Four-Way Valves

Repeatable Shutoff for Critical Applications.

ValvTechnologies’ metal seated three and four-way valves are designed for the most severe applications where flow diversion is combined with the need for repeatable tight shut-off. Both three and four-way valves are available in ‘T’ and ‘L’ configurations and in multiple combinations of body materials, trims and end connections.

Temperature-resistant up to 1400°F (760°C), ValvTechnologies’ metal-seated three and four-way valves are precisely right for your most severe applications. Use them where solids, high-temperatures and high-velocities demand proven shutoff reliability and effective flow diversion.

Looking for more help with
Four-Way Valves?

Ask the experts in valves,
ValvTechnologies is ready to help.

Customizable to meet customer specifications

product

Three-Way Valves

Click Image to Enlarge
Technical Data
Sizes
1-1/2-30"
Pressure Classes

ASME/ANSI Class 150 – 4500

Materials of Construction

Materials of construction based on customer requirement: carbon steel, 316SS, 304SS, 321SS, 347SS, Inconel 800H, etc. Other materials are available upon request.

End Connections

Available configurations: “Y” pattern and “L” 90°, with flanged, hub and butt-weld end connection options

Shutoff

Repeatable tight shut-off

Three-Way Valves

Repeatable Shutoff for Critical Applications.

ValvTechnologies’ metal seated three-way valves are designed for the most severe applications where flow diversion is combined with the need for repeatable tight shut-off. Both three and four-way valves are available in ‘T’ and ‘L’ 90°port configurations and in multiple combinations of body materials, trims and end connections.

Temperature-resistant up to 1400°F (760°C), ValvTechnologies’ metal-seated three -way valves are precisely right for your most severe applications. Use them where solids, high-temperatures and high-velocities demand proven shutoff reliability and effective flow diversion.

Technical Data
Sizes
1-1/2-30"
Pressure Classes

ASME/ANSI Class 150 – 4500

Materials of Construction

Materials of construction based on customer requirement: carbon steel, 316SS, 304SS, 321SS, 347SS, Inconel 800H, etc. Other materials are available upon request.

End Connections

Available configurations: “Y” pattern and “L” 90°, with flanged, hub and butt-weld end connection options

Shutoff

Repeatable tight shut-off

  • Available configurations for the three-way valve include the “T” port and “L” 90°, with flanged, hub and butt-weld end connection options.
  • Temperature-resistant up to 1400°F (760°C)
  • Customizable based on customer requirements
  • Low operating torque and very high flow rate (Cv)
  • With two or three outlets, the multi-port ball valve can be engineered to meet customers unique needs
  • ValvTechnologies’ seat design ensures safe and reliable operation while diverting flow
  •  Metal seats standard for high temperature, severe service applications
  • NPS port sizes 1½ to 30” depending on class requirements
  • Engineered to specific requirements
  • Reliability cycle after cycle with HVOF RiTech® carbide coating technology to resist wear and galling

  • Completely flexible in application
  • Reliability cycle after cycle via integral metal seat
  • Maximized service life through exceptional abrasive and corrosive wear resistance
  • Field-proven for low-maintenance in-plant solutions
  • Increased safety
  • Low cost of ownership
  • Reduced maintenance
  • Increased service life
  • Improved reliability
  • Simplify process flow solutions
  • Maximized service life through exceptional abrasive and corrosive wear resistance

Customizable to meet customer specifications

Looking for more help with
Three-Way Valves?

Ask the experts in valves,
ValvTechnologies is ready to help.

  • Available configurations for the three-way valve include the “T” port and “L” 90°, with flanged, hub and butt-weld end connection options.
  • Temperature-resistant up to 1400°F (760°C)
  • Customizable based on customer requirements
  • Low operating torque and very high flow rate (Cv)
  • With two or three outlets, the multi-port ball valve can be engineered to meet customers unique needs
  • ValvTechnologies’ seat design ensures safe and reliable operation while diverting flow
  •  Metal seats standard for high temperature, severe service applications
  • NPS port sizes 1½ to 30” depending on class requirements
  • Engineered to specific requirements
  • Reliability cycle after cycle with HVOF RiTech® carbide coating technology to resist wear and galling

  • Completely flexible in application
  • Reliability cycle after cycle via integral metal seat
  • Maximized service life through exceptional abrasive and corrosive wear resistance
  • Field-proven for low-maintenance in-plant solutions
  • Increased safety
  • Low cost of ownership
  • Reduced maintenance
  • Increased service life
  • Improved reliability
  • Simplify process flow solutions
  • Maximized service life through exceptional abrasive and corrosive wear resistance

Customizable to meet customer specifications

AbrasoCheck® Slurry Check Valves

Low Wear, High Isolation

Valv - ABRASOCheck

The AbrasoCheck® slurry swing type check valve is designed specifically for PD slurry pump discharge isolation and allows in-line maintenance. The valve was based upon the existing design as used for more than 30 years at an iron concentrate pumping station. Currently the valve is in use in China, India and Brazil on slurry pipeline pump stations.

The AbrasoCheck® slurry check valve will operate on pump shutdown and start-up.

The purpose of the double acting pneumatic cylinder is to assist the disc into the closed position and to hold the disc in that position, during pump shutdown and also to hold the valve open during normal operations.

The valve is supplied with a double acting pneumatic cylinder that is fixed to the valve body and connected to the valve stem. Once the valve is fully open then the cylinder can be energized to hold the flapper in the fully open position and out of the path of the slurry flow.

The combination of ValvTechnologies’ AbrasoCheck® slurry check valve and AbrasoTech® slurry ball valve provides zero-leakage isolation for maintenance of positive displacement pumps.

Looking for more help with
AbrasoCheck® Slurry Check Valves?

Ask the experts in valves,
ValvTechnologies is ready to help.

product

V1-R: 5/8” – 4”

Click Image to Enlarge
Technical Data
Sizes
5/8” – 4”
Pressure Classes

ASME / ANSI Class 3100

Materials of Construction

Carbon steel (A105) – Standard
Alloy steel (F22, F91) – Standard

In Compliance

ASME B16.34
PED
Nuclear ASME III Class 1, 2 and 3
Nuclear Safety Related – 10CFR50 Appendix B
SIL

End Connections

Socketweld, Buttweld – Standard

Shutoff

Absolute Zero-Leakage Shutoff

V1-R: 5/8” – 4”

Our trusted V Series valve, now with ease of maintenance.

