The Salazar Bringing Engineering Community Closer |Follow Along For Amazing Content🏗|

Bringing Engineering Community Closer |Follow Along For Amazing Content🏗|
We are Salazar Studio Officials

10/09/2026

The iconic King Fahad Sports City Stadium is undergoing a massive transformation, proving that legendary sporting infrastructure can evolve to meet modern standards without losing its historic identity!

Join for more amazing content.

Project is designed by Populous & Clip is from the vault of SBG.

The iconic King Fahad Sports City Stadium is undergoing a massive transformation, proving that legendary sporting infras...
10/09/2026

The iconic King Fahad Sports City Stadium is undergoing a massive transformation, proving that legendary sporting infrastructure can evolve to meet modern standards without losing its historic identity!

Originally opened in 1987, this national landmark is being expertly renewed through innovative sustainability and engineering strategies:

Capacity & Excavation: Expanding seating capacity by digging 10 meters down, repurposing excavated soil on-site to build a vibrant mixed-use landscape masterplan.

Circular Economy & Reuse: Repurposing old structural roof masts and cables into photovoltaic solar shade structures for parking areas, and giving the distinctive hexagonal cladding a second life on new utility buildings.

Heritage Preservation: Maintaining the beloved East Stand, royal hospitality areas, and the iconic Hive structure while introducing a state-of-the-art 36,000-square-metre cable-net roof canopy.

Advanced Comfort: Implementing semi-automatic deployable terrace covers that drop concrete surface temperatures by up to 8°C, paired with a smart displacement cooling strategy to combat the desert climate.

Community Integration: Adding a football academy, sports center, amphitheatre, fan zones, and relocating over 400 trees to establish a thriving green public parkland.

This project sets a brilliant benchmark for sustainable infrastructure development, honoring the past while engineering a high-performance future for global events.

Join The Salazar if you are interested in more.

Safety First: Mastering SABIC’s Life-Saving Rules (LSR) on SiteIn high-stakes industrial plant ex*****on across Al Jubai...
07/09/2026

Safety First: Mastering SABIC’s Life-Saving Rules (LSR) on Site

In high-stakes industrial plant ex*****on across Al Jubail, technical expertise must be paired with zero-compromise safety. SABIC Corporate’s Life-Saving Rules (LSR) are non-negotiable field protocols designed to prevent catastrophic incidents and safeguard every worker on site.

Understanding and strictly enforcing these rules ensures operational continuity, zero-accident milestones, and absolute compliance with international plant standards.

The 10 Core Life-Saving Rules Every Site Professional Must Follow

1ïļâƒĢ Work Authorization & PTW: Never start any activity without a valid, approved Permit to Work (PTW) and a clear Job Safety Analysis (JSA).

2ïļâƒĢEnergy Isolation (LOTO): Verify complete zero-energy state and apply Lockout/Tagout before entering, servicing, or maintaining machinery or electrical systems.

3ïļâƒĢ Confined Space Entry: Test atmosphere, ensure continuous ventilation, verify standby personnel, and secure authorization before entering restricted spaces.

4ïļâƒĢ Working at Height: Utilize 100% tie-off with an inspected safety harness, certified anchorage points, and compliant scaffolding when working above 1.8 meters.

5ïļâƒĢ Line Breaking: Depressurize, drain, purge, and verify hazardous energy isolation before breaking any process line or vessel containment.

6ïļâƒĢ Lifting Operations: Never walk or stand under a suspended load. Ensure riggers are certified, cranes are inspected, and exclusion zones are barricaded.

7ïļâƒĢ Gas Testing: Conduct mandatory, continuous gas testing prior to and during hot works or entry into potentially hazardous atmospheres.

8ïļâƒĢ Excavation Safety: Secure proper pe*******on permits, inspect soil stability, and install required shoring or benching for excavations deeper than 1.2 meters.

9ïļâƒĢ Management of Change (MOC): Never modify plant equipment, procedures, or ex*****on plans without formal MOC review and authorized approval.

🔟 Driving Safety: Always wear seatbelts, adhere to plant speed limits, and eliminate mobile phone distractions while operating vehicles or heavy equipment.

Why LSR Adherence Matters for Field Engineers & QA/QC ❓

Strict compliance with SABIC LSR is not just a regulatory requirement—it reflects a strong safety culture on site. Prioritizing systematic safety inspections, verifying method statements, and maintaining zero tolerance for unsafe acts ensures structural integrity, protects human life, and maintains project timelines without costly stop-work orders.

