Industry — Manufacturing & Process Engineering · India
Manufacturing & Process
Manufacturing & Process
Engineering India
Full multi-discipline engineering for manufacturing plants and process facilities — MEP design in REVIT BIM, process utility systems, piping stress analysis using Caesar II, hydraulic modelling using AFT Fathom, ETAP power studies, fire protection, and end-to-end PMC. Greenfield plant design and brownfield capacity expansion — delivered to IS, IEC, ASME, and NFPA standards from New Delhi and Navi Mumbai across India and internationally.
Core Capabilities
- MEP design — REVIT BIM, NBC 2016, IEC
- Process utility design — steam, CW, CDA, DM water
- Piping stress analysis — Caesar II, ASME B31.3
- Hydraulic modelling — AFT Fathom / PIPENET
- ETAP power studies — load flow, short circuit
- HVAC — HAP load calculation, clean rooms
- Fire protection — NFPA 13 / IS 15105
- 3D plant modelling — AutoCAD Plant3D / REVIT
- Energy management — ISO 50001, BEE audits
- PMC — owner’s engineer, construction & commissioning
REVIT MEP
Caesar II
AFT Fathom
ETAP
HAP
Why KVRM
One Team. All Disciplines.
One Team. All Disciplines.
Every Manufacturing Project.
Manufacturing plant engineering fails most often at the interfaces between disciplines — where MEP drawings don’t account for process utility pipe routes, where HVAC load calculations don’t include process heat loads, where electrical design doesn’t reflect actual motor starting sequences. KVRM delivers all disciplines from a single integrated team — eliminating interface gaps before they become site problems.
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Multi-Discipline — Single TeamMEP, process utilities, piping stress, hydraulic analysis, electrical studies, fire protection, and PMC — delivered by one team with one point of contact. No coordination gaps between consultants.
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Simulation Before SpecificationEvery system is modelled before it is specified — hydraulic networks in AFT Fathom, HVAC loads in HAP, power systems in ETAP, piping stress in Caesar II. Equipment is sized from simulation results, not from rules of thumb.
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Greenfield & Brownfield BothNew plant design from concept to IFC drawings, and existing plant modifications — tie-in engineering, capacity expansion, equipment replacement, and process debottlenecking. The same team, the same rigour.
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REVIT BIM — Standard DeliveryAll MEP design delivered in REVIT BIM with full clash detection and coordination. Plant layout, equipment placement, pipe routing, cable trays, and HVAC ducts coordinated in a single federated model before construction.
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IS, IEC, ASME & NFPA ComplianceIndian Standards (IS codes, NBC 2016) for building services. ASME B31.3 for process piping. IEC standards for electrical. NFPA for fire protection. The right code identified at project initiation — not at authority submission.
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PMC from FEED to CommissioningKVRM provides Owner’s Engineer PMC for manufacturing projects — from FEED review and procurement management through construction supervision, pre-commissioning, and performance acceptance testing.
What We Deliver
Manufacturing & Process
Manufacturing & Process
Engineering Services
From process utility design and MEP through piping stress, fire protection, and project management — KVRM covers the full multi-discipline engineering scope for manufacturing and process plants.
Process Utility Design — Steam, Compressed Air, Cooling Water & More
AFT Fathom · AFT Arrow · REVIT MEP · ASME B31.3 · IS 3624
Every manufacturing plant depends on a reliable and correctly sized utility infrastructure — steam, compressed air, cooling water, chilled water, demineralised water, nitrogen, and vacuum. KVRM designs all plant utility systems from a utility balance study, sizing each distribution network using AFT Fathom (liquids) and AFT Arrow (compressible gas / steam) before specifying a single piece of equipment. Utility pipe routing is coordinated in REVIT BIM across all disciplines.
