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ROTATING EQUIPMENT / INTERACTIVE 3D

Mechanical face-seal concept

Open a single face-seal assembly with separate faces, grooved supports, springs and gland fasteners.

Static preview of the mechanical face-seal concept schematic
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Drag to orbit · Scroll or pinch to zoom · Select a visible part or use the parts list. Keyboard: focus the view and use arrow keys to orbit.

HOW TO READ THIS MODEL

The system, explained.

A mechanical face seal distinguishes a rotating ring from a stationary ring around a shaft. Their facing annular surfaces form the primary sealing interface; secondary seals address other component boundaries. This original static concept shows those relationships with eight separate coils and guide pins. Select the two faces and compare them with the spring and drive components. A microscopic fluid film, forces and leakage are not simulated.

Model scope and limits

Original generic static single-face concept with invented proportions, a hollow grooved sleeve, matching annular face planes, three secondary-seal markers in recesses, eight coil springs, guide pins, drive collar and bored gland joints. No OEM CAD, product dimensions, face materials, lapping, fluid film, leakage, heat, pressure, spring preload, fatigue, axial compliance, rated clamping/retention or verified tolerances. Secondary rings are visualization markers without qualified compression. Complete pump chamber, flushing/support system, dual seals, thread forms and operating/maintenance procedures are omitted. No API classification or interchangeable cartridge is established.

Source links support further study; no affiliation or endorsement is implied.

CHECK YOUR UNDERSTANDING

Which illustrated pair forms the primary face-sealing interface?

Choose an answer

GUIDED COMPONENT STUDY

Trace the system.

Read each explanation, then focus its component in the explorer. This is a learning route through the model, with no operating or maintenance sequence.

  1. Find the shaft and sleeve

    The smooth solid shaft runs through a separate hollow sleeve. The sleeve has a geometric inner bore and a local internal recess for its secondary-seal marker. The visible radial gaps are invented; they provide no installation fit, running clearance or qualified sealing compression.

  2. Identify the rotating face

    The gold annulus is a separate mesh from its carrier. Its upper plane aligns with the lower plane of the stationary face in this static illustration. A mechanical seal depends on a much finer face and film relationship than this rendering can establish. Color is a teaching identifier, not a face-material specification.

  3. Compare the stationary face

    The dark annulus sits on the other side of the primary face interface. Its radial extents match the illustrated rotating face. It has no rotating parent or animation. This view does not calculate microscopic film thickness, distortion, wear, leakage or pressure response.

  4. Look inside the rotating carrier recess

    A separate toroidal marker lies in a grooved carrier region around the sleeve. Primary face sealing and this secondary boundary have different locations. Selected exported rays distinguish the marker from its support recess; that geometry does not qualify elastomer compression or seal performance.

  5. Distinguish the stationary support

    The stationary support has a hollow centre and an outer recess for another secondary-seal marker. A retainer and locating-pin markers are separate behind it. Their invented geometry establishes no rated anti-rotation, retention, pressure or assembly detail.

  6. Inspect one complete coil

    Each of the eight spring objects is a closed six-turn geometric coil, with its own guide and front/rear seat markers. The coils are static. Their wire radius and pitch are arbitrary, with no spring force, preload, fatigue, buckling or moving axial-compliance calculation.

  7. Trace the drive-side markers

    The bored collar carries six smooth radial screw markers; four axial drive-pin markers extend toward the rotating carrier. The guide and drive objects remain separate from the faces. Their placement explains component roles, without demonstrating a qualified torque path, clamp load or real cartridge setting.

  8. Separate the gland from the internals

    The pocket and back shoulder surround the stationary support. Eight studs, washers and bored six-sided nut markers depict a gland joint. Reveal internals and half section are view controls. The adjoining machine housing and a qualified pressure joint are outside this assembly.

  9. Return to the larger pump

    The shaft establishes an axis for the seal relationship. Compare this specialized-part explorer with the pump model, where the shaft connects toward an impeller and drive. These independent original concepts are not dimensionally matched or offered as a compatible installation.

ACCESSIBLE COMPONENT REFERENCE

Every part, in plain language.

Search all components ↗Model provenance ↗
Shaft segment

Solid smooth shaft segment establishing the axis. No machine dimensions, surface finish or running clearance.

Hollow shaft sleeve

Separate hollow sleeve around the shaft with an internal secondary-seal recess. Clearance and axial position are invented.

Sleeve secondary seal

Original toroidal sleeve-to-shaft seal marker in a separate recess; compression and a rated joint are not established.

Sleeve shoulder marker

Annular stop concept; no qualified axial retention or installation setting.

Drive collar

Rotating-side drive collar concept with six radial smooth screw bores. No clamping or torque qualification.

Spring backing ring

Backing behind eight separate springs. This invented spring arrangement is static.