ValvTechnologies V Series valves are engineered to be leak-free and have a position-seated design, ensuring optimal flow while reducing overall cost of ownership. The new V1-R valve has a 4-piece assembly that allows for removal of the valve body and end cap, while the end connections remain in-line. Maintenance can now be made without the need for cutting or welding.

The new V1-R: experience enhanced performance, reduced downtime, and seamless service, all in one innovative solution.

Technical Data
Sizes
5/8” – 4”
Pressure Classes

ASME / ANSI Class 3100

Materials of Construction

Carbon steel (A105) – Standard
Alloy steel (F22, F91) – Standard

In Compliance

ASME B16.34
PED
Nuclear ASME III Class 1, 2 and 3
Nuclear Safety Related – 10CFR50 Appendix B
SIL

End Connections

Socketweld, Buttweld – Standard

Shutoff

Absolute Zero-Leakage Shutoff

  1. Simplicity of design: 4-piece valve assembly designed for ease of removal while connections remain inline. Field testable after repair, prior to insertion
  2. Through conduit design: No tortuous flow path. When open it has the highest possible Cv’s
  3. Fixed position: Quarter turn: no seating torques required.
  4. Hardened blowout proof stem: One piece, inserted through the body & shouldered
  5. Metallic body seal ring: Increases body integrity by eliminating external leakage.
  6. Live load packing gland: Minimum four bolt configuration with shallow stuffing box. Ensures consistent torque at variable pressures & temperatures
  7. Hard coated & mate lapped ball and seat:  High Velocity Oxygen Fuel (HVOF) chromium carbide hard coating with a minimum hardness of 850 HV (65 HRC). Mate-lapped seats
  8. Seat designs: Hard coated, both ball and integral downstream seat to the end-cap to eliminate a potential leak path
  9. Stringent testing: Every valve is tested, documented, and serialized
  10. Four-year warranty: The very best in the industry. Covers internal seat leakage as well as external through the packing and/or body seal.

  • 4-piece assembly that allows for removal, while end connections remain in-line. Maintenance can now be made without the need for cutting or welding. Benefit: Increased efficiencies, ease of use, reduced maintenance costs
  • Through conduit design: No tortuous flow path. When open it has the highest possible Cv’s. Minimized wear & tear. Benefit: Minimized wear & tear, reduced vibration, reduced maintenance
  • Fixed position – quarter turn: No seating torques required. Benefit: Improved safety
  • Hardened blowout proof stem: One piece, inserted through the body & shouldered. Eliminates the weak link of collared & pinned designs. Benefit: Improved safety
  • Metallic body seal ring: Increases body integrity by eliminating external leakage. Benefit: Improved reliability, zero-leakage shutoff
  • Live-loaded packing gland: Minimum four bolt configuration with shallow stuffing box. Ensures consistent torque at variable pressures & temperatures. Benefit: Increased reliability
  • Hard coated & mate lapped ball and seat: High Velocity Oxygen Fuel (HVOF) chromium carbide hard coating with a minimum hardness of 850 HV (65 HRC)
  • Seat designs: Hardcoated, both ball & integral downstream seat to the end-cap to eliminate a potential leak path. Benefit: Increased reliability
  • Stringent testing: Every valve is tested, documented & serialized. Benefit: Increased reliability, increased safety, total traceability

Fossil Power Applications

  • Above and below seat drains
  • Ash handling
  • Attemporator spray control
  • Boiler drains
  • Boiler feed pump isolation
  • Continuous boiler blowdown
  • Electronic relief
  • Feedwater heater drains
  • Feedwater isolation
  • Instrument isolation
  • Main steam stop
  • Recirculation
  • Seal steam regulators
  • Sight/gauge glass drains
  • Soot blower regulators
  • Startup vents
  • Steam dump
  • Turbine bypass systems
  • Turbine drain

Nuclear Generation Applications

  • Boiler feedwater
  • Circulating water system
  • Component cooling
  • Condensate extraction
  • Condensate cooling water
  • Emergency feedwater
  • Fire protection system
  • HP safety injection
  • HP & LP heater drains
  • Heat exchanger vent & drains
  • Main steam system isolation, drain & vent
  • Power operated relief valve (PORV)
  • Pressurizer drain & vent
  • Rad waste system
  • Reactor coolant pump drain & vent
  • Reactor head vents
  • Reactor water cooling vents & drains
  • Safety injection system
  • Secondary system isolation, drain & vent
  • Service water system isolation
  • Steam generator system
  • Turbine by-pass
  • Turbine drain & vent
  • Fukushima tie ins
  • Reliable hardened vents

Looking for more help with
V1-R: 5/8” – 4”?

Ask the experts in valves,
ValvTechnologies is ready to help.

  1. Simplicity of design: 4-piece valve assembly designed for ease of removal while connections remain inline. Field testable after repair, prior to insertion
  2. Through conduit design: No tortuous flow path. When open it has the highest possible Cv’s
  3. Fixed position: Quarter turn: no seating torques required.
  4. Hardened blowout proof stem: One piece, inserted through the body & shouldered
  5. Metallic body seal ring: Increases body integrity by eliminating external leakage.
  6. Live load packing gland: Minimum four bolt configuration with shallow stuffing box. Ensures consistent torque at variable pressures & temperatures
  7. Hard coated & mate lapped ball and seat:  High Velocity Oxygen Fuel (HVOF) chromium carbide hard coating with a minimum hardness of 850 HV (65 HRC). Mate-lapped seats
  8. Seat designs: Hard coated, both ball and integral downstream seat to the end-cap to eliminate a potential leak path
  9. Stringent testing: Every valve is tested, documented, and serialized
  10. Four-year warranty: The very best in the industry. Covers internal seat leakage as well as external through the packing and/or body seal.

