Iron & Steel

Woven filter mesh is a tightly interlaced metal wire fabric made from stainless steel, galvanized steel, or aluminum, used in agriculture to filter water, air, and particles. It plays a crucial role in: Irrigation system filtration Soil and fertilizer screening Protection of greenhouse ventilation Pest and debris control in crop production

Perforated metal is one of the most versatile and popular metal products on the market today. Perforated panels can range in thickness from light to heavy duty and can be perforated for any type of material, such as perforated carbon steel. Perforated metal is versatile and can have small or large aesthetic openings. This makes perforated metal sheets ideal for many architectural metal and decorative metal uses. Perforated metal is also an economical choice for your project. Our perforated metal filters solids and diffuses light, air and sound. It also has a high strength-to-weight ratio.

Epoxy coated wire mesh also called epoxy mesh, epoxy coated welded wire mesh, hydraulic filter protective mesh ,filter element supporting mesh . The industrial epoxy coated wire mesh is mainly used as the supporting layers of hydraulic or air filters, works as main part of liter element. It’s made of annealed low carbon steel wire or annealed aluminum wire through plain weave and epoxy powder coating.

Expanded Walkway mesh is an extremely common application for steel plate mesh. The raised binder and steel strands provide greater support than the original steel deck. Due to the different weights per square foot and shapes of the diamond pattern, expanded metal walkway produces different strength-to-weight ratios for a variety of industrial and commercial settings. Compared to bar grating, metal walkway mesh has the advantage of being slip-resistant and has a high load-bearing capacity, which makes it safer, especially for women who wear high heels. Engineers consider it an excellent choice when safety and compliance are key criteria.

Dear Sir/Madam, (HS 721420) We would like to offer: Steel Bar. Consist of: Deformed Bar, Round Bar, Flat Bar, Angle Bar. Quality standard: JIS, ASTM, BS.4449, NZS, SNI. Delivered in bundles having the mass between 2 and 5 metric tons, at 12 mtr (+/-100mm) length or at any other demanded length. Manufactured by ISO 9001 certified manufacturer. Product of Indonesia. For any interested parties, pls kindly contact for further details. Thank you. Contact: +6285892224657 (whatsapp, viber).

Minimum Order: 100

Neoprene Rubber Bearing Pads are essential elastomeric components widely used in bridge construction, commercial buildings, and industrial applications to absorb shock, distribute loads, and accommodate structural movements. Manufactured from durable chloroprene rubber (neoprene), these bearing pads offer excellent resistance to weathering, ozone, temperature fluctuations, and chemicals, making them suitable for both indoor and outdoor environments. Available in plain and laminated types, plain neoprene pads provide reliable performance for static loads and foundational support, while laminated variants —with reinforcement layers such as PTFE or stainless steel—enhance durability and allow for thermal expansion and multidirectional movement. Commonly used in bridge supports, seismic retrofitting, machinery bases, and expansion joints, Neoprene Rubber Bearing Pads comply with international standards like AASHTO and ASTM, and are engineered to ensure long-term performance, flexibility across wide temperature ranges, and reduced maintenance in modern infrastructure.

Round Laminated Elastomeric Bearing Pads are structural support elements used in bridges and buildings to absorb vertical loads and accommodate horizontal movements such as thermal expansion, seismic activity, and wind-induced shifts. These bearings consist of multiple layers of natural or neoprene rubber bonded with internal steel plates, providing a balance of flexibility and strength. Their circular design ensures even load distribution and allows for efficient rotational and shear deformation, reducing stress on supporting structures. Widely used in highway bridges, precast concrete structures, and seismic isolation systems, these pads offer long-term durability, resistance to aging, and consistent performance under varied environmental and load conditions.

Rectangular Laminated Elastomeric Bearing Pads are essential components in bridge and structural engineering, designed to support vertical loads while accommodating horizontal movement and rotational deflection. These bearing pads are constructed by alternating layers of high-strength natural or chloroprene rubber and steel plates, which are vulcanized together to form a durable, flexible unit. The laminated structure allows the pad to effectively distribute loads, absorb vibrations, and adapt to movements caused by thermal expansion, traffic loads, or seismic activity. Ideal for use in straight-span bridges, viaducts, flyovers, and buildings, rectangular laminated elastomeric bearing pads provide long-term performance, excellent weather resistance, and are commonly specified for structures requiring precise load transfer and movement control.

Elastomeric Bridge Bearing Pads are essential structural components designed to support bridge loads while accommodating movements caused by thermal expansion, contraction, and vibrations. Made from high-quality natural rubber or neoprene, these bearing pads provide excellent elasticity, compressive strength, and durability, ensuring effective load transfer between bridge superstructures and substructures. Their ability to absorb shocks and reduce vibration enhances bridge stability and extends structural lifespan. Commonly used in highway bridges, railway bridges, and viaducts, elastomeric bearing pads are preferred for their maintenance-free performance, corrosion resistance, and ability to function in varying environmental conditions.

Spherical Bridge Bearings are specialized structural bearings designed to support heavy vertical loads while allowing smooth rotational and limited translational movements in bridges and large-span structures. Composed of a precision-machined steel spherical surface combined with PTFE or composite sliding materials, these bearings efficiently transfer loads from the superstructure to the substructure while accommodating thermal expansion, rotational deformation, and seismic forces. Known for their high load-bearing capacity, excellent durability, and resistance to extreme weather and corrosion, spherical bridge bearings are widely used in highway bridges, railway bridges, viaducts, and large concrete or steel structures, ensuring structural safety, extended service life, and reduced maintenance requirements.

Pot bridge bearings are structural components designed to support large vertical loads while accommodating limited rotational and horizontal movements in bridges and heavy structures. Comprising a steel pot, an elastomeric disc, and a piston, these bearings transfer vertical loads through confined elastomeric compression while allowing rotational movement due to the deformation of the elastomeric disc. Pot bridge bearings are widely used in highway bridges, railway bridges, and other infrastructure where high vertical load capacity, durability, and minimal maintenance are required. Their robust design ensures stable performance under heavy loads and temperature variations, making them ideal for long-span bridges and structures requiring reliable load distribution and movement accommodation.

Lead Rubber Bearings (LRB) are advanced seismic isolation devices engineered to protect bridges, buildings, and other critical structures from earthquake damage by minimizing vibrations and dissipating seismic energy. These bearings are made of alternating layers of natural or neoprene rubber and reinforced steel plates, with a lead core securely embedded in the center. The rubber layers provide flexibility and allow controlled horizontal movement, while the steel plates ensure high vertical load-bearing capacity. During seismic events, the lead core undergoes plastic deformation, absorbing and converting seismic energy into heat, which reduces structural acceleration and lengthens the vibration period. Widely applied in highway bridges, railway systems, high-rise buildings, and essential infrastructure, lead rubber bearings offer superior load distribution, long-lasting durability, and cost-effective seismic protection.

High Damping Rubber Bearings (HDRB) are advanced seismic isolation devices designed to protect bridges, high-rise buildings, and critical infrastructure from earthquake damage. These bearings are constructed from alternating layers of natural or neoprene rubber and steel reinforcement plates, providing high vertical load capacity and exceptional horizontal flexibility. Their unique damping properties allow effective energy dissipation by converting seismic energy into heat, reducing structural acceleration and extending the vibration period during earthquakes. High Damping Rubber Bearings are widely used in highway bridges, railway systems, and industrial buildings due to their excellent durability, corrosion resistance, and maintenance-free performance. Available in both round and rectangular shapes, standard sizes typically range from 200 mm × 300 mm to 600 mm × 600 mm, with thicknesses from 50 mm to 200 mm, and custom dimensions can be manufactured upon request.

Seismic isolation rubber bearings are structural components designed to reduce seismic forces and horizontal displacements transmitted to bridges and buildings during earthquakes. These bearings typically include high damping rubber bearings and lead rubber bearings, each offering different energy dissipation properties. High damping rubber bearings absorb vibrations effectively, while lead rubber bearings provide high ductility, enabling quick recovery after seismic events. By introducing a flexible layer between the superstructure and foundation, seismic isolation bearings extend the vibration period of the structure, reduce acceleration, and protect structural integrity. They are widely applied in highways, railway bridges, residential complexes, hospitals, and critical infrastructure across various seismic zones and soil conditions.