Areas where highly corrosive materials are used in the chemical process and plants. Industries where the critical application like food, pharma and fine chemicals. To control environment pollution. FEATURE Best quality in class with excellent performance. Excellent corrosion resistance to the chemicals. Maintenance Free/Long Service life cycle/Easy Installable, ensuring cost reduction in production and maintenance. QUALITY CONTROL High Voltage electric spark test-all lined components. Standard Hydraulic Test (15 kg/cm3) of Body and seat (10 kg/cm3) Virgin lining materials used-FEP/PFA. Size: 40 NB to 350 NB LINNING Thickness: Spark Test : 3.0 to 3.5 mm Mini. Over all wetted parts. 15k.v.D.C. Teflon FEP/PFA Type Service : Temp. : Teflon (FEP) Max-160�°C Teflon (PFA) Max-205�°C
Applicable Standards Design standard: BS5155, EN593, API609 Flange standard: BS EN1092-2 Top flange standard: ISO5211 Face to face standard: BS EN558-1 Pressure test standard: BS EN12266-1, API598 Features and Benefits Wider EPDM seat, replaceable, its suit for different type of flanges. ISO5211 standard top flange, suit for different operations. Eccentric pin on the stem, not destroy stem structure, make sure the safety. Temperature overload protection. Free switch between hand and electric. IP67 protection level. Both ON/OFF type and Regulating type actuator available. Technical Data Nominal diameter: DN50~DN600(2"~24") Nominal pressure: PN16 Working temperature: -5C ~ +85C Sealing test: 1.1PN Shell test: 1.5PN Suitable for: Water, ethylene glycol, non correction medium, etc. Power supply voltage: 220V Protection level: IP67 Environment temperature: -5C ~ 70C Working environment: No corrosive flammable medium, no explosive medium
Features and Benefits Wider EPDM seat, replaceable, its suit for different type of flanges. ISO5211 standard top flange, suit for different operations. Eccentric pin on the stem, not destroy stem structure, make sure the safety. Temperature overload protection. Free switch between hand and electric. IP67 protection level. Both ON/OFF type and Regulating type actuator available. Applicable Standards Design standard: BS5155, EN593, API609 Flange standard: BS EN1092-2 Top flange standard: ISO5211 Face to face standard: BS EN558-1 Pressure test standard: BS EN12266-1, API598 Technical Data Nominal diameter: DN50~DN600(2"~24") Nominal pressure: PN16 Working temperature: -5C ~ +85C Sealing test: 1.1PN Shell test: 1.5PN Suitable for: Water, ethylene glycol, non correction medium, etc. Power supply voltage: 220V Protection level: IP67 Environment temperature: -5 C ~ 70 C Working environment: No corrosive flammable medium, no explosive medium
Features and Benefits Vulcanized EPDM seat. Streamlined SS304 disc, corrosion resistant. ISO5211 standard top flange, suit for different operations. Electrostatically applied Akzo Nobel epoxy powder internally and externally. Temperature overload protection Free switch between hand and electric. IP67 level protection Applicable Standards Design standard: BS5155, EN593, API609 Flange standard: BS EN1092-2 Top flange standard: ISO5211 Face to face standard: BS EN558-1 Pressure test standard: BS EN12266-1, API598
From 40 mm to 300 mm dia butterfly valves, plug valves.
CAPT valve actuators includes worm gear driven units suitable for ball valves, butterfly valves, plug valves, as well as fire-control worm gear drives with micro-switches for fire protection systems and debris insulation. This product series also include a line of bevel gear driven units suitable for gate valves and globe valves. This bevel gear unit features either a one-stage or multi-stage series transmission, which includes a wide output torque range. CAPT has over 15 years of experience manufacturing this product line, with an annual output of 300,000 sets of various types of valve actuators including custom actuators per customer request. Advanced equipment and strict production technique ensures CAPT valve actuators are trusted domestically and worldwide for their dependability and quality.