  • 4-piece assembly that allows for removal, while end connections remain in-line. Maintenance can now be made without the need for cutting or welding. Benefit: Increased efficiencies, ease of use, reduced maintenance costs
  • Through conduit design: No tortuous flow path. When open it has the highest possible Cv’s. Minimized wear & tear. Benefit: Minimized wear & tear, reduced vibration, reduced maintenance
  • Fixed position – quarter turn: No seating torques required. Benefit: Improved safety
  • Hardened blowout proof stem: One piece, inserted through the body & shouldered. Eliminates the weak link of collared & pinned designs. Benefit: Improved safety
  • Metallic body seal ring: Increases body integrity by eliminating external leakage. Benefit: Improved reliability, zero-leakage shutoff
  • Live-loaded packing gland: Minimum four bolt configuration with shallow stuffing box. Ensures consistent torque at variable pressures & temperatures. Benefit: Increased reliability
  • Hard coated & mate lapped ball and seat: High Velocity Oxygen Fuel (HVOF) chromium carbide hard coating with a minimum hardness of 850 HV (65 HRC)
  • Seat designs: Hardcoated, both ball & integral downstream seat to the end-cap to eliminate a potential leak path. Benefit: Increased reliability
  • Stringent testing: Every valve is tested, documented & serialized. Benefit: Increased reliability, increased safety, total traceability

Fossil Power Applications

  • Above and below seat drains
  • Ash handling
  • Attemporator spray control
  • Boiler drains
  • Boiler feed pump isolation
  • Continuous boiler blowdown
  • Electronic relief
  • Feedwater heater drains
  • Feedwater isolation
  • Instrument isolation
  • Main steam stop
  • Recirculation
  • Seal steam regulators
  • Sight/gauge glass drains
  • Soot blower regulators
  • Startup vents
  • Steam dump
  • Turbine bypass systems
  • Turbine drain

Nuclear Generation Applications

  • Boiler feedwater
  • Circulating water system
  • Component cooling
  • Condensate extraction
  • Condensate cooling water
  • Emergency feedwater
  • Fire protection system
  • HP safety injection
  • HP & LP heater drains
  • Heat exchanger vent & drains
  • Main steam system isolation, drain & vent
  • Power operated relief valve (PORV)
  • Pressurizer drain & vent
  • Rad waste system
  • Reactor coolant pump drain & vent
  • Reactor head vents
  • Reactor water cooling vents & drains
  • Safety injection system
  • Secondary system isolation, drain & vent
  • Service water system isolation
  • Steam generator system
  • Turbine by-pass
  • Turbine drain & vent
  • Fukushima tie ins
  • Reliable hardened vents

product

V1-4: 4-36″, 900-4500#

Click Image to Enlarge
Technical Data
Sizes
4 – 36"
Pressure Classes

ASME / ANSI Class 900 – 4500

Materials of Construction

Carbon steel – standard
Alloy steel – standard
Stainless steel – standard
Duplex stainless steel
Exotic alloys
Other materials available upon request

In Compliance

ASME B16.34
PED
Nuclear ASME III Class 1, 2 and 3
Nuclear Safety Related – 10CFR50 Appendix B
SIL

End Connections

Raised face flange – standard
Buttweld – standard
Other end connections available upon request

Shutoff

Absolute zero-leakage shutoff

V1-4: 4-36″, 900-4500#

Longer Service Life. Absolute Zero-leakage

ValvTechnologies’ V1-4 severe service metal seated ball valve extends our core design concepts to large diameter and higher pressure applications and is the result of the evolution of the latest in manufacturing techniques and hard coating technologies expanding of all of the features and benefits of the V1-1 design in large-diameters for refinery and mining uses worldwide.

Available in 4” through 36” or larger in ASME / ANSI Classes 900 – 4500, this large bore behemoth is ready when the pressure is on. Our absolute zero-leakage warranty and proven low cost of ownership are second to none.

This valve is designed for critical isolation applications in the mining and minerals processing, power, hydrocarbon refining and processing, oil and gas production and other industries requiring high-performance solutions. All ValvTechnologies’ valves can be custom designed to meet the demands of your specific application.

Technical Data
Sizes
4 – 36"
Pressure Classes

ASME / ANSI Class 900 – 4500

Materials of Construction

Carbon steel – standard
Alloy steel – standard
Stainless steel – standard
Duplex stainless steel
Exotic alloys
Other materials available upon request

In Compliance

ASME B16.34
PED
Nuclear ASME III Class 1, 2 and 3
Nuclear Safety Related – 10CFR50 Appendix B
SIL

End Connections

Raised face flange – standard
Buttweld – standard
Other end connections available upon request

Shutoff

Absolute zero-leakage shutoff

Metal Seated Ball Valve Brochure cover

  1. Integral metal seat. With our proprietary HVOF RiTech® coating technology, the integral seat in ValvTechnologies’ valves is resistant to the attack of abrasive magnetite and ferrous oxides that may be seen in the steam flow.
  2. Body seal ring. ValvTechnologies employs a field proven seal ring technology to ensure sealing under all operating conditions, up to 1400°F. The body seal ring is loaded at a pressure higher than 20,000 psi. In addition, valves sized three inch and above contain a secondary Grafoil seal to further guarantee reliability
  3. Patented coating process. The sealing surfaces are overlaid with tungsten or chromium carbide using our exclusive HVOF RiTech® process. These surfaces have a hardness of 68 – 72 Rc to allow long periods of operation in the most severe conditions.
  4. Live-loaded gland area. The V Series’ sealing design features a four stud, live-loaded assembly designed for heavy industrial applications. The sealing material is high purity Grafoil® surrounded by stainless steel wire mesh anti-extrusion rings. The six Belleville® springs (per stud) provide constant load pressure through extreme thermal shocks and prevent wear leaks in high-cycle service.
  5. Blow-out proof stem design utilizes a one piece, hard-faced, blow-out proof stem that is inserted through the inside of the body cavity eliminating the possibility of blow-out through the gland area.