AFT Fathom AFT Arrow REVIT MEP ASME B31.3 IS 3624
AFT Fathom AFT Arrow REVIT MEP ASME B31.3 IS 3624
Utility Systems Designed
- Steam distribution — saturated and superheated, condensate return, steam trapping
- Compressed air — instrument air and utility air, IS 3624 / ISO 8573 quality classes
- Cooling water — open circuit (cooling tower) and closed circuit systems
- Chilled water — primary / secondary / tertiary loops, heat exchanger sizing
- Demineralised (DM) water — ion exchange system sizing and distribution
- Nitrogen — blanketing, purging, and inerting system design
- Vacuum system — process vacuum for manufacturing operations
- Potable and process water — campus distribution, pressure boosting
Engineering Approach
- Utility balance table — peak, average, and minimum demand at every consumer point
- Hydraulic simulation — AFT Fathom (liquids), AFT Arrow (compressed gas, steam)
- Pump and compressor duty point selection from full system curve analysis
- Pipe sizing — velocity limits, pressure drop, and thermal expansion allowances
- Surge analysis for pump stations on long utility distribution mains
- 3D pipe routing in REVIT BIM — coordinated with structural, HVAC, and electrical
- P&ID preparation for all utility systems
- Equipment datasheets for procurement — pumps, compressors, heat exchangers
📦 Deliverables
Utility balance table, AFT Fathom / Arrow hydraulic model files, utility network sizing reports, equipment datasheets (pumps, compressors, heat exchangers), REVIT BIM utility distribution model, P&ID set, pipe sizing schedule, energy consumption summary, design basis document.
MEP Design — HVAC, Electrical & Plumbing in REVIT BIM
REVIT MEP · HAP · ETAP · NBC 2016 · IEC · IS Codes
Complete Mechanical, Electrical, and Plumbing (MEP) design for manufacturing plant buildings — production halls, utility buildings, warehouses, offices, and ancillary structures — delivered in REVIT BIM with full multi-discipline coordination and clash detection. HVAC load calculations using HAP (Hourly Analysis Program). Electrical power studies using ETAP. All designs to NBC 2016, IS codes, and applicable IEC standards.
REVIT MEP HAP ETAP NBC 2016 IEC 60364
REVIT MEP HAP ETAP NBC 2016 IEC 60364
Mechanical & HVAC
- HVAC load calculation — HAP, sensible and latent loads, OA requirements
- Production hall ventilation — general ventilation, process exhaust, make-up air
- Air conditioning for control rooms, labs, and office buildings
- Dust and fume extraction system design — filtration, fan sizing, ductwork
- Chilled water AHU and FCU selection and layout
- Pressurisation and smoke control for stairwells and plant rooms
- Heat load from process equipment — integrated into HVAC load calculation
Electrical & Plumbing
- HT/LT substation design — ETAP load flow, short circuit, protection coordination
- MCC and distribution board design — motor starting, VFD panels, power factor
- Lighting design — lux level calculation, LED specification, emergency lighting
- Earthing and lightning protection — IS 3043 / IEC 62305
- Plumbing — potable water, hot water, drainage within plant buildings
- Fire hydrant and sprinkler system within buildings (NFPA 13 / IS 15105)
- REVIT BIM coordination — full clash detection across all MEP disciplines
📦 Deliverables
REVIT BIM MEP model (coordinated, clash-free), HVAC load calculation report, duct sizing schedule, AHU/FCU selection schedule, ETAP reports (load flow, short circuit), single line diagram, MCC/DB panel schedule, cable schedule, lighting design report, plumbing drawings, earthing drawing, lightning protection drawing, authority submission package.
Piping Stress Analysis — Caesar II, ASME B31.3
Caesar II · ASME B31.3 · API 610 · WRC 107/297 · Pipe Support Design
Formal piping stress and flexibility analysis for process and utility piping in manufacturing plants — covering high-temperature steam lines, chemical process piping, cooling water headers, and compressed air mains. All analysis performed in Caesar II to ASME B31.3. Equipment nozzle loads evaluated against vendor allowables. Complete pipe support design — guide, anchor, spring hanger, and trunnion drawings — included as standard in every engagement.
