Par Techno-Heat Pvt. Ltd. (Par Boiler) designs and manufactures IBR-certified industrial steam boilers, thermic fluid heaters, hot air generators, co-generator power plants, and air pollution control equipment from its facility in Sanand, Ahmedabad, Gujarat. The company's product range covers solid fuel fired water tube boilers, oil and gas fired fire tube and D-type boilers, waste heat recovery steam generators, bag filters, wet scrubbers, and electrostatic precipitators. Each boiler system is engineered for the buyer's specific steam demand, operating pressure, fuel type, site layout, and emission compliance requirement. IBR documentation, commissioning support, and service are standard deliverables. Whether Par Boiler is the right manufacturer for a specific project depends on matching these capabilities to the buyer's documented technical requirement.
An industrial boiler is not a commodity purchase. It is a pressure vessel operating under sustained thermal and mechanical stress that will determine fuel cost, production continuity, regulatory compliance, and safety outcomes for the next 20–25 years. The manufacturer who designed, fabricated, commissioned, and now supports that boiler determines whether it reaches its design life efficiently or requires premature major overhaul.
Selecting the right boiler manufacturer in India requires looking beyond the quotation price to evaluate engineering capability, IBR documentation quality, fuel system design experience, commissioning support, and the manufacturer's ability to provide ongoing service for the specific boiler type over its operating life. This guide explains what Par Techno-Heat Pvt. Ltd. (Par Boiler) offers across these criteria, and what industrial buyers should verify before making a final selection decision.
Par Boiler offers application-specific engineering, IBR-certified manufacturing, a broad product range covering solid fuel and gas/oil fired steam boilers, thermic fluid heaters, hot air generators, waste heat recovery systems, and integrated air pollution control equipment from a single facility in Ahmedabad. The company supplies complete IBR documentation, commissioning support, and after-sales service as standard. Whether Par Boiler is the right choice depends on matching its engineering capability, boiler type range, and service network to your specific project requirement.
An industrial boiler is a closed pressure vessel that burns fuel to generate steam or heat a thermal fluid for industrial process use. Steam generated is used for process heating, sterilisation, drying, cooking, chemical processing, power generation, or co-generation. Industrial boilers operate across a wide range of pressures, capacities, and fuel types from small packaged gas-fired units to large solid fuel water tube systems and must meet applicable IBR statutory requirements and CPCB environmental consent conditions.
The manufacturer's decisions during design and fabrication material selection, pressure vessel geometry, heat transfer surface sizing, combustion system design, safety device specification all become locked into the installed boiler. The plant manager inherits the consequences of those decisions for the next two decades: efficiency above or below specification, maintenance frequency above or below expectation, and compliance posture with the IBR annual inspection.
A manufacturer chosen primarily on lowest quotation price, without verifying engineering depth, IBR documentation capability, and service network, is a risk taken on every shift the boiler runs from commissioning to its last operating day. The guide below explains where Par Boiler's documented capabilities can provide value and what buyers should still verify for their specific project before finalising any manufacturer selection.
Par Techno-Heat Pvt. Ltd. has developed and manufactured a diverse range of industrial heating systems across the steam boiler, thermic fluid heater, hot air generator, waste heat recovery, and air pollution control categories. This breadth of product development requires engineering capability across multiple combustion systems, pressure vessel configurations, heat transfer designs, and fuel handling systems.
For each project, the engineering approach starts with the buyer's actual process requirement steam demand (TPH), operating pressure, fuel type and quality, site layout, water quality, and emission compliance conditions rather than fitting the buyer's requirement to a standard catalogue. This matters because two plants in the same industry with nominally similar requirements frequently differ in ways that affect boiler design: one plant's rice husk has 18% ash while another's has 24%; one plant has excellent municipal water supply while another's groundwater requires extensive treatment before it meets boiler feedwater standards.
What to verify: Request the engineering calculation basis for the proposed efficiency. Confirm whether heat transfer and combustion calculations were performed for your specific fuel and operating conditions, or whether a standard design was applied.
