not one line saying “testing”. Self-certified or third-party? Does the price include re-test after rectification, or is that chargeable?

11. Confirm the documentation deliverable. Is the validation dossier and as-built drawing set listed as a priced deliverable with a defined format?

12. Nail the interface boundaries. Bed head panels, pendants, theatre terminal drops, HVAC and structural penetrations, fire-stopping at penetrations, core cutting and making good. If your modular theatre contract and your MGPS contract are separate, these boundaries must be watertight in both — our modular OT cost guide covers the same boundary from the theatre side.

13. Separate warranty from AMC. Free warranty period on plant versus pipework, and AMC pricing for years two to five quoted now, not later.

14. Check price validity and the copper escalation clause. A long validity with no escalation clause means the risk is priced somewhere — usually in the tube specification.

15. Map commissioning to your civil programme. For retrofit, require named tie-in windows, permit-to-work arrangements and the cylinder backup plan for affected bedsides.

Then normalise:

Line to normalise	What to demand	Typical hidden delta on a 100-bed system
Outlet count	Room-by-room schedule by gas	₹5 – 15 lakh
Copper tonnage	BOQ in metres by diameter	₹4 – 12 lakh
Terminal unit origin	Make, model, standard	₹3 – 8 lakh
AVSU count	Positions and gases per box	₹1 – 3 lakh
Alarm coverage	Area panel count, master panel, sensors	₹1 – 4 lakh
Bed head panels	Type per bed category	₹6 – 25 lakh
Surgical air and AGSS	In or out of scope	₹4 – 10 lakh
Plant room	Which plants, plus enabling works	₹15 lakh – 1 crore
Testing and certification	Itemised test list, third party	₹2 – 6 lakh

After normalisation, two competent quotations for the same hospital should be within about 15 per cent of each other. A wider gap means a specification difference you have not found yet.

Running Cost and AMC

MGPS degrades quietly. Filters load, desiccant beds saturate, PSA sieve performance drifts, alarm sensors lose calibration, valve seats stiffen, probe seals harden. None of it announces itself until a purity test fails or a ventilator alarms.

Annual operating cost head, indicative for a 100-bed hospital	Range
Oxygen — purchased gas or generation cost	₹18 – 60 lakh depending on route, occupancy and case mix
Medical air, surgical air and vacuum plant electricity	₹3 – 7 lakh
MGPS annual maintenance contract	₹4 – 9 lakh
Consumables: filters, desiccant, bacterial filters, gaskets	₹1.5 – 4 lakh
Annual re-validation and gas quality certificates	₹60,000 – 2.5 lakh

AMC for medical gas systems typically runs 6 to 10 per cent of MGPS capital value per year, depending on plant inventory and whether spares are included. A comprehensive scope covers quarterly plant room preventive maintenance, oil-free compressor and vacuum pump servicing, filter and desiccant replacement, PSA sieve health assessment with oxygen purity verification, annual calibration of alarm panels and gauges, zone valve exercising, rolling terminal probe and seal testing, leak surveys on distribution mains, and annual re-validation.

Typical consumable intervals worth putting into the operating plan: air plant filters every 4,000 to 8,000 running hours, desiccant every three to five years, vacuum bacterial filters every six to twelve months, PSA molecular sieve every six to ten years, and alarm sensor calibration annually.

The number most often missing from a hospital’s operating budget is the re-validation line. It is small, it is annual, and without it the certificates that support your accreditation quietly expire.

Where to Go From Here

Two things determine whether an MGPS budget survives contact with the project: an outlet schedule counted room by room before anyone quotes, and an honest model of oxygen volume in Nm³ per month before anyone chooses a source. Get those two right and the rest of the numbers behave.

For the full technical scope — HTM 02-01, NFPA 99 and ISO 7396-1 design basis, sizing methodology, brazing and testing discipline, and the validation dossier we hand over — see our medical gas pipeline system service page. If you are costing theatres in the same project, the modular OT cost breakdown covers the theatre side of the same budget, including the gas interface boundary.

For a system-specific costing based on your drawings, bed mix and load profile rather than on ranges, request a quote and we will start with a site survey and load assessment.