Product :C.I. Butterfly Valve with Electric Actuator Type of Pattern : Water Type Pressure/Class/Rating : PN 10/PN 16 Body Material Cum Standard : CI to IS:210 Gr FG200 Type of Lining : EPDM Type of Disc : SS CF 8 Stem : AISI-410 End Details : Suitable insertion between flanges as ASME B 16.1 or Class-125 Testing & Certification Ratings: PN10 Body Test Pressure : 1.5MPa (218 Psig) Hyd Seat Test Pressure : 1.1MPa (160 Psig) Hyd PN16 Body Test Pressure : 2.4MPa (348 Psig) Hyd Seat Test Pressure : 1.8MPa (261 Psig) Hyd
Rotary Actuator Features & Specialities Double Acting, Single Acting, 180 Deg and Quarter Turn actuators Compact and Rigid Light weight construction Torque Range - 10 Nm to 20,000 Nm Supply Pressure - 4.5 Bar to 9 Bar Certifications - CE, ATex, SIL2 Optional - Manual Over ride, Positioner, Limit switch, 180 Deg Rotation, etc. With Position Indicator DIN / ISO Mounting as standard Single Moving internal part, efficient torque transmission with minimum torque loss Quick Operation - Best suitable for emergency shutdown valves and other applications Maintenance free Easy spares availability ONE-to-ONE fitting, no mounting brackets or fabricated attachments required
1. Rotary hydraulic actuator 2. Torque 300nm-100, 000nm 3. Double or single action 4. Double spiral swing technique 5. Iso 5211 standard connection 6. Rotary angle 90¡à1 7. Max 210 bar working pressure Export standard packing
A butterfly valve is a shut-off valve with a relatively simple construction. In closed position, the disc blocks the valve bore while in open position, the disc is turned to allow flow. A quarter turn takes the valve from fully open to fully closed position, or opposite, and thus the butterfly valve allows for quick opening and closure. Butterfly valves can be used for a broad range of applications within water supply, wastewater treatment, fire protection and gas supply, in the chemical and oil industries, in fuel handling systems, power generation etc. Some of the advantages for this type of valve are the simple construction not taking up too much space, and the light weight and lower cost compared to other valve designs. The valves can be operated by handles, gears or actuators according to any specific need.
12v 24v 110v 220v 380v electric actuated motorized PVC butterfly valve PVC FRPP, PPR Butterfly Valve Series according to DIN, ANSI, JIS, CNS, Standard with Specification DN50-DN500 ( 2"- 20" ) Working Pressure from DN50 to DN 200 ( 2"- 8" ) PN10 and DN200 ( 8" ), DN250 ( 10" ), DN300 ( 12" ) PN6; Pneumatic Butterfly Valve: Basic Type (Switch Type): Installed Pneumatic Butterfly Valve Actuators Optional: Electromagnetic Valve (Single, Dual DC, AC 24V, 110V, 220V) All Switch, Joint Pieces of Gas Source, Regulatory Locator Configuration as the User's Request 1. PVC Butterfly Valve ( Lever ) DIN, ANSI, JIS, CNS Standard with Carbon Steel Stem #45 & EPDM Rubber. 2. PVC Butterfly Valve ( Lever ) DIN, ANSI, JIS, CNS Standard with Stainless Steel Stem # 420 & EPDM Rubber. 3. PVC Butterfly Valve ( Lever ) DIN, ANSI, JIS, CNS Standard with Stainless Steel Stem # 304 & EPDM Rubber 4. PVC Butterfly Valve ( Lever ) DIN, ANSI, JIS, CNS Standard with Stainless Steel Stem # 304 & FPM / VITON Rubber. 5. FF-PP / PP-G Butterfly Valve ( Lever ) DIN, ANSI, JIS, CNS Standard with Carbon Stem #45 & EPDM Rubber. 6. FF-PP / PP-G Butterfly Valve ( Lever ) DIN, ANSI, JIS, CNS Standard with Stainless Steel Stem # 420 & EPDM Rubber. 7. FR-PP / PP-G Butterfly Valve ( Lever ) DIN, ANSI, JIS, CNS Standard with Stainless Steel Stem # 304 & EPDM Rubber. 8. FR-PP / PP-G Butterfly Valve ( Lever ) DIN, ANSI, JIS, CNS Standard with Stainless Steel Stem # 304 & FPM / VITON Rubber. 9. PP-R Butterfly Valve ( Lever ) DIN, ANSI, JIS, CNS Standard with Carbon Stem #45 Actuator Features: Pneumatic Actuators: Rack and pinion Actuator Design Spring return or double acting Open and closed adjustment stops True NAMUR accessory mounting Visual indicator Electric Actuators: 24V DC, 24V AC, 110V AC,220V AC NEMA 4 and NEMA 7 enclosures Manual override Visual indicator
Fly ash is a finely divided residue made from the combustion of pulverized coal that can be used to increase concrete durability and workability, while reducing permeability. As fly ash contains aluminous and siliceous components, it may form cement when mixed with water if the calcium content of the fly ash is high enough. Similarly, mixing fly ash with lime and water can create a substance similar to Portland cement. Fly ash can be separated into two main types, known as: Class F Class F fly ash contains particles covered in a type of melted glass allowing it to reduce the risk of concrete expansion and increase resistance to sulfates and alkali-aggregate reactions. Class C Class C fly ash contains a higher percentage of calcium oxide, making it more effective in strengthening structural concrete. Applications & Benefits of Fly Ash: Fly ash is used in commercial and industrial sectors for improving the durability and workability of concrete mixes. Fly ash is also used as filler in paints, adhesives, and metal and plastic composites. It's commonly used as structural fill for road construction and fly ash can be used to make bricks, ceramic tiles, plaster, Portland cement, and ready-mix cement.