Spring pressure ring

Annular pressure-ring concept between springs and the rotating face carrier. Axial forces are not calculated.

Rotating face carrier

Hollow rotating-side carrier with an internal secondary-seal recess. Proportions and fits are original teaching choices.

Rotating secondary seal

Separate toroidal ring in an invented carrier recess. It depicts a secondary sealing location, not elastomer deformation or leakage performance.

Rotating seal face

Separate annular rotating face. Its upper planar boundary meets the stationary face in the static geometric pose; no film or lapping performance.

Stationary seal face

Separate annular stationary face with a matching face plane. Material, microscopic film and leakage are unspecified.

Stationary seat support

Hollow support behind the stationary face with an outer secondary-seal recess. It remains separate from the rotating carrier.

Stationary secondary seal

Separate toroidal seat-to-gland seal marker. Fit and compression remain unqualified.

Gland seat pocket

Bored stationary gland pocket surrounding the seat. Reveal removes it visually; no removal procedure.

Gland shoulder

Annular gland back shoulder with shaft clearance and eight real fastener bores. No pressure design or rated joint.

Stationary seat retainer

Annular retention marker behind the stationary support, with three bored anti-rotation-pin positions. No retention/load qualification.

Stationary locating pin 1

Stationary smooth locating-pin marker across the retainer and gland shoulder. No rated anti-rotation design.

Stationary locating pin 2

Stationary smooth locating-pin marker across the retainer and gland shoulder. No rated anti-rotation design.

Stationary locating pin 3

Stationary smooth locating-pin marker across the retainer and gland shoulder. No rated anti-rotation design.

Coil spring 1

Original closed six-turn coil marker. Static geometry; no spring force, preload, fatigue or deflection calculation.

Spring guide pin 1

Smooth guide inside the spring envelope. Geometric guiding concept only; buckling and rotating dynamics are not calculated.

Rear spring seat 1

Separate bored spring-seat marker. End seating is illustrative, not a qualified contact or preload.

Front spring seat 1

Separate bored seat between the coil and pressure ring; not a service or assembly sequence.

Coil spring 2

Original closed six-turn coil marker. Static geometry; no spring force, preload, fatigue or deflection calculation.

Spring guide pin 2

Smooth guide inside the spring envelope. Geometric guiding concept only; buckling and rotating dynamics are not calculated.

Rear spring seat 2

Separate bored spring-seat marker. End seating is illustrative, not a qualified contact or preload.

Front spring seat 2

Separate bored seat between the coil and pressure ring; not a service or assembly sequence.

Coil spring 3

Original closed six-turn coil marker. Static geometry; no spring force, preload, fatigue or deflection calculation.

Spring guide pin 3

Smooth guide inside the spring envelope. Geometric guiding concept only; buckling and rotating dynamics are not calculated.

Rear spring seat 3

Separate bored spring-seat marker. End seating is illustrative, not a qualified contact or preload.

Front spring seat 3

Separate bored seat between the coil and pressure ring; not a service or assembly sequence.

Coil spring 4

Original closed six-turn coil marker. Static geometry; no spring force, preload, fatigue or deflection calculation.

Spring guide pin 4

Smooth guide inside the spring envelope. Geometric guiding concept only; buckling and rotating dynamics are not calculated.

Rear spring seat 4

Separate bored spring-seat marker. End seating is illustrative, not a qualified contact or preload.

Front spring seat 4

Separate bored seat between the coil and pressure ring; not a service or assembly sequence.

Coil spring 5

Original closed six-turn coil marker. Static geometry; no spring force, preload, fatigue or deflection calculation.

Spring guide pin 5

Smooth guide inside the spring envelope. Geometric guiding concept only; buckling and rotating dynamics are not calculated.

Rear spring seat 5

Separate bored spring-seat marker. End seating is illustrative, not a qualified contact or preload.

Front spring seat 5

Separate bored seat between the coil and pressure ring; not a service or assembly sequence.

Coil spring 6

Original closed six-turn coil marker. Static geometry; no spring force, preload, fatigue or deflection calculation.

Spring guide pin 6

Smooth guide inside the spring envelope. Geometric guiding concept only; buckling and rotating dynamics are not calculated.

Rear spring seat 6

Separate bored spring-seat marker. End seating is illustrative, not a qualified contact or preload.

Front spring seat 6

Separate bored seat between the coil and pressure ring; not a service or assembly sequence.

Coil spring 7

Original closed six-turn coil marker. Static geometry; no spring force, preload, fatigue or deflection calculation.

Spring guide pin 7

Smooth guide inside the spring envelope. Geometric guiding concept only; buckling and rotating dynamics are not calculated.

Rear spring seat 7

Separate bored spring-seat marker. End seating is illustrative, not a qualified contact or preload.