Which rule do you think is the most favorite of yours?
Which LSR did we miss?

Engr Sheryar Bismil on the role to make Engineering Easy for all.

What Number Did You spot while Scrolling? Tell us in the comment Section!
01/09/2026

What Number Did You spot while Scrolling?

Tell us in the comment Section!

01/09/2026

Unbelievable but true!🌊

During the devastating floods that struck Nepal, this remarkable house stood strong — completely on its own.

While the raging waters swept everything else away, this structure refused to collapse or be carried off. A fascinating video breaks down exactly how it managed to defy the disaster.

A powerful reminder of resilience, smart design, and the strength that can emerge even in the face of nature’s fury. 💊🏠ðŸ‡ģðŸ‡ĩ

Have you seen this story? What does true resilience look like to you?

Come with us if you want to keep yourself The Salazar ☑ updated.

01/09/2026

Someone has to be inside the hub when the blade arrives.

We mostly designed crane pads and access roads for wind farms and watched blade lifts from the ground. Never from this angle: inside the hub, looking out at 100+ studs coming toward you.

This is single blade installation. The blade hangs horizontally in a yoke and the crane brings the root end sideways to the pitch bearing. The studs are factory anchored in the root laminate, so the blade arrives with its bolts already in place.

A guide pin catches the bearing first. Then the studs slide into the bearing holes and the technicians inside the hub fit and tension the nuts.

The technician here is the crane operator’s eyes for the last minute. He lies back and watches it come, then rises into the opening, arms up, for the final centimeters.

A few numbers behind that ring of steel:
→ A 75 m blade weighs roughly 25 tonness; the largest onshore blades reportedly approach 70 tonness
→ Root connections commonly run to 100+ studs; one documented project used 128 M36 per blade, each tensioned to about 435 kN (roughly 44 tonnes)
→ Conventional single blade lifts stop at about 8 m/s (18 mph); modern yokes stretch that to 10 to 12 m/s

The yoke does the lifting. The studs do the holding. But the moment 25 tonnes of composite meets a steel bearing belongs to one person with a radio and a hard hat.

Blade techs and crane crews: what does that last minute feel like from inside the hub? What surprised you the first time?

Join the club The Salazar ☑ for more amazing content.

ðŸŽĨ by edward_lebaron (IG)

Reposted from Sir David Jasinski

🌉 Bridge Series: Conquering the Bay, (The Sheikh Jaber Causeway, Kuwait)Stretching across Kuwait Bay, the Sheikh Jaber A...
28/08/2026

🌉 Bridge Series: Conquering the Bay, (The Sheikh Jaber Causeway, Kuwait)

Stretching across Kuwait Bay, the Sheikh Jaber Al-Ahmad Al-Sabah Causeway is one of the longest and most complex marine causeway projects in the world. Designed to connect Kuwait City to the future Silk City (Madinat al-Hareer) development, this mega-project features a breathtaking asymmetric cable-stayed bridge centerpiece that commands attention.

🏗ïļ Why Engineers Admire the Sheikh Jaber Causeway:
Staggering Scale: Spanning a total length of nearly 49 kilometers (with over 36 kilometers stretching continuously pier-to-pier across open water), it ranks among the longest water-crossing bridges globally.

Timeline of Ex*****on: Formally commenced construction following contract awards in late November 2013, and was successfully completed and opened to traffic in May 2019.

The Main Bridge Landmark: Features a stunning main cable-stayed span with a distinctive, soaring central pylon shaped like a traditional Kuwaiti sail, symbolizing heritage integrated with ultra-modern structural form.

Rigorous Marine & Geotechnical Ex*****on: Built across harsh marine environments with shallow waters and extreme temperatures, requiring massive bored pile foundations, precast segmental box girder er****on, and high-durability concrete designed to resist severe saline corrosion.

🏛ïļ The Project Ecosystem (The Makers Behind the Marvel):

Client / Project Owner: Ministry of Public Works (MPW), Kuwait, as a cornerstone infrastructure initiative under Kuwait Vision 2035.

Design & Supervision: Masterminded by global consultants including Dar.

Main International Construction & Engineering Firms: Executed through prominent international joint ventures and specialists, prominently led by Hyundai Engineering & Construction Co.,Ltd. and Bouygues Travaux Publics, alongside G. S. Construction | Civil Engineering & Design expart, TYLin, SYSTRA, AECOM, Tony Gee and Partners, Trevi S.p.A., and Fugro.