Par Boiler's product range verified from the company's official product portfolio covers the following categories:
| Product / System | Specific Designs Available | Typical Application | Key Selection Factor |
|---|---|---|---|
| Solid Fuel Fired Steam Boilers | 3/5 Pass Skid Mounted Smoke cum Water Tube; 4 Pass Single Drum Water Tube; Single Drum Corner Tube; Bi-Drum Water Tube | Rice mills, textile, agro-processing, sugar, paper | Fuel type (rice husk, coal, wood chips, bagasse); operating pressure; APC requirement |
| Oil and Gas Fired Steam Boilers | 3/5 Pass Horizontal Smoke Tube Wetback; Single/Bi-Drum D-Type; Waste Heat Recovery Steam Generator; Mobile Steam Generator | Food, dairy, pharma, chemical, textile, hospitals | Gas or oil fuel availability; capacity up to ~20 TPH; operating pressure |
| Hot Air Generators | Direct Hot Air Generator; Indirect Hot Air Generator | Drying applications ceramic, food, agro-processing, textile | Required air temperature and airflow; direct vs indirect; fuel type |
| Thermic Fluid Heaters | Thermic Fluid Heaters | Chemical, textile, rubber, plastics high temperature without high-pressure vessel | Process temperature up to 300°C+; heat transfer fluid type; fuel |
| Co-Generator Power Plants | Co-Generator Power Plants | Industrial plants requiring both steam and power generation from a single fuel source | Steam and power demand; fuel type; site conditions |
| Air Pollution Control Equipment | Mechanical Dust Collector; Bag Filter; Wet Scrubber; Electrostatic Precipitator (ESP) | Solid fuel boilers CPCB/SPCB consent PM emission compliance | Fuel ash characteristics; flue gas volume and temperature; SPCB PM outlet limit |
| Sustainable Solutions | Flue Gas Recirculation; De-sulphurisation; De-nitration; Ash Handling Plant | SOx and NOx emission control; ash management for solid fuel plants | Fuel sulfur content; NOx consent conditions; ash quantity and disposal |
| Boiler Auxiliaries | FBC Furnace; Travelling Grate Furnace; Reciprocating Grate Furnace; Corrugated Furnace | Fuel combustion systems for solid fuel steam boilers | Fuel type; capacity; combustion efficiency requirement |
The breadth of this range from solid fuel water tube boilers to waste heat recovery generators to de-sulphurisation systems means Par Boiler can supply the complete boiler system and emission control system as a coordinated engineering package rather than requiring the buyer to manage multiple suppliers with separate design responsibilities.
Quick Answer — What Makes an Industrial Boiler Energy Efficient? Boiler thermal efficiency depends on: combustion completeness (minimum excess air while achieving full fuel burnout), heat recovery from flue gas (economiser and air preheater), feedwater temperature (condensate recovery and deaeration), insulation quality, and operating load factor. A 3% efficiency difference between two boilers of the same capacity represents a significant annual fuel cost difference making efficiency verification at defined conditions more important than headline price comparison.
Fuel cost is typically the largest operating expense for an industrial plant with a steam boiler representing 60–75% of the total lifecycle cost of the boiler installation. The choice between a boiler with 82% thermal efficiency and one with 86% efficiency at the same capacity, running 20 hours per day, 300 days per year, creates a compounding annual fuel cost difference that vastly exceeds any purchase price differential within a few years of operation.
Par Boiler's boiler designs incorporate heat recovery options including economisers (preheating feedwater from residual flue gas heat) and air preheaters (preheating combustion air from flue gas). These heat recovery accessories typically improve overall efficiency by 6–12% depending on the installation and should be evaluated as part of the total system cost rather than treated as optional extras that increase the quotation price.
Important: Compare efficiency between manufacturers only at identical defined conditions same load percentage, same fuel calorific value, same feedwater temperature, and same flue gas exit temperature. Efficiency comparisons without defined conditions are not comparable and should not be used for procurement decisions. For a practical guide to efficiency improvement in operating installations, see our guide on how to improve boiler efficiency.
Industrial boiler safety is not a function of any single component it is the product of correct design, quality materials, proper fabrication, correct commissioning, operator training, disciplined maintenance, and regular IBR inspection working together throughout the boiler's operating life.
Par Boiler's steam boilers are supplied with all IBR-mandatory safety devices as standard: at least two independent safety valves, calibrated pressure gauge, dual water level indicators, low water level automatic burner shutdown, feed check valve, and main steam stop valve. For gas and oil fired boilers, flame failure detection with automatic fuel valve closure and burner lockout is standard.
Safety in operation depends equally on the plant team's practices: daily gauge glass blowdown to confirm accurate water level readings, weekly safety valve testing, weekly low water level cutoff simulation, monthly combustion analysis, and annual IBR inspection. A well-designed boiler operated without disciplined safety practices is not a safe boiler. For complete guidance on industrial boiler safety requirements, see our boiler safety guidelines for industries.