  • Through conduit design: No tortuous flow path. When open it has the highest possible Cv’s. Minimized wear & tear. Benefit: Eliminated vibration, reduced maintenance
  • Fixed position – quarter turn: No seating torques required. Benefit: Minimized stem wear, lower cost of ownership
  • Hardened blowout proof stem: One piece, inserted through the body & shouldered. Eliminates the weak link of collared & pinned designs. Benefit: Improved safety
  • Metallic body seal ring: Increases body integrity by eliminating external leakage. Benefit: Improved reliability, Zero-leakage shutoff
  • Live-loaded packing gland: Minimum four bolt configuration with shallow stuffing box. Ensures consistent torque at variable pressures & temperatures. Benefit: Increased reliability
  • Hardcoated & mate lapped seats: High Velocity Oxygen Fuel (HVOF) RiTech™ chrome carbide hardcoating with a Rockwell C of up to 72. Mate-lapped seats. Benefit: Wear & corrosion resistant, increased reliability, Zero-leakage shutoff
  • Seat designs: Hardcoated, both ball & integral downstream seat to the end-cap to eliminate a potential leak path. Benefit: Increased reliability
  • Simplicity of design: Designed for ease of installation & maintenance. Benefit: Easily actuated, increased system reliability, increased efficiencies, ease of use, reeduced maintenance
  • Stringent testing: Every valve is tested, documented & serialized. Benefit: Increased reliability, increased safety, total traceability

Case Study: Molecular Sieve Switching Valve Superior Design

Product: V1-4
Location
: Kazakhstan
Plant type: Oil & gas

Background: Facing hundreds of millions of dollars in production losses annually, a major global oil company placed a multi-million dollar order with ValvTechnologies for molecular sieve switching valves to replace their existing rising stem ball valves.

Requirement: The issues in this service, which handles gas with an H2S content of over 20%, included leakage to atmosphere, unreliable operation, mechanical breakdowns and unscheduled shutdowns. In addition to the safety and environmental concerns, the client faced threats to the integrity of the downstream equipment. The initial response to these challenges included the planning of a full parallel dehydration facility to cope with the ongoing concerns with the legacy equipment.

Solution: For over a decade ValvTechnologies has provided molecular sieve switching valves in similar applications throughout the world. This proven track record gave our customer the confidence to engage ValvTechnologies in a conversation regarding their challenges. Upon careful review of the application and in consultation with ValvTechnologies’ senior Engineering staff, the selection was made to employ ValvTechnologies’ seat supported design technology. The selected materials included Inconel 825 for the valve body components and Inconel 718 for the internals.

The supply, which included full pneumatic automation of all the valves, was completed in less than 20 weeks – in time for a scheduled shutdown in 2013. ValvTechnologies assisted with the site testing, installation, commissioning and startup.

The operational performance of the valves since startup has exceeded the client’s expectations. With this experience, the client felt confident to cancel the scheduled parallel installation project, which saved them hundreds of millions of dollars.

ValvTechnologies assists its clients in meeting their goals regarding safety, the environment, cash flow and asset protection.

  • Special end connections
  • Bi-directional sealing
  • Class V sealing in the reverse direction
  • Tandem arrangements
  • Complete automation packages
  • Characterized trim
  • Actuator mounting
  • Insulating jackets: For further protection valves can be fitted with removable and reusable valve insulation blanket jackets.
  • Construction to API 6A
  • Purge ports
  • Cavity fillers
  • Fugitive emission bonnets
  • Abrasion-resistant linings
  • Process-specific options. Contact the factory for more information.
  • Engineered-to-order: Consult the factory for more information and additional options.

Fossil Power Applications

  • Above and below seat drains
  • Ash handling
  • Attemporator spray control
  • Boiler drains
  • Boiler feed pump isolation
  • Continuous boiler blowdown
  • Electronic relief
  • Feedwater heater drains
  • Feedwater isolation
  • Instrument isolation
  • Main steam stop
  • Recirculation
  • Seal steam regulators
  • Sight/gauge glass drains
  • Soot blower regulators
  • Startup vents
  • Steam dump
  • Turbine bypass systems
  • Turbine drain

Nuclear Generation Applications

  • Boiler feedwater
  • Circulating water system
  • Component cooling
  • Condensate extraction
  • Condensate cooling water
  • Emergency feedwater
  • Fire protection system
  • HP safety injection
  • HP and LP heater drains
  • Heat exchanger vent and drains
  • Main steam system isolation, drain and vent
  • Power operated relief valve (PORV)
  • Pressurizer drain and vent
  • Rad waste system
  • Reactor coolant pump drain and vent
  • Reactor head vents
  • Reactor water cooling vents and drains
  • Safety injection system
  • Secondary system isolation, drain and vent
  • Service water system isolation
  • Steam generator system
  • Turbine by-pass
  • Turbine drain and vent
  • Fukushima tie ins
  • Reliable hardened vents

Upstream Oil and Gas Applications

  • Wellhead choke isolation
  • HIPPS
  • Emergency shutdown
  • Compressor recycle and isolation
  • Sour gas isolation and control
  • Steam, water and gas injection
  • Steam chokes
  • SAG-D isolation
  • Pig launcher and receiver
  • Mud drilling isolation and check
  • Lean and rich amine isolation
  • Molecular sieve regeneration isolation
  • Molecular sieve absorber isolation
  • First and second stage seperator isolation

Downstream and Chemical Processing Applications

  • Coking (delayed and flexi)
    Switching
    Feed isolation
    Overhead vapor line
    Cutting water isolation
  • Fluidized catalytic cracking
    Catalyst handling
    Slurry isolation and control steam
  • Ethylene
    Steam decoke isolation
    Furnace isolation
    Steam vent
    Quench oil isolation and control
  • Polyethylene
    Isolation
    High cycle (PTO)
    Reactor block
  • Heavy oil upgrading and hydrocracking
    (H-oil and LC fining)
    Catalyst addition and withdrawal
    Filter and pump isolation
    Overhead vapor isolation and control
    High delta-P isolation and control
  • Reforming (CCR)
    Lockhopper
    Isolation

Mining and Minerals Processing Applications

  • High pressure slurry
    Transportation Systems
    Pump discharge isolation
    Pipeline isolation stations
    Pipeline choke stations
    Rupture disk isolation
    Instrument isolation
  • Autoclaves
    Vessel feed and discharge
    Acid injection
    Gas injection
    Steam injection
  • Mineral concentrators
    Thickener underflow
    Discharge isolation
    Filter press manifold isolation
    Slurry transfer systems
    PRV isolation
  • Waste disposal
    Tailings pipelines
    Paste backfill

Pulp and Paper Applications

  • Boiler vent and drain
  • Liquor isolation and control
  • Rapid drain
  • Steam isolation
  • Sky vents
  • Dryer pressure control
  • Digester steam control
  • Lime mud isolation and control

Looking for more help with
V1-4: 4-36″, 900-4500#?