Microsilica (silica fume) is a by-product of silicon metal or ferrosilicon industries, is an amorphous silicon dioxide SiO2. This product reacts chemically with the calcium hydroxide in the cement paste which yields a calcium silicate hydrate gel that significantly enhances strength and durability. The super fine microsilica fills the voids between cement particles creating a very dense, less permeable concrete. Physical characteristics: Color: gray or gray white powder Bulk density: 320-700 kg/m3 Chemical composition: Items SiO2 Al2O3 Fe2O3 MgO CaO Na2O Moisture Content 75-98% 1.0-0.2% 0.9-0.3% 0.7-0.1% 0.3-0.1% 1.3-0.2% Fineness: the fineness of the silica fume is less than 1 1/4m, and the average particle size is 0.1 0.3 1/4m, and the specific surface area is 20 - 28 m2/g. The fineness and specific surface area are about 80-100 times of cement and 50-70 times of fly ash. Maxtech Micro Silica supplies will be as per QCS 2014 (ASTM C1240): SiO2: >/= 92% LOI:
GGBFS Ground granulated blast furnace slag (GGBFS) The ground granulated blast furnace slag (GGBFS) is a by-product of iron manufacturing which when added to concrete improves its properties such as workability, strength and durability. This material is obtained by the heating of iron ore, limestone and coke at a temperature about 1500 degree Celsius. The process is carried out in a blast furnace. The formation of GGBFS is not direct. The by-product of iron manufacturing is a molten slag and molten iron. The molten slag consists of alumina and silica, also with the certain amount of oxides. This slag is later granulated by cooling it. For this, it is allowed to pass through a high-pressure water jet. This result in quenching of the particles which results in granules of size lesser than 5mm in diameter. The main constituents of blast furnace slag are CaO, SiO2, Al2O3 and MgO. These are the minerals that are found in most of the cementitious substances. The particles are further dried and ground in a rotating ball mill to form a fine powder, known as ground granulated blast furnace slag cement. Now different methods can be employed to perform the main process called as the quenching. Applications & Benefits of GGBFS: In concrete: The incorporation of ground granulated blast furnace slag in concrete manufacture gains many advantages which are mentioned below: GGBFS in concrete increases the strength and durability of the concrete structure. It reduces voids in concrete hence reducing permeability GGBFS gives a workable mix. It possesses good pumpable and compaction characteristics The structure made of GGBFS constituents help in increasing sulphate attack resistance. The penetration of chloride can be decreased. The heat of hydration is less compared to conventional mix hydration. The alkali-silica reaction is resisted highly. These make the concrete more chemically stable. Gives good surface finish and improves aesthetics. The color is more even and light. Lower chances of efflorescence. The maintenance and repair cost of structures are reduced thus increasing the life cycle of concrete structures. Unlike cement, GGBFS does not produce carbon dioxide, sulphur dioxide or nitrogen oxides. White Cement: White Portland Cement is of high quality, whiteness and strength, it essentially has the same properties and characteristics as gray cement, except for color. It is widely used in numerous applications such as precast concrete, cast-in-place concrete, terrazzo, median barriers, curbs, tile grout, paint, masonry units, swimming pools, glass fibre reinforced surface bonding mortars.
Microsilica (silica fume) is a by-product from silicon metal or ferrosilicon industries, is an amorphous silicon dioxide SiO2. This product reacts chemically with the calcium hydroxide in the cement paste which yields a calcium silicate hydrate gel that significantly enhances strength and durability. The super fine microsilica fills the voids between cement particles creating a very dense, less permeable concrete. White Cement advantages: Sustainability: Solar Reflectance Index (SRI): Floors finished with white or pastel color concrete will have a much higher SRI than floors with gray concrete, therefore they will reflect light better, and generate energy savings for the lifetime of the floors. Reduction of Heat Island effect: By constructing buildings with white concrete roofs or light-colored roof tiles, the Heat Island Effect is reduced from surfaces generating less heat and improved reflectivity. Architectural Concrete: White Portland Cement is ideal for decorative concrete and Architectural Concrete applications, Masonry and Cementitious Building Products. A key advantage of using white cement for these applications is that it provides a base color that can be tinted to custom colors to meet any color spectrum demand.
Pozzolan is a siliceous or siliceous and aluminous material that in itself possesses little or no cementitious value but will, in finely divided form and in the presence of moisture, chemically react with calcium hydroxide at ordinary temperatures to form compounds having cementitious properties. It is therefore classified as a cementitious material. There are both natural and artificial pozzolans. The quantification of the capacity of a pozzolan to react with calcium hydroxide and water is given by measuring its pozzolanic activity.