Front spring seat 7

Separate bored seat between the coil and pressure ring; not a service or assembly sequence.

Coil spring 8

Original closed six-turn coil marker. Static geometry; no spring force, preload, fatigue or deflection calculation.

Spring guide pin 8

Smooth guide inside the spring envelope. Geometric guiding concept only; buckling and rotating dynamics are not calculated.

Rear spring seat 8

Separate bored spring-seat marker. End seating is illustrative, not a qualified contact or preload.

Front spring seat 8

Separate bored seat between the coil and pressure ring; not a service or assembly sequence.

Rotating drive pin 1

Smooth axial drive-pin concept joining backing and rotating carrier. Torque, wear and axial compliance are not qualified.

Rotating drive pin 2

Smooth axial drive-pin concept joining backing and rotating carrier. Torque, wear and axial compliance are not qualified.

Rotating drive pin 3

Smooth axial drive-pin concept joining backing and rotating carrier. Torque, wear and axial compliance are not qualified.

Rotating drive pin 4

Smooth axial drive-pin concept joining backing and rotating carrier. Torque, wear and axial compliance are not qualified.

Radial collar screw 1

Unthreaded smooth radial clamping-screw marker meeting the sleeve envelope. No qualified engagement, tightening instruction or clamping force.

Collar screw head 1

Original six-sided screw-head marker, without a drive recess or thread form.

Radial collar screw 2

Unthreaded smooth radial clamping-screw marker meeting the sleeve envelope. No qualified engagement, tightening instruction or clamping force.

Collar screw head 2

Original six-sided screw-head marker, without a drive recess or thread form.

Radial collar screw 3

Unthreaded smooth radial clamping-screw marker meeting the sleeve envelope. No qualified engagement, tightening instruction or clamping force.

Collar screw head 3

Original six-sided screw-head marker, without a drive recess or thread form.

Radial collar screw 4

Unthreaded smooth radial clamping-screw marker meeting the sleeve envelope. No qualified engagement, tightening instruction or clamping force.

Collar screw head 4

Original six-sided screw-head marker, without a drive recess or thread form.

Radial collar screw 5

Unthreaded smooth radial clamping-screw marker meeting the sleeve envelope. No qualified engagement, tightening instruction or clamping force.

Collar screw head 5

Original six-sided screw-head marker, without a drive recess or thread form.

Radial collar screw 6

Unthreaded smooth radial clamping-screw marker meeting the sleeve envelope. No qualified engagement, tightening instruction or clamping force.

Collar screw head 6

Original six-sided screw-head marker, without a drive recess or thread form.

Gland stud 1

Smooth fastening stud marker. Threads and the adjoining machine housing are omitted.

Gland washer 1

Separate annular washer with an actual stud opening. No bolt preload or torque.

Gland nut 1

Separate six-sided nut marker with a circular unthreaded stud bore.

Gland stud 2

Smooth fastening stud marker. Threads and the adjoining machine housing are omitted.

Gland washer 2

Separate annular washer with an actual stud opening. No bolt preload or torque.

Gland nut 2

Separate six-sided nut marker with a circular unthreaded stud bore.

Gland stud 3

Smooth fastening stud marker. Threads and the adjoining machine housing are omitted.

Gland washer 3

Separate annular washer with an actual stud opening. No bolt preload or torque.

Gland nut 3

Separate six-sided nut marker with a circular unthreaded stud bore.

Gland stud 4

Smooth fastening stud marker. Threads and the adjoining machine housing are omitted.

Gland washer 4

Separate annular washer with an actual stud opening. No bolt preload or torque.

Gland nut 4

Separate six-sided nut marker with a circular unthreaded stud bore.

Gland stud 5

Smooth fastening stud marker. Threads and the adjoining machine housing are omitted.

Gland washer 5

Separate annular washer with an actual stud opening. No bolt preload or torque.

Gland nut 5

Separate six-sided nut marker with a circular unthreaded stud bore.

Gland stud 6

Smooth fastening stud marker. Threads and the adjoining machine housing are omitted.

Gland washer 6

Separate annular washer with an actual stud opening. No bolt preload or torque.

Gland nut 6

Separate six-sided nut marker with a circular unthreaded stud bore.

Gland stud 7

Smooth fastening stud marker. Threads and the adjoining machine housing are omitted.

Gland washer 7

Separate annular washer with an actual stud opening. No bolt preload or torque.

Gland nut 7

Separate six-sided nut marker with a circular unthreaded stud bore.

Gland stud 8

Smooth fastening stud marker. Threads and the adjoining machine housing are omitted.

Gland washer 8

Separate annular washer with an actual stud opening. No bolt preload or torque.

Gland nut 8

Separate six-sided nut marker with a circular unthreaded stud bore.