IBR (Indian Boilers Regulation) Act, 1950, governs design, fabrication, registration, and inspection of steam boilers above the applicable threshold in India. A manufacturer with genuine IBR capability supplies: CBB design drawing approvals, material test certificates with traceability, stage inspection records signed by an IBR-authorised inspector, and hydraulic test certificate at 1.5× MAWP. Without this documentation, a boiler cannot be legally registered and commissioned. Applicable IBR requirements depend on boiler type, pressure, and dimensions confirm specific requirements with the state boiler inspectorate for your project.
Par Boiler supplies the complete IBR documentation package for all registered steam boilers CBB design approvals, material certificates, stage inspection records, and hydraulic test certificate as standard. This documentation enables the plant to register the boiler with the State Boiler Inspectorate and obtain the certificate of fitness required before commissioning. All subsequent annual IBR inspections require the original documentation to be available for review by the IBR-authorised inspector.
CPCB and State PCB consent-to-operate conditions are the parallel environmental compliance obligation for solid fuel boilers. Par Boiler's integrated air pollution control supply bag filter, wet scrubber, or ESP as appropriate is designed for the specific boiler's actual flue gas conditions and the SPCB consent PM outlet limit, rather than a generic specification applied regardless of fuel or boiler capacity.
Quick Answer — Why Is Boiler Customization Important? Industrial plants differ in steam demand, operating pressure, fuel type, site layout, water quality, automation requirements, and emission compliance conditions. A standard catalogue boiler applied to a non-standard application performs below its specification in ways that accumulate fuel cost, downtime, and maintenance expense over 20 years. Application-specific design addresses these differences before they become operational problems.
Par Boiler's engineering team designs each boiler system around the buyer's specific parameters:
Par Boiler's air pollution control equipment range mechanical dust collectors, bag filters, wet scrubbers, and electrostatic precipitators is designed and supplied as an integrated system alongside the boiler rather than as an afterthought. This integration matters because the APC system must be correctly sized for the boiler's actual flue gas volume, temperature, and ash loading at operating conditions. An undersized bag filter creates compliance problems; an oversized one wastes capital.
The sustainable solutions range flue gas recirculation, de-sulphurisation, de-nitration, and ash handling plants addresses the SOx, NOx, and ash management requirements that are increasingly appearing in CPCB and State PCB consent conditions for larger industrial boiler installations.
Applicable emission control requirements depend on: fuel type, boiler rated heat input capacity, industry type, plant location, and the specific conditions in the CPCB/SPCB consent-to-operate. Do not assume that a system adequate for one installation will be adequate for another nominally similar installation without verifying the consent conditions. For more on APC equipment selection, see our air pollution control solutions guide.
Par Boiler provides installation and commissioning support as a standard part of the supply not as a separately negotiated extra. The commissioning scope covers: erection supervision, piping and instrumentation connection verification, pre-commissioning checks, safety device verification under operating conditions, burner tuning with calibrated combustion analyser for gas and oil systems, performance verification, and operator familiarisation on startup, shutdown, emergency procedures, and daily maintenance routines.
Operator training at commissioning is one of the highest-value activities in the complete supply yet one that is frequently compressed or omitted when commissioning is managed under time pressure. An operator who understands why the safety valve must be tested weekly, why the gauge glass must be blown down and not just read, and what the correct response to a burner lockout is, delivers safer and more efficient plant operation from the first shift. For a complete operating and maintenance framework, see our industrial boiler maintenance checklist.
Quick Answer — Why Is After-Sales Service Important for Industrial Boilers? A boiler is a 20–25 year asset requiring regular planned maintenance and periodic corrective intervention. The manufacturer's service capability determines how quickly problems are resolved, whether spare parts are available within acceptable lead times, whether the annual IBR inspection can be effectively supported, and whether the boiler maintains its design efficiency throughout its operating life. Evaluate service capability before purchase not after the first breakdown reveals its limitations.
Par Boiler's after-sales support covers: spare parts supply for all manufactured boiler types, periodic service visits for planned maintenance, annual service programme including burner overhaul and tube inspection, IBR annual inspection documentation support, and technical support for operational troubleshooting. Annual Maintenance Contract (AMC) options are available for plants requiring structured scheduled maintenance with defined response commitments.
