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Shell And Tube Heat Exchanger

Shell and tube heat exchanger for industrial heat transfer applications.

Shell and Tube Heat Exchanger Overview

Goel Scientific designs glass shell-and-tube heat exchangers that deliver high heat transfer efficiency, corrosion resistance, and adaptability for chemical and industrial applications . Compared to coil-type designs, these units offer greater overall heat transfer coefficients (up to ~3×) and lower pressure drops, making them well suited for demanding process duties . Their modular design supports custom scaling, ease of maintenance, and robust performance in harsh chemical environments .

Key Features

  • Shell and tube design
  • High heat transfer efficiency
  • Borosilicate glass construction
  • Industrial grade performance

Specifications

Design and operating specifications for Goel’s glass shell-and-tube heat exchangers include:

• Design Types: RGG (glass/glass/glass), RGM (glass tube, non-aggressive shell), RMG (non-glass shell, glass tube)

• Overall Heat Transfer Coefficient (U): Higher by factor ~3 relative to coil designs

• Pressure Drop: Low shell-side pressure drop; coil-type competitors may incur 2–3 kg/cm² drop on coil side

• Mechanical Construction: PTFE sockets & ferrule-type seals, baffles for turbulence enhancement, joint-less tubes for pressure rating

• Dimensional Range: Tube counts (e.g., 37, 73, 151), shell diameters (e.g. DN150, DN225, DN300), lengths up to ~4.5 m, baffle numbers from 7 to 23 depending on design

• Temperature & Pressure Limits: Typical working temp difference up to 120 °C; pressures, e.g. shell/tube sides up to 2–3.5 kg/cm² depending on model

• Materials: Borosilicate glass tubes, PTFE/packing seals, structural frames in SS or FRP, options for shell materials when required

Applications

Shell-and-tube heat exchangers by Goel are used in:

• Cooling and heating duties in chemical, pharmaceutical, and process industries where corrosive fluids are involved

• Condensation and evaporation duties, especially in systems requiring precise thermal control and vacuum compatibility

• Aggressive chemical processes (acidic, halogenated, etc.) where glass wetted parts offer better longevity than metals

• Compact installations needing high heat transfer area in constrained spaces, by leveraging modular tube bundles and optimized HTAs

• Systems requiring maintenance and modular repairability, since tubes can be replaced individually without discarding the full shell structure