Goel Glass Inc is a specialist manufacturer of precision scientific glassware and high purity quartz components. Every product is manufactured to exacting dimensional and purity standards, ensuring reliable performance in critical scientific and industrial processes.
Our standard quartz laboratory glassware range provides direct high-purity replacements for conventional borosilicate glass, offering superior thermal resistance and contamination performance for analytical and preparative laboratory work.
High-purity flask suitable for high-temperature reactions and ultra-trace analytical applications, capable of withstanding temperatures exceeding 1000°C while maintaining chemical inertness.
Designed for high-temperature reflux and distillation processes where borosilicate is unsuitable, offering superior thermal shock resistance and optical clarity.
Engineered for aggressive acids and high-temperature evaporation, maintaining dimensional stability and chemical purity under severe laboratory conditions.
Essential for the preparation of ultra-trace standard solutions in ICP and ICP-MS analysis, ensuring minimal contamination and high calibration accuracy.
High-temperature resistant measuring cylinder delivering excellent optical clarity, designed for reliable operation in aggressive chemical environments and elevated temperatures.
High-purity flask suitable for high-temperature reactions and ultra-trace analytical applications, capable of withstanding temperatures exceeding 1000°C while maintaining chemical inertness.
Our standard quartz laboratory glassware range provides direct high-purity replacements for conventional borosilicate glass, offering superior thermal resistance and contamination performance for analytical and preparative laboratory work.
High-purity quartz condenser designed for efficient vapor cooling in laboratory distillation and purification systems. The fused quartz construction provides excellent thermal resistance, chemical inertness, and ultra-low contamination.
Primary heating vessel designed for high-purity distillation assemblies. The flask provides excellent thermal resistance and contamination-free boiling for sensitive laboratory distillation processes.
Designed for high-purity water distillation systems where contamination-free condensation is essential. It prevents contamination and withstands prolonged heating cycles.
Engineered from High-purity quartz furnace ware for high-temperature laboratory and industrial processes. Delivers excellent thermal stability, chemical resistance, and designed for reliable operation in muffle furnaces and thermal analysis systems, these components offer excellent thermal shock resistance and dimensional stability. Suitable for continuous use at temperatures up to 1100–1200°C.
Manufactured for ash content determination, calcination, and metallurgical testing. Operates at temperatures up to1100–1200°C Provides exceptional resistance to thermal shock and chemical attack.
A precision-engineered laboratory vessel designed for the determination of volatile matter in materials such as coal, coke, and other carbonaceous substances.
Designed for use in muffle furnaces for controlled sample heating, ignition, and ash determination. Manufactured from high-purity fused quartz, the tray offers excellent thermal stability and chemical resistance.
High-purity quartz combustion boat designed for high-temperature combustion, ash analysis, and thermal processing in laboratory and industrial furnaces.
High-Precision Quartz Components for UV, Spectroscopy & Analytical Applications. High-purity quartz components engineered for UV-Vis-NIR optical performance in spectroscopy and analytical instrumentation.
High-purity optical quartz cuvettes designed for precise UV-Vis-NIR spectroscopic analysis. These cuvettes provide excellent optical transparency from 170-2700 nm, ensuring accurate and contamination-free measurements in analytical, research, and quality control laboratories.
High-purity quartz optical windows designed for superior light transmission in UV-Vis-NIR applications. Ideal for spectroscopy, analytical instruments, and optical systems where high transparency, thermal stability, and chemical resistance are required. Commonly used in UV, IR, plasma, and photochemical systems requiring reliable optical performance.
Critical to the efficient transmission of light, clear fused quartz contains very low levels of impurities (as measured in parts per million). This single component glass is further distinguished from other glass material by a very high transmission of ultra violet light. The higher the purity of the material, the higher the transmittance in UV-range. For this reason, synthetically manufactured fused quartz materials show the highest transmission for ultraviolet light.
The UV transmission properties of fused quartz can be modified by the incorporation of a dopant in the material. The doping causes the material to absorb a certain range of wavelengths.
Hydroxyl (OH- ) groups in the material may cause absorption bands in infrared range. The strongest of these bands, at 2,73 μm is used to determinate the OH-content in fused quartz materials. The higher the OH-content, the higher the absorption at this wavelength.
The light transmission of fused quartz may be reduced or even extinguished when the material is exposed to high-energy UV-radiation, X-rays, gamma rays and particle bombardment.
Mechanical Properties (at 20°C)
Mechanical property measurements are dependent upon geometry, thermal gradient and surface quality. For proper strength calculations, the lower pressure variable should be used.
| Density | 2,20 g/cm3 | Bending Strength | 68 N/mm2 |
| Compressive Strength | 1150 N/mm2 | Elasticity modulus | 7,5x104 N/mm2 |
| Tensile Strength | 50 N/mm2 | Mohs Hardness | 5,5-6,5 |
It supports continuous operation up to 1100°C and withstands short-term exposure exceeding 1400°C.
Yes, its extremely low coefficient of thermal expansion prevents fracturing during rapid temperature cycling.
It maintains ultra-low contamination levels with trace metal content strictly limited to the parts-per-billion (ppb) range.
They provide excellent light transmission from deep UV (150 nm) through the visible and near-IR spectrums.
Cleanliness is required to achieve good performance. Keeping the glass clean helps reduce devitrification and maximizes the overall life of the material.
It must be handled with extreme care and touched only while wearing clean cotton gloves.
The material should be properly wrapped and stored in a clean, dry environment.
The cleaning process requires three precise steps: