SIW-Testing Service Center for Prestressed Steel Wire Quality Testing

5 ขั้นตอนแก้ผนังรั่วซึมจากรอยร้าว

15-05-2025

“ผนังร้าวจากแผ่นดินไหวยังไม่พอ…ฝนตกยิ่งน้ำรั่วซึม” หลายพื้นที่เพิ่งเจอแรงสั่นสะเทือนจากแผ่นดินไหว แล้วก็เริ่มพบว่า “ผนังรั่วซึม” เมื่อฝนตกตามมา หากเจอแบบนี้ อย่าเพิ่งตกใจ เราขอแนะนำวิธีแก้เร่งด่วนเบื้องต้นที่คุณทำได้เอง: 1. หาต้นตอรอยร้าว – ส่องให้ดีว่ารั่วมาจุดไหน แนวร้าวแนวตั้ง/เฉียง หรือแค่ผิวปูน 2. ทำความสะอาดรอยร้าว – ใช้แปรงหรือผ้าชุบน้ำ เช็ดคราบฝุ่นและสิ่งสกปรก 3. อุดด้วยซิลิโคนหรือซีเมนต์กันซึม – แบบสำเร็จรูป หาซื้อได้ตามร้านวัสดุก่อสร้าง ใช้งานง่าย 4. ปิดทับด้วยเทปกันซึม/ฟิล์มกันน้ำ (ชั่วคราว) – ถ้าไม่มีเวลา ให้ปิดกันน้ำเข้าไว้ก่อน 5. หลีกเลี่ยงการทาสีหรือฉาบทับทันที – เพราะจะดักความชื้นไว้ ทำให้เชื้อราขึ้นง่าย แต่ทั้งหมดนี้เป็นแค่ “มาตรการชั่วคราว” เพื่อรอให้โครงสร้างนิ่งแล้วค่อยซ่อมถาวร โดยอาจต้องปรึกษาวิศวกรหรือตรวจสอบความปลอดภัยของโครงสร้างก่อน อย่าปล่อยให้รอยร้าวกลายเป็นปัญหาใหญ่ในอนาคต **ทั้งนี้ทั้งนั้นขึ้นอยู่กับขนาดรอยร้าว #รอยรั่วหลังแผ่นดินไหว #บ้านรั่วทำไงดี #กันซึมDIY #วิธีแก้น้ำซึมเร่งด่วน #ปลอดภัยไว้ก่อน

LIVE: A Closer Look at “Thai vs Japanese Structures” – Essential Knowledge for Earthquake-Resistant Design.

07-07-2025

A Closer Look at “Thai vs Japanese Structures” – Essential Knowledge for Earthquake-Resistant Design.🎁 Special Giveaway!Like + Share this post for a chance to win exciting prizes!📍 [Live Session]🕑 Starts at 2:00 PM | Tuesday, July 8, 2025Watch live on: Facebook: https://www.facebook.com/share/v/1Awmf5PaeK/ YouTube: https://youtube.com/live/P3cKiPsbqo8?feature=share Join the conversation and dive into construction standards with earthquake engineering expert:Professor Dr. Panuwat JoykladDepartment of Civil and Environmental Engineering,Faculty of Engineering, Srinakharinwirot University #SIW #EarthquakeResistantStructures    

Why Choose SIW - Testing Service Center

30-08-2024

Why Choose SIW - Testing Service Center for PC Wire and PC Strand Testing?✔️Convenient, Fast, and Cost-Effective✔️ISO/IEC 17025 Certified by NATA (National Association of Testing Authorities, Australia)✔️Modern, High-Efficiency Equipment with Over 99.95% Accuracy✔️Compliant with Standards of Over 70 Countries, Including TIS, ASTM, JIS, and MoreService Information:1. Fatigue Testing Machine-Brand: Zwick Roell, Model: HA500-Testing Standards Supported: AS/NZS 4672.1, AS/NZS 4672.2, BS 5896, LNEC E 542, LNEC E 453, ISO 15630 Part 3, TIS 95-2540, TIS 420-2540-PC Wire: Maximum Load Capacity of 500 kN, Supports Sample -Diameters of 5 – 22 mm-PC Strand: Maximum Load Capacity of 500 kN, Supports Sample -Diameters of 5 – 22 mm-Deformed Bar: Maximum Load Capacity of 500 kN, Supports Sample Diameters of 5 – 40 mmRelaxation Testing Machine2. Testing Standards Supported: AS/NZS 4672.1, AS/NZS 4672.2, ASTM A416/A416M, ASTM A421/A421M, ASTM A881, BS 5896, ISO 15630-3, JIS G3536, TIS 95-2540, TIS 420-2540-PC Wire: Maximum Load Capacity of 300 kN, Supports Sample Diameters of 4 – 9 mm-PC Strand: Maximum Load Capacity of 500 kN, Supports Sample Diameters of 9.3 – 18.0 mm Contact Us: >>Click<<

Construction Trends to Watch in 2025

16-12-2024

Construction Trends to Watch in 2025 Modern construction trends focus not only on developing advanced and robust structures but also on integrating clean and alternative energy sources to promote sustainability and reduce environmental impacts. These trends mark a significant step toward a sustainable future. Sustainable Construction The concept of sustainable construction is gaining significant traction in the construction industry as it aligns with ESG principles, emphasizing environmental impact reduction and efficient resource use. Examples include: Utilizing environmentally friendly construction materials. Implementing carbon-reduction techniques in construction processes. Managing waste effectively by sorting and recycling materials. This approach not only mitigates environmental impacts but also enhances resource efficiency, ensuring that modern structures meet current needs without depleting future resources. Digital Technology in Construction Digital technologies are transforming workflows in the construction industry, making them more efficient and sustainable. Examples include: IoT (Internet of Things): Real-time data collection devices for monitoring safety on construction sites. AI (Artificial Intelligence): Data analysis tools to optimize processes, such as safety risk assessments. BIM (Building Information Modeling): Enables precise structural designs and project management, minimizing material waste and construction errors. Other advanced technologies, such as drones for 3D site surveys and AR/VR for virtual design, reduce costs, improve safety, and facilitate accurate decision-making. Clean Energy The adoption of clean energy in construction is accelerating, particularly in large-scale projects aiming to minimize environmental impacts. Examples include: Solar Roofs: Lower energy costs and reduce greenhouse gas emissions. Wind Energy: Harnessing wind power to decrease reliance on fossil fuel-based electricity. Using clean energy not only lessens environmental impacts but also reduces energy costs, creating sustainable structures to meet future needs efficiently. Prefabrication Prefabricated construction is another key trend. This involves designing and manufacturing components such as pre-made walls, floor panels, columns, and roofs in controlled factory environments before assembling them on-site. Prefabrication speeds up construction, reduces site complexities, and ensures quality. SIW’s Commitment to Construction Trends SIW prioritizes key construction trends, such as employing AI to enhance operational efficiency, utilizing clean energy like solar power, and supporting sustainable construction through recycled materials from EAF (Electric Arc Furnace) technology. SIW has also achieved Green Industry Level 4 certification and is working towards its Net Zero carbon emission goal by 2050, advancing sustainability in all dimensions of the construction industry.

How deep should the pile be drilled to ensure safety?