Ask the experts in valves,
ValvTechnologies is ready to help.

Metal Seated Ball Valve Brochure cover

  1. Integral metal seat. With our proprietary HVOF RiTech® coating technology, the integral seat in ValvTechnologies’ valves is resistant to the attack of abrasive magnetite and ferrous oxides that may be seen in the steam flow.
  2. Body seal ring. ValvTechnologies employs a field proven seal ring technology to ensure sealing under all operating conditions, up to 1400°F. The body seal ring is loaded at a pressure higher than 20,000 psi. In addition, valves sized three inch and above contain a secondary Grafoil seal to further guarantee reliability
  3. Patented coating process. The sealing surfaces are overlaid with tungsten or chromium carbide using our exclusive HVOF RiTech® process. These surfaces have a hardness of 68 – 72 Rc to allow long periods of operation in the most severe conditions.
  4. Live-loaded gland area. The V Series’ sealing design features a four stud, live-loaded assembly designed for heavy industrial applications. The sealing material is high purity Grafoil® surrounded by stainless steel wire mesh anti-extrusion rings. The six Belleville® springs (per stud) provide constant load pressure through extreme thermal shocks and prevent wear leaks in high-cycle service.
  5. Blow-out proof stem design utilizes a one piece, hard-faced, blow-out proof stem that is inserted through the inside of the body cavity eliminating the possibility of blow-out through the gland area.

  • Through conduit design: No tortuous flow path. When open it has the highest possible Cv’s. Minimized wear & tear. Benefit: Eliminated vibration, reduced maintenance
  • Fixed position – quarter turn: No seating torques required. Benefit: Minimized stem wear, lower cost of ownership
  • Hardened blowout proof stem: One piece, inserted through the body & shouldered. Eliminates the weak link of collared & pinned designs. Benefit: Improved safety
  • Metallic body seal ring: Increases body integrity by eliminating external leakage. Benefit: Improved reliability, Zero-leakage shutoff
  • Live-loaded packing gland: Minimum four bolt configuration with shallow stuffing box. Ensures consistent torque at variable pressures & temperatures. Benefit: Increased reliability
  • Hardcoated & mate lapped seats: High Velocity Oxygen Fuel (HVOF) RiTech™ chrome carbide hardcoating with a Rockwell C of up to 72. Mate-lapped seats. Benefit: Wear & corrosion resistant, increased reliability, Zero-leakage shutoff
  • Seat designs: Hardcoated, both ball & integral downstream seat to the end-cap to eliminate a potential leak path. Benefit: Increased reliability
  • Simplicity of design: Designed for ease of installation & maintenance. Benefit: Easily actuated, increased system reliability, increased efficiencies, ease of use, reeduced maintenance
  • Stringent testing: Every valve is tested, documented & serialized. Benefit: Increased reliability, increased safety, total traceability

Case Study: Molecular Sieve Switching Valve Superior Design

Product: V1-4
Location
: Kazakhstan
Plant type: Oil & gas

Background: Facing hundreds of millions of dollars in production losses annually, a major global oil company placed a multi-million dollar order with ValvTechnologies for molecular sieve switching valves to replace their existing rising stem ball valves.

Requirement: The issues in this service, which handles gas with an H2S content of over 20%, included leakage to atmosphere, unreliable operation, mechanical breakdowns and unscheduled shutdowns. In addition to the safety and environmental concerns, the client faced threats to the integrity of the downstream equipment. The initial response to these challenges included the planning of a full parallel dehydration facility to cope with the ongoing concerns with the legacy equipment.

Solution: For over a decade ValvTechnologies has provided molecular sieve switching valves in similar applications throughout the world. This proven track record gave our customer the confidence to engage ValvTechnologies in a conversation regarding their challenges. Upon careful review of the application and in consultation with ValvTechnologies’ senior Engineering staff, the selection was made to employ ValvTechnologies’ seat supported design technology. The selected materials included Inconel 825 for the valve body components and Inconel 718 for the internals.

The supply, which included full pneumatic automation of all the valves, was completed in less than 20 weeks – in time for a scheduled shutdown in 2013. ValvTechnologies assisted with the site testing, installation, commissioning and startup.

The operational performance of the valves since startup has exceeded the client’s expectations. With this experience, the client felt confident to cancel the scheduled parallel installation project, which saved them hundreds of millions of dollars.

ValvTechnologies assists its clients in meeting their goals regarding safety, the environment, cash flow and asset protection.

  • Special end connections
  • Bi-directional sealing
  • Class V sealing in the reverse direction
  • Tandem arrangements
  • Complete automation packages
  • Characterized trim
  • Actuator mounting
  • Insulating jackets: For further protection valves can be fitted with removable and reusable valve insulation blanket jackets.
  • Construction to API 6A
  • Purge ports
  • Cavity fillers
  • Fugitive emission bonnets
  • Abrasion-resistant linings
  • Process-specific options. Contact the factory for more information.
  • Engineered-to-order: Consult the factory for more information and additional options.

Fossil Power Applications

  • Above and below seat drains
  • Ash handling
  • Attemporator spray control
  • Boiler drains
  • Boiler feed pump isolation
  • Continuous boiler blowdown
  • Electronic relief
  • Feedwater heater drains
  • Feedwater isolation
  • Instrument isolation
  • Main steam stop
  • Recirculation
  • Seal steam regulators
  • Sight/gauge glass drains
  • Soot blower regulators
  • Startup vents
  • Steam dump
  • Turbine bypass systems
  • Turbine drain

Nuclear Generation Applications

  • Boiler feedwater
  • Circulating water system
  • Component cooling
  • Condensate extraction
  • Condensate cooling water
  • Emergency feedwater
  • Fire protection system
  • HP safety injection
  • HP and LP heater drains
  • Heat exchanger vent and drains
  • Main steam system isolation, drain and vent
  • Power operated relief valve (PORV)
  • Pressurizer drain and vent
  • Rad waste system
  • Reactor coolant pump drain and vent
  • Reactor head vents
  • Reactor water cooling vents and drains
  • Safety injection system
  • Secondary system isolation, drain and vent
  • Service water system isolation
  • Steam generator system
  • Turbine by-pass
  • Turbine drain and vent
  • Fukushima tie ins
  • Reliable hardened vents

