Quantum Industrial Solutions’ Post

Building demolition involves safely dismantling structures using methods like explosives or machinery to clear the site.

Corrosion is the primary reason behind buildings and structures near water bodies deteriorating. Quelling such corrosion requires restoration with Reclamation Electrodes. #classicelectrodes #steelfabrication #welding #Metals #Mildelectrodes

Dewatering of pier trench

During the preparation phase for the controlled blasting demolition of a 25-meter-tall overhead water tank, strict compliance with industrial safety standards and protocols is of utmost importance. A critical aspect of the preparation involves the installation of three protective layers comprising galvanized iron (GI) mesh and geotextile fabric around the structure. These layers are strategically designed to contain and mitigate the ejection of debris, ensuring the protection of nearby equipment, structures, and personnel. This approach is widely recognized as a highly effective and safe method for controlled blasting, significantly reducing the risk of fly rock. Additionally, scaffolding is carefully erected to provide structural stability and facilitate the precise placement of the protective layers. #linkdinpost #feedlinkdin #linkdin #linkdinapply #linkdinworld #controlblastig

Did you know that Bridge Demolition is usually undertaken using mechanical demolition processes which involves using specific specialized equipment such as excavators, cranes, and hydraulic breakers? Sometimes this type of demolition requires controlled explosives (demolition by explosion) as the complexity and size of the bridge structure require the bridge to be dismantled into manageable sections for safe removal. #Demolition #Bridges #Construction #Staffing #Recruiting www.SequenceStaffing.com

Demolition Equipment, Excavator Attachments, Hydraulic Attachments, Materials Handling, Separation #Excavator #Demolition #DemolitionEquipment #virtualreality #simulation

Safety Considerations for Trenching Operations

Why safety training is so important, but not only training but field empowerment.

Great example of why OSHA Subpart P requires engineering in some way, shape or form on protective systems. I always ask my class attendees, “when do we need engineering?” It’s a loaded question because there’s several options for designing systems. The answer I always seem to get is, “At 20’ deep”. This is Really a misinterpretation in many ways. Design by PE can include what’s considered Site Specific engineering & use of Manufacturers Tabulated Data, particularly in the case of shoring and shielding designs. #thinkinsidethebox #trenchsafety #osha #sunbeltrentals

Any protective system for excavations is engineered to withstand soil collapse, based on the depth and the soil type. Clearly in this example, this two sided shield is not. So depth from grade is fairly simple, but if you work in dirt, how do you assess soil type? Do you do a manual test? Are you recording it in your JHA or similar? Are you able to tell your cage supplier, what type it is? Finally, water logged soils are the heaviest and exert the most pressure. Be very careful when working in this type of soil.