Skip to main content

A Grim Chronicle: The History of Mining Accidents in India

India's mining sector dates back centuries, with coal extraction recorded as early as 1774 in Raniganj and gold mining beginning in the Kolar Gold Fields by 1880. However, the rapid industrialization post-independence amplified risks, leading to numerous tragedies driven by factors like explosions, flooding, roof collapses, and inadequate safety measures. 

The late 19th and early 20th centuries saw the first major disasters. In 1897, a fire in the Kolar Gold Fields claimed 52 lives, marking one of the earliest recorded mining calamities in the country. This was followed by the 1907 Khost Coal Mine disaster in Baluchistan (now Pakistan), where 47 miners perished. 

These events underscored the urgent need for safety regulations.

The post-independence era witnessed some of the deadliest incidents, particularly in coal mines, which dominate India's mining landscape. 

Key disasters include:

  • 1965 Dhanbad Coal Mine Disaster: On May 28, an explosion at the Dhori colliery near Dhanbad ignited a fire, trapping and killing 268 miners. Owned by the Raja of Ramgarh, this tragedy exposed vulnerabilities in explosion-prone environments. 

  • 1975 Chasnala Mining Disaster: Perhaps the most catastrophic, this occurred on December 27 in a coal mine near Dhanbad. An explosion breached a wall, flooding the mine with millions of gallons of water from an adjacent abandoned shaft, resulting in 375 deaths. Recovery efforts were grueling, with bodies retrieved weeks later. An investigation blamed management negligence, leading to prosecutions. 

  • 1979 Newton Chikli Colliery Disaster: In Maharashtra, this explosion claimed over 50 lives, highlighting ongoing issues with gas accumulation and ventilation.

  • 2018 Meghalaya Mining Accident: In a stark reminder of persistent risks, 15 miners were trapped in an illegal rat-hole mine in the East Jaintia Hills on December 13 due to flooding from a nearby river. Despite multi-agency rescue efforts, only two bodies were recovered, with 13 declared dead. This incident spotlighted illegal mining practices, banned by the National Green Tribunal in 2014. 

From 1901 to the present, India has recorded around 59 major mining disasters (claiming 10 or more lives each), primarily in coal mines.  Common causes include methane explosions, inundations, and structural failures, often exacerbated by poor oversight and outdated equipment.

The Shield of Legislation: Acts and Rules Shaping Safety

The history of mining accidents spurred the evolution of India's regulatory framework, transforming a reactive approach into a comprehensive safety net. The first legislative steps were taken in 1895, but major disasters accelerated change. 

  • Indian Mines Act, 1901: Enacted in response to the 1897 Kolar disaster, this was the inaugural law mandating basic safety inspections and worker protections. 
  • Indian Mines Act, 1923: This updated version expanded on labor welfare and safety standards.
  • Mines Act, 1952: The cornerstone of modern mining regulation, effective from July 1, 1952, it consolidates laws on labor regulation, health, and safety across all mines, including offshore operations. Key provisions include mandatory health check-ups, ventilation requirements, rescue apparatus, and limits on working hours. Amendments in 1959 and 1983 strengthened enforcement, introducing stricter penalties and oversight. 

Supporting rules and regulations include:Mines Rules, 1955: Establishes safety committees for mines employing over 100 workers, promoting worker involvement in hazard identification. 

  • Coal Mines Regulations, 2017: Specific to coal operations, these cover explosion prevention, fire control, and emergency response. 
  • Metalliferous Mines Regulations, 1961: Applies to non-coal mines, emphasizing structural integrity and machinery safety. 

The Directorate General of Mines Safety (DGMS), established in 1902 and restructured in 1967, enforces these laws through inspections, training, and accident investigations. 

Subscribe to our newsletter for updates on DGMS mining engineering exam 

Study material for DGMS mining exams 

Comments

Popular posts from this blog

Mechanics of Fluids (Solved Numerical Problems)

Numerical The surface Tension of water in contact with air at 20°C is 0.0725 N/m. The pressure inside a droplet of water is to be 0.02 N/cm² greater than the outside pressure. Calculate the diameter of the droplet of water. (7 marks) (AMIE Summer 2023) Solution Surface tension, σ = 0.0725 N/m Pressure intensity, P = 0.02 N/m 2 P = 4σ/d Hence, the Diameter of the dropd = 4 x 0.0725/200 = 1.45 mm Numerical Find the surface tension in a soap bubble of 40 mm diameter when the inside pressure is 2.5 N/m² above atmospheric pressure. (7 marks) (AMIE Summer 2023) Answer: 0.0125 N/m Numerical The pressure outside the droplet of water of diameter 0.04 mm is 10.32 N/cm² (atmospheric pressure). Calculate the pressure within the droplet if surface tension is given as 0.0725 N/m of water. (AMIE Summer 2023, 7 marks) Answer: 0.725 N/cm 2   Numerical An open lank contains water up to a depth of 2 m and above it an oil of specific gravity 0.9 for a depth of 1 m. Find the pressure intensity (i) at t...

Geotechnical & Foundation Engineering (Solved Numerical Problems)

Numerical A 1000 cc core cutter weighing 946.80 g was used to find out the in-situ unit weight of an embankment. The weight of the core cutter filled with soil was noted to be 2770.60 g. Laboratory tests on the sample indicated a water content of 10.45 % and specific gravity of solids of 2.65. Determine the bulk unit weight, dry unit weight, void ratio, and degree of saturation of the sample. (AMIE Summer 2023, 8 marks) Solution Weight of soil in core cutter = 2770.60 - 946.80 = 1823.8 g Bulk unit weight, γ t = W/V = 1823.8/1000 = 1.82 g/ccDry unit weight, γ d = γ t /(1 + w) = 1.82/(1 + 0.1045) = 1.65 g/cc Void ratio, e = (G s γ w /γ d ) - 1 = (2.65 x 1.0/1.65) - 1 = 0.61 Degree of saturation, S = wG s /e = (0.1045 x 2.65)/0.61 = 0.4540 = 45.4% Numerical What is the theoretical height of the capillary rise and the capillary pressure in fine-grained soil with an effective size (D 10 ) of 0.002 mm? (AMIE Summer 2023, 4 marks) Solution D 10 = 0.002 mm;  Using the assumption that th...

Energy Systems (Solved Numerical Problems)

Wind at 1 standard atmospheric pressure and \({15^0}C\) has velocity of 15 m/s, calculate (i) the total power density in the wind stream (ii) the maximum obtainable power density (iii) a reasonably obtainable power density (iv) total power (v) torque and axial thrust Given: turbine diameter = 120 m, and turbine operating speed = 40 rpm at maximum efficiency. Propeller type wind turbine is considered. (AMIE Winter 2023) Solution For air, the value of gas constant is R = 0.287 kJ/kg.K 1 atm = 1.01325 x 105 Pa Air density \(\rho  = \frac{P}{{RT}} = \frac{{1.01325x{{10}^5}}}{{287}}(288) = 1.226\,kg/{m^3}\) Total Power \({P_{total}} = \rho A{V_1}^3/2\) Power density \(\begin{array}{l}\frac{{{P_{total}}}}{A} = \frac{1}{2}\rho {V_1}^3\\ = \frac{1}{2}(1.226){(15)^3}\\ = 2068.87{\mkern 1mu} W/{m^2}\end{array}\) Maximum power density \(\begin{array}{l}\frac{{{P_{\max }}}}{A} = \frac{8}{{27}}\rho A{V^3}_1\\ = \frac{8}{{27}}(1.226){(15)^3}\\ = 1226{\mkern 1mu} W/{m^2}\end{array}\) Assuming eff...