Caesar II ASME B31.3 ASME B31.1 API 610 WRC 107/297
Caesar II ASME B31.3 ASME B31.1 API 610 WRC 107/297
Lines Typically Analysed
- High-temperature steam and condensate lines — sustained, thermal, seismic load cases
- Hot oil and heat transfer fluid systems — thermal expansion analysis
- Chemical process piping — corrosive service material and allowable stress verification
- Large bore cooling water headers — deadweight and occasional load analysis
- Reactor feed and discharge — high-temperature, high-pressure, creep-range materials
- Pump suction and discharge — NPSH critical, API 610 nozzle load check
- Compressor inlet/outlet — pulsation consideration, API 617 nozzle check
Full Scope Delivered
- Caesar II model built from piping isometrics or 3D model extract
- Full load case matrix — sustained, thermal, operating, seismic, hydrotest
- Nozzle load evaluation against vendor API allowables
- WRC 107 / WRC 297 local stress check for vessel nozzles
- Spring hanger sizing and complete datasheet schedule
- Pipe support drawings — guide, anchor, resting, trunnion locations
- Pipe rack load report for structural engineers
- ASME B31.3 code compliance report
📦 Deliverables
Caesar II model files, stress isometric drawings with support mark-up, ASME B31.3 code compliance report, nozzle load summary, spring hanger datasheet schedule, pipe support drawings, pipe rack load report, dynamic analysis report (if applicable), design basis document. See also the dedicated Piping Stress Analysis page for full scope detail.
Fire Protection Engineering — NFPA & IS 15105
PIPENET · AFT Fathom · NFPA 13 · NFPA 15 · NFPA 72 · IS 15105 · TAC
Hydraulically calculated fire protection systems for manufacturing facilities — sprinklers, hydrant networks, deluge systems, clean agent rooms, and foam systems — all sized using PIPENET or AFT Fathom. Fire pump house designed to NFPA 20. Hydrant and monitor networks to IS 15105 and TAC requirements for Indian industrial insurance compliance. Every system is hydraulically verified — not sized from simplified demand assumptions.
PIPENET NFPA 13 NFPA 15 NFPA 20 IS 15105 TAC
PIPENET NFPA 13 NFPA 15 NFPA 20 IS 15105 TAC
System Types
- Wet pipe sprinkler systems — NFPA 13, most hydraulically demanding design area
- ESFR sprinklers — high bay storage and warehouse areas
- Deluge systems — transformers, flammable liquid areas, process vessels (NFPA 15)
- Industrial hydrant and monitor networks — IS 15105 / TAC ring main design
- Clean agent systems — server rooms, control rooms, electrical switchgear (NFPA 2001)
- Foam systems — tank farms, solvent stores, paint spray booths (NFPA 11)
- Pre-action systems — cold stores, archives, sensitive equipment
Infrastructure Design
- Fire water demand calculation — simultaneous demand area, storage volume
- Fire pump house design — electric, diesel, and jockey pumps (NFPA 20)
- Underground ring main pipe sizing — hydraulic simulation under simultaneous demand
- Fire water storage tank sizing — IS 15105, TAC, insurance requirements
- Addressable fire detection and alarm system — NFPA 72 / IS 2189
- Fire suppression interface with BMS — zone control and monitoring
📦 Deliverables
PIPENET / AFT Fathom hydraulic model, fire water demand calculation report, pipe sizing schedule, fire pump datasheet (NFPA 20), pump house layout drawing, sprinkler hydraulic calculation (NFPA 13), hydrant / monitor location plan, fire detection system drawing, TAC / insurance submission package, fire water storage tank sizing calculation.
3D Plant Modelling & Layout Engineering
AutoCAD Plant3D · REVIT · SP3D · PDMS · Plot Plan · Pipe Rack Design
Detailed 3D engineering models for manufacturing and process plants using AutoCAD Plant3D, REVIT, SP3D, and PDMS — enabling full multi-discipline coordination, clash detection, and isometric extraction for construction. Plot plan and equipment arrangement developed from process requirements, hazardous area classification, maintenance access, and material flow — before structural design begins. Pipe rack layout and structure loading developed in coordination with civil engineers.