Key Specialty Suppliers: Essential components and technologies were delivered by Hyundai Steel, JENOPTIK, SWARCO, and SOLARI SPA.

ðŸ’Ą The Engineer’s Insight:
Constructing long maritime causeways requires meticulous logistics—often utilizing floating batch plants and specialized launching girders to transport thousands of precast segments without putting heavy strain on fragile coastal ecosystems.

Bridge Series Challenge: When executing massive multi-kilometer marine causeways in hyper-saline and high-temperature Gulf waters, what is your primary defense strategy: specifying high-performance concrete mixes with supplementary cementitious materials, or relying on fusion-bonded epoxy coatings for steel reinforcement?
Let’s debate in the comments!

The Salazar

Bringing Engineering Community Together..!

Pics Credit: From the Vault of Dar Article.

Decoding Eurocodes EN 1504: The Global Benchmark for Concrete Repair & Protection 🏗ïļWhen diagnosing, restoring, or exten...
27/08/2026

Decoding Eurocodes EN 1504: The Global Benchmark for Concrete Repair & Protection 🏗ïļ

When diagnosing, restoring, or extending the service life of concrete structures, relying on a standardized framework is essential. The EN 1504 standard defines the global requirements for product performance, structural assessment, and application methods in concrete protection and repair.

Core Structure of EN 1504

EN 1504-1: Definitions and terminology.

EN 1504-2 to 7: Performance specifications for products (Surface Protection,
Structural Mortars, Grouting, Crack Injection, and Rebar Protection).

EN 1504-8 & 10: Quality control, site ex*****on, and application guidelines.

EN 1504-9: The key framework defining the overall Principles & Methods for repair selection.

Key Principles of Concrete Protection (EN 1504-9)

1):-Protection Against Ingress (PI)
Stop water, chlorides, and CO2 pe*******on.
Hydrophobic impregnations, surface coatings (EN 1504-2).

2):-Concrete Restoration (CR)
Replace defective or spalled concrete.
Hand-applied or sprayed repair mortars (EN 1504-3).

3):-Structural Strengthening (SS)
Restore or increase load-bearing capacity.
CFRP plate bonding, mortar enlargement, post-tensioning.

4):-Physical/Chemical Resistance
Protect against abrasion, impact, or aggressive fluids.
High-durability protective resin coatings.

5):-Anodic Control / Corrosion Protection
Protect embedded reinforcing steel from ongoing corrosion.
Active/barrier rebar coatings (EN 1504-7) & electrochemical treatments.

For structural repair projects in your region, do you primarily follow EN 1504, or do local standards (like ACI 546 or Aramco SAES-Q-001) take precedence?

Join us Salazar Studio Official ☑ for more upcoming Eurocodes standard to decode.


🌉 Bridge Series: Spanning the Giants (The Akashi Kaikyo Bridge, Japan)When you need to cross a treacherous, storm-batter...
23/08/2026

🌉 Bridge Series: Spanning the Giants (The Akashi Kaikyo Bridge, Japan)

When you need to cross a treacherous, storm-battered shipping lane prone to violent typhoons and severe seismic activity, standard bridge design goes out the window.

Enter the Akashi Kaikyo Bridge (also known as the Pearl Bridge) in Japan—the longest suspension bridge in the world, stretching across the Akashi Strait to connect Kobe to Awaji Island.

🏗ïļ Why Engineers Marvel at the Akashi Kaikyo:

Record-Breaking Main Span: Boasts a staggering central span of 1,991 meters (6,532 feet), making it an absolute milestone in long-span structural engineering.

Overcoming Natural Fury: Built to withstand winds up to 286 km/h (178 mph) and powerful earthquakes up to magnitude 8.5, utilizing a complex dual-tube girder stiffening system and aerodynamic stabilization.

Massive Foundation Engineering: The massive anchorages required deep-sea underwater concrete pouring using giant double-walled steel cylinders, dropped into place under extreme tidal currents before being filled with thousands of tons of concrete.

🏛ïļ The Project Ecosystem (The Makers Behind the Marvel):

Client / Project Owner: Honshu-Shikoku Bridge Expressway Company, built to unify regional transport networks under major national infrastructure frameworks.

Design & Engineering: Masterminded by elite Japanese civil engineering consultants and structural specialists who pioneered high-tensile wire manufacturing (able to support 700 kilograms per square millimeter!).

