Berns Infrastructure’s Post

Some Key facts about the bailey bridge. The Bailey bridge is a type of portable, pre-fabricated, truss bridge. Here are some key facts about the Bailey bridge used by armies worldwide: 1. The bridge is made up of prefabricated panels that can be quickly assembled in various configurations to span different distances and support different weights. This modular design allows for flexibility in construction and rapid deployment. This allows for rapid construction in diverse terrains and under challenging conditions. 2. Bailey bridges are typically constructed using steel components. The panels, transoms, and stringers are all designed to be light enough to be carried by a small group of soldiers or transported by trucks. 3. The bridge components are standardized and can be assembled using simple tools without the need for specialized equipment like cranes or heavy machinery. This allows for rapid construction in diverse terrains and under challenging conditions. 4. Despite their temporary nature, Bailey bridges are known for their durability and ability to withstand heavy loads. They have been used in various military conflicts and disaster relief operations around the world. 5. The Bailey bridge design has been widely adopted and adapted by many countries and organizations. It remains a key asset in military engineering and continues to be used in both military and civilian applications where rapid bridge construction is required. #bridgeengineering #steelstructure #structureengineering #civilengineering #indianarmy #kerela #engineering

Did you know? The roots of Pre-Engineered Buildings (PEBs) trace back to the early 20th century, gaining remarkable traction during World War II. Back then, the U.S. military leveraged prefabricated metal buildings for diverse purposes, including aircraft hangars and barracks. This wartime innovation not only accelerated construction timelines but also spotlighted the versatility and efficiency of PEBs in meeting urgent infrastructure demands. From that historical backdrop, PEBs have evolved into a cornerstone of modern construction, offering speed, cost-effectiveness, and durability. To know more about the PEB industry, email us at: [email protected] #PEB #Construction #Innovation #HistoryLesson #LinkedInLearning #Adoriva #AdorivaInfratech #SustainableConstruction #PreEngineeredBuildings #preengineeredbuildings #prefabconstructions #industrialconstruction #industry #b2b #civilengineering #construction #buildings #industrial #commercial #prefabsolutions #engineeringsolutions #structural #design #infrastructure

"Saluting the brave hearts on Army Day! 🎖️ Civilcon Infra Consulting Engineers honors the indomitable spirit, sacrifice, and dedication of our soldiers. 🏗️🇮🇳 #armyday #salutetosoldiers #civilconsalutesheroes #civilconinfraconsultingengineers #CICE #engineers #GeotechnicalEngineering #Testing #SoilTesting #LiquidLimit #ScienceInAction #Dpr #construction #consultancy #geotechnicalinvestigation #contractor #structuralengineering #infra #infrastructure #bridgedesign #highwaydesign #detaildesign #epc #hydroproject #solarproject🌐"

Roman military fortifications: engineering marvels from 2000 Years Ago Roman construction engineering was extremely advanced, as demonstrated by the innovative techniques used for the creation of infrastructure and military fortifications. The Romans mastered the use of materials such as concrete, allowing them to build imposing walls and aqueducts that have endured for centuries. Their construction techniques included the use of arches and vaults, which effectively distributed weight, and the adoption of deep and robust foundations, ensuring stability even on difficult terrains. Military fortifications, such as city walls and castra (military camps), were precisely designed to withstand attacks, employing towers, moats, and reinforced gates. These achievements testify to a level of engineering expertise that has influenced architecture and engineering for millennia. What do you think? Were the Romans the best engineers of antiquity? 📹by @memorias_delpasado #engineering #technology #CivilEngineering #construction For more: 📌 Follow #ImpressiveEngineering 📌 Click on the 🔔 and select “All”

US Army Corps of Engineers® ManualNo. 1110-2-6054 1 December 2001 ENGINEERING AND DESIGN Inspection, Evaluation, and Repair of Hydraulic Steel Structures Purpose. This manual describes the inspection, evaluation, and repair of hydraulic steel structures, including preinspection identification of critical locations (such as fracture critical members and various connections) that require close examination. Nondestructive testing techniques that may be used during periodic inspections or detailed structural inspections are discussed. Guidance is provided on material testing to determine the chemistry, strength, ductility, hardness, and toughness of the base and weld metal. Analyses methods that can be used to determine structure safety, safe inspection intervals, and expected remaining life of the structure with given operational demands are presented. Finally, considerations for various types of repair are discussed.