Upstream Oil and Gas Applications

  • Wellhead choke isolation
  • HIPPS
  • Emergency shutdown
  • Compressor recycle and isolation
  • Sour gas isolation and control
  • Steam, water and gas injection
  • Steam chokes
  • SAG-D isolation
  • Pig launcher and receiver
  • Mud drilling isolation and check
  • Lean and rich amine isolation
  • Molecular sieve regeneration isolation
  • Molecular sieve absorber isolation
  • First and second stage seperator isolation

Downstream and Chemical Processing Applications

  • Coking (delayed and flexi)
    Switching
    Feed isolation
    Overhead vapor line
    Cutting water isolation
  • Fluidized catalytic cracking
    Catalyst handling
    Slurry isolation and control steam
  • Ethylene
    Steam decoke isolation
    Furnace isolation
    Steam vent
    Quench oil isolation and control
  • Polyethylene
    Isolation
    High cycle (PTO)
    Reactor block
  • Heavy oil upgrading and hydrocracking
    (H-oil and LC fining)
    Catalyst addition and withdrawal
    Filter and pump isolation
    Overhead vapor isolation and control
    High delta-P isolation and control
  • Reforming (CCR)
    Lockhopper
    Isolation

Mining and Minerals Processing Applications

  • High pressure slurry
    Transportation Systems
    Pump discharge isolation
    Pipeline isolation stations
    Pipeline choke stations
    Rupture disk isolation
    Instrument isolation
  • Autoclaves
    Vessel feed and discharge
    Acid injection
    Gas injection
    Steam injection
  • Mineral concentrators
    Thickener underflow
    Discharge isolation
    Filter press manifold isolation
    Slurry transfer systems
    PRV isolation
  • Waste disposal
    Tailings pipelines
    Paste backfill

Pulp and Paper Applications

  • Boiler vent and drain
  • Liquor isolation and control
  • Rapid drain
  • Steam isolation
  • Sky vents
  • Dryer pressure control
  • Digester steam control
  • Lime mud isolation and control

Valv - ECOPak

ValvTechnologies’ EcoPack® Packing Solution for the Reduction of Fugitive Emissions.

Reducing fugitive emissions is a leading concern in the fight against climate change. The EPA estimates that the production segment of the oil and natural gas industry is responsible for 45% of total methane emissions. In 2015, the first-ever plan to regulate emissions from this industry was launched: because valve leakage is responsible for more than 50% of total fugitive emissions, valves have been a considerable focus in the effort to reduce fugitive emissions.

ValvTechnologies’ is leading the charge in the reduction of fugitive emissions with the development of the EcoPack®: a superior stem packing solution for high-cycle, fast acting valves that meets stringent fugitive emissions requirements.

ValvTechnologies NexTech® pulsejet valve with EcoPack® was recently tested by an independent agency that verified the solution not only met but exceeded endurance testing standard performed 500,000 cycles while retaining a maximum leakage rate equivalent to ISO 15848-1 2006 Class BH for the entirety of the test.

Typical stem sealing technology requires packing adjustment. With high-cycle valves, these adjustments would have to occur very often, causing disruptions in plant operation, safety concerns and non-compliance with tightening emissions regulations. With the EcoPack® solution, lab tested results show the seal is capable of 500,000+ cycles with the stem packing requiring zero maintenance or adjustment. This solution is perfect for customers requiring a quickly-rotating valve that completes many cycles annually (i.e. 250,000 per year or more) and must also meet fugitive emissions requirements.

Features:

  • Meets ISO-15848-1 testing requirements for fugitive emissions certification in process
  • Packing requires zero adjustment or maintenance
  • Capable of 500,000+ cycles
  • Durable packing solution for extremely fast cycle speeds of less than 0.5 seconds

Benefits:

  • Longer intervals of plant operation between maintenance schedules
  • Safer plant operation due to less exposure of plant personnel to valves requiring packing adjustment
  • Longer valve seal life
  • Reduced emissions to comply with EPA fugitive emissions requirements

Coking Switch Valves

Improve up-time. Decrease production losses.

 The delayed coker process is a batch process, one of the most hostile environments in the refinery – due to the abrasive/ erosive, properties of the coke by-product and high temperature reactions. Valves are cycled frequently and failure can lead to a complete shutdown of a unit, resulting in large process and financial costs. Optimizing valve life-cycle is critical to operational efficiency.

Technical Data

  • Bellville loaded seat and ball to maintain valve operability during shutdown intervals
  • Switching valve with tight shutoff to assist in reliable drum operations
  • Spring pockets are protected by Chevron and grafoil seals in case of a steam event to prevent migration of coke buildup and lockup
  • Chromium Carbide coated ball and seat face to extend life cycle and lower cost of repair
  • High strength metal pressure seal ring bonnet seal to prevent leakage to atmosphere under severe operating conditions
  • Continuous body cavity purge design eliminating the eventful coke build up and lockup
  • Chesterton low emission stem packing exceeding emission guidelines
  • Flanged end connections available

 

  • 15 years potential life in service for increased reliability
  • Excellent thermal compensation for increased reliability
  • Prevents coke migration into seat faces for increased reliability
  • No purge steam needed for seat loading for lower emissions, enhanced process safety
  • Eliminates pendulum motion of the ball for inherent fire safety
  • Ball and seat are HVOF RiTech™ spray coated and erosion resistant
  • Extreme wear resistance for cycling and consistent torques reducing repair costs
  • Strong bonding in thermal cycling applications for longer service life
  • Low steam requirements for reduced maintenance costs
  • Less fabrication required for longer service life
  • Graphite seals in spring pockets protects loading mechanisms in case of steam failure for reliability in case of temporary steam loss

Looking for more help with
Coking Switch Valves?

Ask the experts in valves,
ValvTechnologies is ready to help.