AutoCAD Plant3D REVIT SP3D PDMS
AutoCAD Plant3D REVIT SP3D PDMS
Plant Modelling
- Greenfield 3D model — from PFD/P&ID through detailed design to IFC
- Brownfield tie-in modelling — existing plant as-built capture, laser scan integration
- Clash detection — piping vs. structural, HVAC vs. cable trays, all disciplines
- Piping isometric extraction — stress isometrics and fabrication isometrics
- Material take-off (MTO) — pipe, fittings, valves, support materials for procurement
- Constructability review — access, lifting, installation sequence assessment
Layout & Plot Plan
- Equipment arrangement — process flow, ATEX / hazardous area zoning, maintenance
- Plot plan development — building footprints, road layout, utility corridors
- Pipe rack layout — tier arrangement, utility and process pipe allocation
- Pipe rack load summary — sustained and thermal loads for civil / structural design
- Material handling and logistics — receiving, internal flow, dispatch layout
- Escape routes, muster points, and emergency access in layout
📦 Deliverables
3D plant model (AutoCAD Plant3D / REVIT / SP3D / PDMS), clash detection report, plot plan drawing, equipment arrangement drawing, pipe rack layout drawing, pipe rack load report, piping isometrics, material take-off (MTO), constructability review report.
Project Management Consultancy — Owner’s Engineer for Manufacturing Plants
Primavera P6 · FEED Review · Procurement · Construction Supervision · Commissioning
KVRM provides Owner’s Engineer PMC services for manufacturing plant projects — acting as the owner’s independent technical representative from FEED through commissioning and performance acceptance testing. KVRM’s PMC team has the engineering depth to review EPC contractor designs, challenge vendor submissions, and identify constructability issues — not just to track programme milestones and report on progress.
Primavera P6 MS Project IQ/OQ/PQ
Primavera P6 MS Project IQ/OQ/PQ
Pre-Construction
- FEED review — design basis verification, scope definition, cost estimate review
- EPC tender preparation and technical bid evaluation (TBE)
- Procurement management — vendor shortlisting, RFQ, TBE, purchase order review
- Factory Acceptance Testing (FAT) — attendance and technical sign-off
- Construction contract management — scope, variation, claims
- Programme management — Primavera P6 baseline, progress monitoring, critical path
Construction & Commissioning
- Site supervision — quality inspection, ITP (Inspection and Test Plan) compliance
- QA/QC management — welding inspection, hydrostatic test witness, insulation check
- Pre-commissioning — system flushing, pressure testing, loop checking
- Commissioning management — start-up sequence, performance testing
- IQ/OQ/PQ protocols for regulated manufacturing environments
- Punch list management and project handover documentation
📦 Deliverables
FEED review report, TBE summary, procurement tracker, FAT reports, Primavera P6 programme, site inspection reports, QA/QC records, pre-commissioning completion certificates, commissioning procedures and sign-off records, performance test report, punch list close-out, project handover dossier.
Codes & Standards
Standards We Design To
Manufacturing plants span multiple engineering disciplines — each with its own applicable code. KVRM identifies and applies the correct standard for every system from design basis to construction.
| Standard | Scope | KVRM Application |
|---|---|---|
| ASME B31.3 | Process Piping | All process and utility piping in manufacturing plants — stress analysis, flexibility, and material qualification |
| NBC 2016 | National Building Code India | MEP design for manufacturing buildings — HVAC, plumbing, fire protection, electrical provisions |
| NFPA 13 / 15 / 20 | Fire Protection | Sprinkler systems, water spray (deluge) systems, and fire pump design — hydraulically calculated |
| IS 15105 | Fire Hydrant Systems | Industrial hydrant network design — pipe sizing, hydrant spacing, storage, pump sizing for India |
| IEC 60909 | Short Circuit Calculation | Fault current at all HT and LT busbars — switchgear breaking capacity and busbar withstand |
| IS 3043 | Earthing Code of Practice | Substation and plant earthing grid design — touch and step potential verification |
| ISO 50001 | Energy Management | Energy management system implementation and BEE-compliant energy audits for manufacturing Designated Consumers |
| IS 3624 | Compressed Air Systems | Compressed air pipe sizing and system design — pressure drop and quality classes for industrial applications |
| ATEX / IEC 60079 | Hazardous Area Classification | Zone classification for flammable atmospheres in chemical and process manufacturing plants — equipment selection Ex rating |
Plant Types We Engineer
Manufacturing & Process
Manufacturing & Process
Facilities We Serve
From food processing to chemical manufacturing — the same multi-discipline engineering standard across every plant type. Greenfield and brownfield both.
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Battery & EV Manufacturing
Dry rooms · Formation · Utility MEP · NFPA 855 fire
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Pharmaceutical & Biotech
Clean rooms · WFI · Clean steam · HVAC validation
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Chemical & Specialty Chemical
ATEX · Process piping · Scrubbers · Reactor utilities
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Food & Beverage
Hygienic MEP · CIP/SIP · Cold store · Effluent
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Automotive & Light Engineering
Paint shop · Compressed air · Dust extraction · High bay
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Textile & Apparel
Humidification · Effluent treatment · Steam · Utilities
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Warehousing & Logistics
ESFR sprinklers · Dock MEP · Racking fire protection
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Waste & Recycling
ETP · ZLD · Leachate treatment · Utility MEP
Our Process
How a Manufacturing Plant
How a Manufacturing Plant
Engineering Engagement Works
From concept layout to construction-ready multi-discipline package — simulation-first, BIM-delivered.
01
Basis & Layout
Production process understanding, utility demand assessment, plot plan development, equipment arrangement, and hazardous area classification — before any detailed engineering begins.
02
Simulate
Utility hydraulics in AFT Fathom / Arrow, HVAC loads in HAP, power systems in ETAP, piping stress in Caesar II — every system modelled before any drawing is produced or equipment specified.
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BIM Design
REVIT BIM MEP model built with all disciplines in one coordinated model — piping, HVAC ducts, cable trays, plumbing, and sprinklers clash-detected before construction. P&IDs and SLDs issued simultaneously.
04
Procure
Equipment datasheets, technical specifications, and bill of materials issued for procurement. Vendor technical bid evaluation (TBE) support — ensuring purchased equipment matches design intent.
05
Build & Commission
PMC site supervision, QA/QC inspection, pre-commissioning, and commissioning management — through to performance testing, punch list closure, and handover documentation.
Engineering Philosophy
Manufacturing Plant Engineering
Manufacturing Plant Engineering
Is a Multi-Discipline Problem
Manufacturing plants are commissioned by production teams and managed by operations — but they are built by engineers. The most persistent problems at commissioning — HVAC systems that cannot maintain temperature in summer, utilities that are undersized for production ramp-up, fire systems that fail insurance inspection, piping that vibrates excessively at operating flow — almost always trace back to a failure of multi-discipline engineering integration during design.
When MEP and process utilities are designed by separate firms, the interfaces fall through the gaps. The HVAC load calculation does not include the heat load from the process equipment because the process engineer did not communicate it. The compressed air system is sized for average demand because nobody ran the peak demand scenario. The steam line vibrates because nobody did a piping stress analysis.
KVRM’s value in manufacturing projects is integration — not just the quality of individual discipline outputs, but the discipline to ensure those outputs are consistent with each other. The utility balance drives the hydraulic model. The hydraulic model drives the pump selection. The pump selection drives the electrical load. The electrical load drives the substation sizing. Every step connected, every revision propagated.
“A manufacturing plant is one system — it should be engineered by one team.”
- Utility balance established before any pipe is sized or pump is selected
- HVAC loads include process equipment heat — not just building envelope
- Electrical load schedule reflects actual motor starting sequence — not connected load total
- Fire protection demand verified hydraulically — not from area/density rule of thumb
- Piping stress analysis run before supports are fabricated — not after commissioning vibration
Common Questions
Manufacturing & Process Engineering — FAQ
What is the difference between a greenfield and a brownfield plant engineering project?
A greenfield project involves designing and building a new manufacturing facility on a previously undeveloped or cleared site — starting from a blank plot plan. The engineering scope covers everything from concept layout and equipment arrangement through detailed MEP, process utilities, civil and structural interface, and commissioning. A brownfield project involves modifying, expanding, or upgrading an existing operating facility — which presents distinct engineering challenges: tie-ins to live systems, working within existing pipe racks and cable routes, managing operational continuity during construction, and integrating new equipment with older systems that may not have original drawings available. KVRM handles both — for brownfield projects, laser scanning and as-built survey data are integrated into the 3D model to ensure tie-in points are accurately located before any fabrication is ordered.