05-07-2023

How deep should the pile be drilled to ensure safety?Piles are an essential component used to support and transfer the weight and load of a building to the ground. The load transfer of a pile occurs through the frictional resistance between the pile surface and the surrounding soil or through direct load transfer to the underlying soil or bedrock. The main purpose of using piles is to prevent the building or structure from settling or sinking into the ground. For small-scale buildings, the piles used are generally shorter in length and fewer in number. However, larger buildings may require a greater number of piles or longer piles to transfer the load to deeper layers of soil and bear a higher load capacity. If the pile extends to the level of hard soil, it can directly transfer the load from the building to the hard soil layer. How do piles bear the load?Piles bear the load through two main types of forces: "skin friction" and "end bearing." 1. Skin Friction: This force is generated by the frictional resistance between the pile surface and the surrounding soil. The magnitude of this force depends on the type of soil (each soil type has different skin friction properties) and the characteristics of the pile surface. 2. End Bearing: This force occurs at the pile tip, where the pile rests on a firm soil layer. The magnitude of this force depends on the type of soil, such as the presence of voids between soil particles. Soils with more voids have a lower load-bearing capacity, while compacted sands have a higher load-bearing capacity. In general pile design, for skin friction piles, the focus is on the size and length of the pile to generate sufficient lateral friction to support the applied load. For end bearing piles, the design aims to have the pile sit on a compacted sand layer. Types of piles used in construction can be broadly categorized into three main types based on their manufacturing and usage characteristics: 1. Spun Piles: These piles are produced by spinning concrete in a mold at high speed. This process results in a dense and strong concrete core with embedded steel reinforcement. Spun piles can be driven or drilled and are suitable for high-rise buildings that require strength to withstand wind loads and earthquakes. 2. Bored Piles: Bored piles are constructed by drilling a hole and then placing steel reinforcement and concrete into the drilled hole. They come in various lengths and sizes as specified. Bored piles are suitable for projects that require high strength and load capacity. 3. Prestressed Concrete (PC) Piles: PC piles are manufactured by placing concrete into a mold that contains prestressed steel wires or strands. The concrete is then compressed to enhance its strength. PC piles are used in construction projects that require high strength and durability in various environmental conditions. Siam Wire Industries (SIW) offers PC Wire and PC Strand, which are the primary components used in the production of prestressed concrete piles. SIW has gained recognition in over 50 countries worldwide and provides post-sales services, including on-site wire pulling tests for customers. These services ensure customer confidence in using SIW's prestressed wire products. PC Wire: [Link to SIW's PC Wire product page] (https://www.siw.co.th/en/product-detail/pc-wire) PC Strand: [Link to SIW's PC Strand product page] (https://www.siw.co.en/th/product-detail/pc-strand)

เสียงตอบรับจากลูกค้า - บริษัท ยูไนเต็ดคอนสตรัคชั่นแมติเรียล จำกัด (UNICO)

20-01-2023

'ทำไมจึงต้องเลือกใช้สินค้าของสยามลวดฯ' มาดูวิสัยทัศน์ และแนวคิด ของคุณสรณีย์ ดีพันธุ์พงษ์, กรรมการผู้จัดการ บริษัท ยูไนเต็ดคอนสตรัคชั่นแมติเรียล จำกัด (UNICO) ผู้ผลิตเสาเข็มสปันเจ้าแรกในประเทศไทย เรามาฟังคำตอบ ความเชื่อมั่น ความไว้วางใจ จากลูกค้าคนสำคัญของเราพร้อมกันเลย

High-Quality PC Strand for Nuclear Reactors

16-06-2025

High-Quality PC Strand for Nuclear ReactorsReliable under all conditions with superior standardsSIW’s PC strand has passed stress relaxation testing at elevated temperatures up to 40°C, compared to the industry standard testing typically conducted at room temperature (approximately 20°C).This ensures that SIW’s PC strand is well-suited for use in nuclear reactors, even under high-temperature conditions.✅ Proven performance under high-temperature and high-risk environments ✅ A trusted choice for international-level critical structures✅ Low carbon footprint and certified with an Environmental Product Declaration (EPD)

What is Curing Concrete?

01-05-2023

To achieve continuous development of the compressive strength of concrete, it is necessary to fully hydrate the cement, which is accomplished through curing. Curing is a method that involves controlling and preventing the evaporation of residual water from the reaction.   The objective of curing concrete is twofold: 1) to attain maximum strength and durability in the resulting concrete. 2) to regulate temperature and minimize water evaporation to avoid cracking.   The following are typical techniques for curing concrete: 1) Regularly spraying water to keep the concrete moist. 2) Applying a plastic cover after spraying water to prevent water from evaporating. 3) Using sacks soaked in water to cover the concrete. 4) Applying a chemical coating to the surface of the concrete.   The Siam Industrial Wire (SIW) provides PC WIRE TIS. 95-2540 and PC STRAND TIS. 420-2540, which are the primary components of prestressed concrete production and are acknowledged in over 50 countries worldwide. SIW offers after-sales services to customers, including free calibration of wire pulling machines at their site to ensure that customers can use prestressed wire with confidence.   PC Wire: https://www.siw.co.th/th/product-detail/pc-wire PC Strand: https://www.siw.co.th/th/product-detail/pc-strand

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