  • Bellville loaded seat and ball to maintain valve operability during shutdown intervals
  • Switching valve with tight shutoff to assist in reliable drum operations
  • Spring pockets are protected by Chevron and grafoil seals in case of a steam event to prevent migration of coke buildup and lockup
  • Chromium Carbide coated ball and seat face to extend life cycle and lower cost of repair
  • High strength metal pressure seal ring bonnet seal to prevent leakage to atmosphere under severe operating conditions
  • Continuous body cavity purge design eliminating the eventful coke build up and lockup
  • Chesterton low emission stem packing exceeding emission guidelines
  • Flanged end connections available

 

  • 15 years potential life in service for increased reliability
  • Excellent thermal compensation for increased reliability
  • Prevents coke migration into seat faces for increased reliability
  • No purge steam needed for seat loading for lower emissions, enhanced process safety
  • Eliminates pendulum motion of the ball for inherent fire safety
  • Ball and seat are HVOF RiTech™ spray coated and erosion resistant
  • Extreme wear resistance for cycling and consistent torques reducing repair costs
  • Strong bonding in thermal cycling applications for longer service life
  • Low steam requirements for reduced maintenance costs
  • Less fabrication required for longer service life
  • Graphite seals in spring pockets protects loading mechanisms in case of steam failure for reliability in case of temporary steam loss

product

Coking Isolation Valves

Click Image to Enlarge
Technical Data
Sizes
6 – 42”
Pressure Classes

ASME / ANSI Class 300 – 2500

Materials of Construction

Standard materials: For SP valves: A217 Gr. C12, A217 Gr. C5
For heater isolation valves: A217 Gr. C12, Incoloy® 800 H, 317SS

End Connections

End connections: flanged

Shutoff

Absolute zero-leakage shutoff

Coking Isolation Valves

Improve up-time. Decrease production losses.

The delayed coker process is a batch process, one of the most hostile environments in the refinery – due to the abrasive and erosive fouling properties of the coke by-product.The valves also experience extreme thermal cycling. Valves are cycled frequently and failure can lead to a complete shutdown of a unit, resulting in large process and financial costs.

Technical Data
Sizes
6 – 42”
Pressure Classes

ASME / ANSI Class 300 – 2500

Materials of Construction

Standard materials: For SP valves: A217 Gr. C12, A217 Gr. C5
For heater isolation valves: A217 Gr. C12, Incoloy® 800 H, 317SS

End Connections

End connections: flanged

Shutoff

Absolute zero-leakage shutoff

Screen-Shot-2013-07-10-at-12.38.51-PM

  • Integral seat design
  • Zero to ANSI class VI shutoff
  • Mechanical (Belleville® spring) ball to seat loading
  • Fire safe per API 607 6th edition
  • Single steam connection point option
  • Separate ball and stem to prevent packing leaks through daily temperature cycles
  • Low steam purge consumption
  • The sealing surfaces are overlaid with tungsten or chromium carbide cermets using our exclusive HVOF RiTech® process
  • Continuous steam purging/flushing to eliminating coke buildup in between shutdown intervals
  • Low steam purge consumption
  • Full bore design
  • Bi-directional design available for special services
  • Live-loaded fugitive emission stem packing
  • Robust, true severe service design, with fewer parts – only eight mechanical components in valve design

  • Integral seat. Benefit: Most effective technology for thermal cycling and solids containing processes. This design extends drum switching isolation for scheduled production operations and goals.
  • Inconel forged Belleville spring. Benefit: Delivers process isolation due to consistent ball and seat loading, especially for solids conditions. Eliminates costly bellow type designs, reducing cost of repair due to protection of ball and seat contact points, helping manage turnaround costs.
  • HVOF RiTech® hard coatings. Benefit: State-of-the-art computerized applied hard coatings on ball and seat extending isolation capabilities for expected operational performance goals and repair cost reductions
  • Continuous purge design. Benefit: This design ensures consistent torques for drum operations to meet production run times. Provides consistent valve operation due to effective flushing of hot resid and fines collection.
  • Reduced steam consumption. Benefit: Reduces total cost of ownership versus other ball valve designs in reducing yearly steam costs
  • Bi-directional sealing option. Benefit: Provides isolation of process in both flow directions due to fluctuating pressures
  • Spring loaded low emission packing design. Benefit: Keeps hydrocarbon in containment and meets 100 PPM requirements
  • ValvTechnologies’ repair services. Benefit: Capabilities to service/repair ValvTechnologies’ coker valves on-site or at our manufacturing facility in Houston, Texas

Stem design

Stem design is a true blowout-proof design where the stem is introduced into the valve body through the ball opening and is retained by an integrally-machined shoulder. No pins or collars are used in the retention of the stem.

Additional options per customer specification:

  • Automation – electric, hydraulic, pneumatic
  • Interlock control capabilities

  • Switch valve
  • Drum overhead vapor line
  • Feed and withdrawal lines
  • Drum blowdown
  • Heater isolation
  • Cutting water isolation
  • Switch valve isolation
  • Safety relief valves isolation lines
  • Drain and vent valves
  • Fractionator isolation valves

Looking for more help with
Coking Isolation Valves?

Ask the experts in valves,
ValvTechnologies is ready to help.

Screen-Shot-2013-07-10-at-12.38.51-PM

  • Integral seat design
  • Zero to ANSI class VI shutoff
  • Mechanical (Belleville® spring) ball to seat loading
  • Fire safe per API 607 6th edition
  • Single steam connection point option
  • Separate ball and stem to prevent packing leaks through daily temperature cycles
  • Low steam purge consumption
  • The sealing surfaces are overlaid with tungsten or chromium carbide cermets using our exclusive HVOF RiTech® process
  • Continuous steam purging/flushing to eliminating coke buildup in between shutdown intervals
  • Low steam purge consumption
  • Full bore design
  • Bi-directional design available for special services
  • Live-loaded fugitive emission stem packing
  • Robust, true severe service design, with fewer parts – only eight mechanical components in valve design

  • Integral seat. Benefit: Most effective technology for thermal cycling and solids containing processes. This design extends drum switching isolation for scheduled production operations and goals.
  • Inconel forged Belleville spring. Benefit: Delivers process isolation due to consistent ball and seat loading, especially for solids conditions. Eliminates costly bellow type designs, reducing cost of repair due to protection of ball and seat contact points, helping manage turnaround costs.
  • HVOF RiTech® hard coatings. Benefit: State-of-the-art computerized applied hard coatings on ball and seat extending isolation capabilities for expected operational performance goals and repair cost reductions
  • Continuous purge design. Benefit: This design ensures consistent torques for drum operations to meet production run times. Provides consistent valve operation due to effective flushing of hot resid and fines collection.
  • Reduced steam consumption. Benefit: Reduces total cost of ownership versus other ball valve designs in reducing yearly steam costs
  • Bi-directional sealing option. Benefit: Provides isolation of process in both flow directions due to fluctuating pressures
  • Spring loaded low emission packing design. Benefit: Keeps hydrocarbon in containment and meets 100 PPM requirements
  • ValvTechnologies’ repair services. Benefit: Capabilities to service/repair ValvTechnologies’ coker valves on-site or at our manufacturing facility in Houston, Texas

Stem design

Stem design is a true blowout-proof design where the stem is introduced into the valve body through the ball opening and is retained by an integrally-machined shoulder. No pins or collars are used in the retention of the stem.