The U.S. Army Engineer Research and Development Center (ERDC) and the 511th Engineer Dive Detachment worked together in the demolition of a damaged 120-ton mooring dolphin at a critical refueling pier in the Kwajalein Atoll, located more than 2,000 miles southwest of Hawaii. Researchers from the ERDC Geotechnical and Structures Laboratory (GSL) provided specialty engineering, modeling and oversight for the demolition. Constructed in 1954, the dolphin was seriously damaged and unstable, often observed moving with tidal activity. If left alone, an uncontrolled failure of the dolphin could cause significant damage to the concrete pier and the ship channel, preventing ships from accessing the island's only refueling location. GSL’s support included computational modeling of the dolphin and the pier under different demolition scenarios to determine the optimum solution for demolishing the dolphin without compromising the structural integrity of the concrete pier. Onsite support was provided to ensure safety to the personnel before, during and after demolition. United States Department of Defense US Army #military #kwajalein #pacific #army #demoliton #explosives #safety #modeling #engineer #engineering #geotechnical #shipping #refueling #science #innovation #technology #research #researchanddevelopment #PowerofERDC

Check out the major floor space saving when the RCE is retracted.   The PanBlast RCE Retractable Concertina Containment Enclosure is ideal for blasting and/or painting operations, and is designed to collapse and extend to facilitate loading and unloading of workpieces, this also allows the floor space to be used for other work when the containment enclosure is not in use. To extend and retract the enclosure, a drive system is provided with wireless remote control. In the retracted position, the room length will be approximately 1/3 of its original length.   Further Details – www.panblast.com   #airless #painting #paintingcontractors #paintingservice #abrasiveblasting #sandblasting #steelfabrication #surfacepreparation #surfaceprep #surfacetreatment #surfacefinishing #surfacecleaning #surfaceprotection #vacuumrecovery #sspc #nace #blastpots #pipes #corrosionprotection #corrosion #corrosionprevention #pipeline #compressedair #gritblasting #pneumatic #shotblasting #shiprepair #oilandgas #shiprepairs #oilrigs #vacuum #dockyard #dustcollector #dustcontrol #dust #compressors #coating #training #quality #ppe #safety #safework #navy #protectivecoatings #mining #recycle #blasting #airblasting #shipbuilding #miningmaintenance #epc #epcprojects #mro # #rustremoval #osha #restoration #bridgerepair #hullcleaning #frosio #ampp #heatreatment #greenenergy #industrialcoatings #shutdowns #maintenance #certified #inspection #naval #fabrication #engineering #construction #military #blastroom #marinecoatings #ventilation #innovation  

Marching camp, 1st Century AD Marching camps were crucial for Roman military operations, especially during the 1st century AD. These camps were temporary fortifications set up each night when the army halted. The construction of these camps was meticulous, reflecting the Roman emphasis on discipline and organization. Here's a brief overview of what a Roman marching camp might have been like: ### Layout and Construction 1. **Site Selection**: Roman camps were typically located on flat, elevated ground with good drainage, close to resources like water but far from potential enemies. 2. **Surveying**: The camp's layout was carefully surveyed. Roman engineers, or "geometers," used tools like the "groma" to ensure straight lines and right angles. 3. **Fortifications**: - **Ditch and Rampart**: A defensive ditch was dug around the camp, with the earth piled up to form a rampart (a raised embankment). - **Palisade**: Wooden stakes, or "palisades," were planted along the top of the rampart for additional protection. - **Gatehouses**: There were typically four main gates, one on each side of the camp, which were heavily fortified and guarded. 4. **Internal Organization**: - **Street Layout**: The camp was organized into a grid pattern, with main streets running perpendicular to each other, creating orderly blocks for different functions. - **Tents**: Soldiers' tents were arranged in a specific order. The tent of the commanding officer (the "praetorium") was centrally located, often surrounded by the tents of higher-ranking officers. - **Storehouses and Workshops**: Areas for supplies, equipment repair, and other logistical needs were set aside. 5. **Defensive Measures**: In addition to the fortifications, there were often additional defensive measures like watchtowers and barriers to deter potential attackers. ### Daily Life 1. **Routine**: Each day began with the camp being dismantled and packed up as the army moved. Upon reaching the next location, the camp was quickly set up again according to the established plan. 2. **Training and Drills**: Soldiers practiced drills and maintained their equipment during downtime. This rigorous training helped keep the army in peak condition. 3. **Guard Duty**: Regular guard shifts were assigned to ensure the camp's security throughout the night. 4. **Cooking and Eating**: Meals were prepared in designated areas, and soldiers typically ate in small groups. The camp's layout allowed for efficient food distribution and preparation. The efficiency of the Roman marching camp system was a testament to Roman engineering and military discipline, enabling the Roman legions to conduct long campaigns across diverse terrains while maintaining a high level of organization and readiness.