Contractor Consortium: Executed through large-scale Japanese heavy civil joint ventures capable of precision offshore marine construction and extreme high-altitude steel er****on.

ðŸ’Ą The Engineer’s Insight:

Building the world's longest suspension bridge requires a delicate balance between flexibility and rigidity. Too rigid, and extreme winds will snap the structure; too flexible, and traffic loads will induce catastrophic resonance. The Akashi Kaikyo Bridge is a masterclass in dynamic dampening and wind-tunnel physics.

Bridge Series Challenge: When designing ultra-long suspension bridges, managing aerodynamic flutter during typhoon-force winds is one of the toughest battles.

If you were on the wind engineering team, would you rely more on passive aerodynamic deck shaping or active mechanical dampening systems? Let’s talk strategy in the comments!

The Salazar

Civil Engineering Knowledge Sharing Hub.









🌉 Bridge Series: Conquering the Straits (The Second Penang Bridge, Malaysia)When you need to connect a bustling island t...
17/08/2026

🌉 Bridge Series: Conquering the Straits (The Second Penang Bridge, Malaysia)
When you need to connect a bustling island to a mainland across a 24-kilometer marine expanse, standard engineering solutions are pushed to their absolute limits.

Welcome to the Sultan Abdul Halim Muadzam Shah Bridge (Second Penang Bridge)—the longest sea bridge in Southeast Asia and a monumental triumph of modern structural and geotechnical engineering.

🏗ïļ Why Engineers Admire the Second Penang Bridge:
Staggering Length: Spanning a total length of 24 kilometers (with 16.9 kilometers over water), it creates a seamless logistical corridor connecting Batu Maung on Penang Island to Batu Kawan on the mainland.

Seismic Resilience: Located in a region vulnerable to tectonic activity, the bridge features High Damping Rubber Bearings (HDRB) and specialized seismic joint modules designed to withstand magnitude 7.5 earthquakes centered up to 300 kilometers away.

Marine Foundation Mastery: Driven through deep, soft marine clay deposits, thousands of high-capacity steel piles anchor the massive viaduct spans against both tidal forces and long-term settlement.

ðŸ’Ą The Engineer’s Insight:
Designing ultra-long marine viaducts isn't just about spanning distance; it requires rigorous corrosion-resistant material science (like high-performance marine concrete and epoxy-coated reinforcement) to survive decades of aggressive saltwater exposure with minimal downtime.

Bridge Series Challenge: When constructing multi-kilometer marine bridges over soft seabed sediment, what is your primary concern: managing differential settlement in the substructure or implementing effective seismic isolation across the superstructure? Let’s share insights in the comments!

Join us The Salazar

āļ—āļĩāđˆāļ­āļĒāļđāđˆ

From Azad Kashmir
Nong Khai
11461

āđ€āļšāļ­āļĢāđŒāđ‚āļ—āļĢāļĻāļąāļžāļ—āđŒ

+66994916956

āđ€āļ§āđ‡āļšāđ„āļ‹āļ•āđŒ

āđāļˆāđ‰āļ‡āđ€āļ•āļ·āļ­āļ™

āļĢāļąāļšāļ—āļĢāļēāļšāļ‚āđˆāļēāļ§āļŠāļēāļĢāđāļĨāļ°āđ‚āļ›āļĢāđ‚āļĄāļŠāļąāđˆāļ™āļ‚āļ­āļ‡ The Salazarāļœāđˆāļēāļ™āļ—āļēāļ‡āļ­āļĩāđ€āļĄāļĨāđŒāļ‚āļ­āļ‡āļ„āļļāļ“ āđ€āļĢāļēāļˆāļ°āđ€āļāđ‡āļšāļ‚āđ‰āļ­āļĄāļđāļĨāļ‚āļ­āļ‡āļ„āļļāļ“āđ€āļ›āđ‡āļ™āļ„āļ§āļēāļĄāļĨāļąāļš āļ„āļļāļ“āļŠāļēāļĄāļēāļĢāļ–āļāļ”āļĒāļāđ€āļĨāļīāļāļāļēāļĢāļ•āļīāļ”āļ•āļēāļĄāđ„āļ”āđ‰āļ•āļĨāļ­āļ”āđ€āļ§āļĨāļē

āļ—āļēāļ‡āļĨāļąāļ”

āđāļŠāļĢāđŒ

āļ›āļĢāļ°āđ€āļ āļ—