Critical spare parts safety valves, gauge glasses, feedwater pump mechanical seals, burner components, bag filter bags should be stocked on-site or available from the manufacturer within an acceptable lead time for your production schedule. Confirm spare parts availability and lead times for your specific boiler type before placing an order
Par Boiler's steam boiler and heating systems include PLC-based automatic control as standard managing steam pressure (through burner firing rate or fuel feed control), drum water level (through feedwater pump control), safety interlocks (low water level shutdown, high pressure shutdown, flame failure shutdown for gas/oil systems), alarm annunciation, and operational data logging. This automation enables unattended or semi-attended operation for plants with appropriate safety procedures and trained operators.
The Hot Air Generator range includes both direct and indirect configurations the choice between them affects whether combustion gases contact the process material (direct, suitable where contamination is acceptable) or are separated by a heat exchanger (indirect, required for food, pharmaceutical, or other contamination-sensitive applications).
| Industry | Typical Boiler / Heating Requirement | Recommended Par Boiler System | Key Selection Factor |
|---|---|---|---|
| Textile | Process steam dyeing, stenter, finishing | Solid fuel water tube or gas-fired fire tube boiler | Fuel availability; load variation; APC if solid fuel |
| Food & Beverage | Steam for cooking, sterilisation, pasteurisation, CIP | Gas or oil fired smoke tube/D-type boiler | Clean steam; food-grade compliance; gas/oil fuel |
| Chemical | Reactor heating, distillation, high-pressure steam | Water tube steam boiler or thermic fluid heater | Operating pressure and temperature; process integration |
| Pharmaceutical | Controlled process heating, autoclaves, GMP areas | Gas-fired fire tube or thermic fluid heater | Steam purity; GMP compliance; automation |
| Rice Mills | Parboiling and drying from rice husk | Solid fuel FBC bi-drum water tube boiler + bag filter | High-ash rice husk combustion; silica fly ash APC |
| Paper & Pulp | Process steam, drying, co-generation | Large capacity water tube boiler + co-gen | High capacity; reliability; efficiency |
| Sugar | Juice evaporation, pan heating, co-generation from bagasse | Bagasse-fired water tube boiler + co-gen power plant | Bagasse combustion; turbine steam; heat integration |
| Ceramic / Agro | Drying applications high temperature air | Direct or indirect hot air generator | Required air temperature; direct vs indirect; fuel |
| Industrial DG Plants | Steam from DG set exhaust without additional fuel | Waste Heat Recovery Steam Generator | Exhaust temperature and flow; DG set duty cycle |
A structured evaluation framework prevents the common mistake of selecting a manufacturer based on the most persuasive sales presentation rather than on documented technical capability. Use the following questions when evaluating Par Boiler or any other boiler manufacturer:
The purchase price is typically the smallest component of a boiler's total lifecycle cost representing approximately 5–15% of total expenditure over 20 years. Fuel cost (60–75% of lifecycle cost), maintenance, spare parts, downtime, and emission compliance costs collectively dwarf the upfront capital cost difference between competing manufacturers. Making a purchase decision on the basis of the lowest headline quotation without calculating the likely operating cost over 15 years is an expensive approach to boiler procurement.
| Cost Component | What to Evaluate | Why It Matters |
|---|---|---|
| Purchase Price | Capital cost with complete defined scope | Typically 5–15% of lifecycle cost |
| Annual Fuel Cost | Thermal efficiency × fuel price × annual operating hours | Dominant component 60–75% of lifecycle cost; 3% efficiency difference is significant annually |
| Electricity | Fan and pump motor sizes | Correct sizing affects both capital and operating cost |
| Water Treatment | Softener chemicals, oxygen scavengers, scale inhibitors | Neglect causes scale ₹5–30 lakh tube replacement |
| Planned Maintenance | Annual service, tube cleaning, burner overhaul | Prevention costs 3–8× less than breakdown repair |
| Downtime | Production loss when boiler unavailable | Often ₹50,000–5,00,000+ per day for process-dependent plants |
| Emission Compliance | APC maintenance, SPCB stack testing | Non-compliance: consent cancellation and forced shutdown |
| IBR Inspection | Annual certificate of fitness cost | Statutory; failure means forced shutdown until corrected |
Share your steam requirement, operating pressure, fuel type, and site location with Par Techno-Heat's engineering team. The company will provide a technical specification and quotation based on your actual project parameters giving you the documented basis to evaluate Par Boiler against your requirement and compare it with alternatives on equal terms.