Additional options per customer specification:

  • Automation – electric, hydraulic, pneumatic
  • Interlock control capabilities

  • Switch valve
  • Drum overhead vapor line
  • Feed and withdrawal lines
  • Drum blowdown
  • Heater isolation
  • Cutting water isolation
  • Switch valve isolation
  • Safety relief valves isolation lines
  • Drain and vent valves
  • Fractionator isolation valves

AbrasoTech® Slurry Ball Valves

Durable Reliability.

Valv - ABRASOTech

For the utmost dependability in moving slurries of all kinds in cross-country pipelines, specify our severe-service AbrasoTech® valves, with the design and engineering that have been proven tough in more than two decades of use globally. They are characterized by exceptional flexibility. They are available in a wide variety of sizes and pressure classes, and in carbon and stainless steel materials to assure exact fit-for-purpose. Internal components can be protected against erosion and corrosion with the use of our high-performance HVOF RiTech® coating process and metallic or urethane liners.

Looking for more help with
AbrasoTech® Slurry Ball Valves?

Ask the experts in valves,
ValvTechnologies is ready to help.

product

Rhinoite® Hardfacing

Click Image to Enlarge
Technical Data
Materials of Construction

ValvTechnologies Rhinoite® hardfacing process is an innovative, MIG weld overlay that utilizes state of the art equipment — producing extraordinary results

Rhinoite® Hardfacing

Valv - RHINOITE

Expect Extraordinary Results.

Rhinoite® hardfacing provides bottom-line cost savings and wears five to seven times longer than bare metal in process applications.

ValvTechnologies Rhinoite® hardfacing process is an innovative, MIG weld overlay that utilizes state of the art equipment — producing extraordinary results. The process can be adapted to all service environments, in every wear application: erosion, corrosion, adhesion and high-temperature applications. ValvTechnologies Rhinoite® hardfacing has been a proven leader of hard metal overlay on elbows, t-sections and choke tubes in chemical plants and refineries for the past six years with zero failures. The Rhinoite® hardfacing weld process focuses on minimizing loss of production time by wearing five to seven times longer than bare metal. The Rhinoite® hardfacing overlays can be completely refurbished after years of service, reducing overall material and maintenance costs.

The Rhinoite® weld process has been subject to extensive corrosion and erosion testing. Once tested for 2000 hours with direct salt spray fog, microscopic examination of the carbide coated surfaces at the interim inspection showed little to no effect on the carbide surfaces throughout the test period. Additionally, upon removal of the Rhinoite® overlay product by glass bead abrasive blasting, the component surfaces were virtually unaffected. (ASTM B117 – 90 – standard test method of salt spray).

Using an automatic GMAW process an overlay of mild steel wire with dispersed cemented metal carbide pellets is applied to a base material. The result is a  weld overlay with embedded hard particles of carbide that can be diamond ground down to desired dimensions. The process provides improvements in wear resistance that enables the component to have an extended service life even when used in highly erosive and/or corrosive environments.

  • Tungsten carbide content
  • Fluid erosion resistant
  • Corrosion resistant
  • Oxidation resistant
  • Thickness up to 3/8”

Rhinoite® Weld Hardfacing Application Process

  1. Material selection. Custom overlay for a wide range of wear applications. Base metal and weld wire selection based on application; carbon steel, stainless steel, duplex steel and Inconel.
  2. Overlay. Generally a two-layer-automated GMAW process with tungsten carbide power dispersed in the first layer.
  3. Finishing. May grind to desired dimension or leave as welded depending upon application.

  • Rhinoite® provides bottom-line cost savings
  • Minimizes loss of production time by wearing five to seven times longer in service operations than bare metal
  • Reduces frequency of shutdown times to years rather than months
  • Eliminates equipment rentals, insulation replacement and inspection frequency
  • Reduces required man-hours for overall maintenance of units
  • Improved safety by reducing the risk of equipment failure

Rhinoite® Hardfacing - Report of Hardness Profile Knoop 0.5 Kg Load Test Results

rhinoite-report

rhinoite-report-1

  • Elbows
  • Pumps
  • Valves
  • Stabilizers
  • Bearings
  • T-sections
  • Furnace bends
  • Furnace caps
  • Coker nozzles
  • Choker tubes

Related Products

Looking for more help with
Rhinoite® Hardfacing?

Ask the experts in valves,
ValvTechnologies is ready to help.

Rhinoite® Weld Hardfacing Application Process

  1. Material selection. Custom overlay for a wide range of wear applications. Base metal and weld wire selection based on application; carbon steel, stainless steel, duplex steel and Inconel.
  2. Overlay. Generally a two-layer-automated GMAW process with tungsten carbide power dispersed in the first layer.
  3. Finishing. May grind to desired dimension or leave as welded depending upon application.

  • Rhinoite® provides bottom-line cost savings
  • Minimizes loss of production time by wearing five to seven times longer in service operations than bare metal
  • Reduces frequency of shutdown times to years rather than months
  • Eliminates equipment rentals, insulation replacement and inspection frequency
  • Reduces required man-hours for overall maintenance of units
  • Improved safety by reducing the risk of equipment failure

Rhinoite® Hardfacing - Report of Hardness Profile Knoop 0.5 Kg Load Test Results

rhinoite-report

rhinoite-report-1

  • Elbows
  • Pumps
  • Valves
  • Stabilizers
  • Bearings
  • T-sections
  • Furnace bends
  • Furnace caps
  • Coker nozzles
  • Choker tubes