What is a utility balance and why does it matter before detailed design?
A utility balance is a tabulated summary of the demand for each utility (steam, compressed air, cooling water, chilled water, DM water, nitrogen, electricity) at every consumer point in the plant — showing peak, average, and minimum demand alongside the quality specification required (pressure, temperature, quality class). It is the foundation on which all utility system design is built. Without a utility balance prepared before detailed design begins, the following problems are common: utility headers sized for average demand that cannot supply peak demand during production ramp-up; compressors or chillers selected before the true simultaneous demand is established; electrical substations sized from connected load totals without diversity, resulting in over-sized and over-priced equipment; and steam systems sized without accounting for start-up demand, causing pressure collapse at the point of commissioning. KVRM prepares the utility balance as the first deliverable on every manufacturing project — before any hydraulic model is built or equipment is specified.
Does KVRM provide ATEX / hazardous area classification for chemical manufacturing plants?
Yes. For manufacturing plants handling flammable liquids, gases, or dusts — chemical plants, solvent-based processes, paint shops, spray booths, fertiliser facilities, and similar — hazardous area classification to IEC 60079-10 (gases and vapours) and IEC 61241-10 (combustible dusts) is required to define Zone 0, Zone 1, Zone 2 (gas) or Zone 20, 21, 22 (dust) boundaries. This classification determines the Ex equipment category required for every electrical fitting, instrument, and motor within each zone. KVRM integrates hazardous area classification into the plant layout development — zone boundaries are established before equipment is arranged, not after, so that process equipment and utility connections are positioned to minimise the extent of hazardous zones and reduce the number of Ex-rated equipment items required.
Can KVRM provide engineering for food and beverage manufacturing plants?
Yes. Food and beverage manufacturing presents specific engineering requirements that differ from general industrial plants — hygienic MEP design (sanitary fittings, coved flooring, sealed penetrations), CIP (clean-in-place) and SIP (sterilise-in-place) system design for food-contact pipework, cold storage HVAC (blast freezing, chilled storage, controlled atmosphere), effluent treatment for high-BOD food processing waste, and ventilation for odour-generating processes. KVRM brings the same simulation-driven approach to food plant MEP — HVAC loads calculated in HAP (including refrigeration loads and process vapour generation), utility systems sized from AFT Fathom hydraulic models, electrical design from ETAP. FSSAI and international food safety standard (BRC, SQF, FSSC 22000) facility requirements are considered in the MEP and utility design from the outset.
What does KVRM’s PMC scope cover for a manufacturing plant project?
KVRM’s Owner’s Engineer PMC scope for manufacturing projects typically covers: (1) FEED review — independent review of the EPC or design contractor’s FEED package for technical adequacy, scope completeness, and cost estimate reasonableness; (2) Procurement management — preparation of technical specifications, RFQ packages, TBE (technical bid evaluation), and purchase order technical review for major equipment and materials; (3) FAT attendance — factory acceptance testing of critical equipment (transformers, switchgear, control panels, major pumps and compressors) with technical sign-off; (4) Construction supervision — site inspection, QA/QC compliance with ITP, welding inspection, hydrostatic test witness, punch list management; (5) Commissioning management — pre-commissioning procedures, system flushing and pressure test verification, loop checking, start-up sequence management, performance testing, and acceptance certification. For regulated manufacturing environments (pharmaceutical, food), KVRM also prepares and executes IQ/OQ/PQ validation protocols as part of the commissioning scope.
Related Engineering Services
Often Combined with
Often Combined with
Manufacturing & Process Engineering
Manufacturing plants draw on the full KVRM service range — the services below are routinely integrated with plant MEP and process utility engineering on the same project.
Ready to Discuss Your
Manufacturing Plant Project?
Send us your process brief, plot plan, or utility demand data — we’ll scope the multi-discipline engineering and PMC required.
📞 +91 8447784536 ·
📧 services@kvrm.in ·
📍 New Delhi · Navi Mumbai · Faridabad