Par Techno-Heat Pvt. Ltd. | Sanand, Ahmedabad, Gujarat | +91-9727775036 | boilermanufacturer_india@parboiler.com
Par Techno-Heat Pvt. Ltd. offers application-specific engineering, IBR-certified manufacturing, and a broad product range covering solid fuel and gas/oil fired steam boilers, thermic fluid heaters, hot air generators, waste heat recovery systems, and integrated air pollution control equipment from a single facility in Sanand, Ahmedabad. IBR documentation, commissioning support, and after-sales service are standard deliverables. Whether Par Boiler is the right choice depends on matching these capabilities to your specific project requirement which should be verified through technical documentation and reference contacts, not marketing claims.
Yes. Par Techno-Heat Pvt. Ltd. (commonly referred to as Par Boiler) designs and manufactures industrial steam boilers, thermic fluid heaters, hot air generators, co-generator power plants, air pollution control equipment, and boiler auxiliaries from its manufacturing facility in Sanand, Ahmedabad, Gujarat, India. The company is the manufacturer of record for its IBR-certified steam boilers not a trading intermediary sourcing from multiple fabricators.
Par Boiler's verified product range includes: solid fuel fired steam boilers (3/5 pass skid mounted smoke cum water tube, 4 pass single drum water tube, single drum corner tube, and bi-drum water tube), oil and gas fired steam boilers (3/5 pass horizontal smoke tube wetback, single/bi-drum D-type, waste heat recovery steam generator, and mobile steam generator), hot air generators (direct and indirect), thermic fluid heaters, co-generator power plants, air pollution control equipment (mechanical dust collector, bag filter, wet scrubber, ESP), sustainable solutions, and boiler auxiliaries.
Par Boiler's products are applicable across: textile (process steam for dyeing and finishing), food and beverage (steam for sterilisation, pasteurisation, cooking, and CIP), chemical (reactor heating, distillation, high-pressure steam), pharmaceutical (controlled process heating, autoclaves), rice mills (rice husk FBC boilers for parboiling and drying), paper and pulp (process steam and co-generation), sugar (bagasse-fired boilers and co-generation), ceramic and agro-processing (hot air generators for drying), and industrial plants with DG set exhaust (waste heat recovery steam generators).
Evaluate manufacturers across: application experience for your specific boiler type and industry, IBR compliance documentation capability, engineering depth, thermal efficiency at defined conditions, fuel flexibility, customization for site and process, manufacturing quality, emission control system completeness, commissioning scope, after-sales service network, spare parts availability, verified references from similar installations, and total cost of ownership over 15–20 years. Purchase price alone is the least reliable basis for selecting a 20-year capital asset. See our complete boiler manufacturer selection checklist.
Define your requirement first: peak steam demand (TPH), operating pressure, fuel type and quality, site layout, water quality, and emission compliance requirements. Then evaluate: IBR documentation capability, efficiency at defined conditions, emission control system completeness for your SPCB consent conditions, commissioning scope, after-sales service network, and at least two verified reference installations in a comparable application. Calculate total cost of ownership across fuel, maintenance, and downtime not only purchase price.
An IBR boiler is a steam boiler that meets the Indian Boilers Regulation (IBR) Act, 1950, requirements and is registered with the State Boiler Inspectorate. Compliance requires CBB design drawing approval, certified material traceability, stage inspection by an IBR-authorised inspector, and hydraulic test at 1.5× MAWP. Without proper IBR documentation, a boiler cannot be legally registered and operated in India. IBR also requires annual inspection by an authorised inspector a boiler with an expired certificate of fitness cannot legally operate.
Customization is important because industrial plants differ in steam demand patterns, fuel quality, site constraints, water quality, automation requirements, and emission compliance conditions. A standard boiler design applied to a non-standard application may not meet its efficiency specification under actual operating conditions, may require site modifications after installation, or may create problems that accumulate cost over 20 years. Application-specific engineering addresses these differences before they become operational issues.
A waste heat recovery boiler (WHRB) generates steam from the exhaust gas of a diesel generator set, process furnace, cement kiln, or other industrial heat source without any additional fuel combustion. This reduces overall fuel consumption for the plant's steam demand. Par Boiler's product range includes waste heat recovery steam generators in the oil and gas fired boiler category. Actual energy savings depend on the exhaust gas temperature, mass flow rate, operating hours, and how the recovered steam matches the plant's steam demand profile.
Par Boiler supplies a complete range of air pollution control equipment designed and supplied alongside its industrial boilers: mechanical dust collectors, pulse jet bag filters, wet scrubbers, and electrostatic precipitators (ESPs). The company also offers sustainable solutions including flue gas recirculation systems, de-sulphurisation, de-nitration, and ash handling plants. APC system selection depends on fuel type, boiler capacity, flue gas temperature, ash characteristics, and the PM outlet limit in the applicable SPCB consent-to-operate conditions.
A thermic fluid heater heats a thermal oil (synthetic or mineral-based heat transfer fluid) to temperatures typically between 150°C and 300°C or above, circulating it through process equipment via an oil pump providing high-temperature indirect heating without a high-pressure steam system. This is preferred in chemical, textile, rubber, and plastics processing where process temperatures exceed the practical pressure limits of low-pressure steam systems. Par Boiler manufactures thermic fluid heaters as part of its confirmed product portfolio.
A well-maintained industrial steam boiler with correct water treatment, disciplined annual maintenance, and IBR-compliant inspection typically operates for 20–30 years. The steam drum or boiler shell is expected to reach this life with proper corrosion protection and monitoring. Evaporator tubes may require partial replacement after 10–15 years depending on fuel ash abrasiveness, water chemistry, and operating load. Material quality at manufacture and water treatment quality throughout operation are the primary determinants of tube and pressure vessel service life.
Par Boiler provides after-sales support including: spare parts supply for all manufactured boiler types, periodic service visits, annual service programmes covering burner overhaul and tube inspection, IBR annual inspection documentation support, and technical support for operational troubleshooting. Annual Maintenance Contract (AMC) options are available. Confirm spare parts lead times, service response time to your specific location, and AMC coverage scope and exclusions before finalising a purchase order.
Industrial boiler prices depend on boiler type, capacity (TPH), operating pressure, fuel system, automation level, emission control requirements, and scope of supply. A packaged gas-fired fire tube boiler starts at approximately ₹5–12 lakh for small capacities; a 15–20 TPH biomass FBC water tube boiler with bag filter can be ₹2–4 crore or more depending on specification. The most accurate basis for cost evaluation is a complete scope-defined quotation from Par Boiler's engineering team for your specific project requirement.
A hot air generator burns fuel to heat air to a high temperature for drying or heating applications where steam is not required or practical. Direct hot air generators allow combustion gases to mix with the heated air suitable for materials where contamination from combustion products is acceptable (ceramic, brick, some agro-processing). Indirect hot air generators heat air through a heat exchanger, keeping combustion gases separate required for food, pharmaceutical, or other contamination-sensitive drying applications. Par Boiler manufactures both direct and indirect hot air generators.
Yes. Par Techno-Heat Pvt. Ltd.'s product range includes co-generator power plants systems that generate both steam and electrical power from a single fuel source. Co-generation is particularly applicable for sugar mills (burning bagasse for steam and power), large textile or chemical plants with significant and consistent steam and power demand, and paper mills. The correct co-generation design depends on the plant's simultaneous steam and power demand profiles, fuel type, and grid connection arrangements.
Compare on: application experience for your specific boiler type, IBR documentation capability, thermal efficiency at defined identical conditions, fuel combustion expertise for your fuel type, manufacturing quality evidence (material certificates, NDT records), APC system completeness for your SPCB consent conditions, commissioning scope, after-sales service response time, spare parts availability, and total cost of ownership. For a structured comparison framework, see our guide on Par Boiler vs other boiler manufacturers.
Par Techno-Heat Pvt. Ltd. is located at: Opp. Bhagyoday Hotel, Sanand - Viramgam Road, Vasna-Iyava, Sanand, Ahmedabad - 382170, Gujarat, India. The facility can be visited by appointment for prospective customers who wish to inspect the manufacturing setup. Contact: +91-9727775036 or boilermanufacturer_india@parboiler.com.
Par Boiler's steam boilers include all IBR-mandatory safety devices as standard: at least two independent spring-loaded safety valves, calibrated steam pressure gauge with MAWP red mark, at least two independent water level indicators (gauge glasses), automatic low water level burner shutdown, feed check valve, main steam stop valve, and blowdown/blow-off cock. Gas and oil fired boilers additionally include flame failure detection with automatic fuel valve closure. PLC-based control with safety interlock logic is standard on all boiler configurations.
Contact Par Techno-Heat Pvt. Ltd. by: phone at +91-9727775036 or +91-7984095980, email at boilermanufacturer_india@parboiler.com, or through the enquiry form at www.parboiler.com/contact-us. To receive an accurate project-specific quotation, provide: required steam capacity (TPH or kg/hr), operating pressure, fuel type and quality, industry and process application, site location, and any known SPCB emission compliance requirements. The engineering team will prepare a technical specification and quotation based on these project parameters.
