| Rooftop Mast Mount | Flat or pitched building roofs | Roof-penetrating base plates, structural fasteners, and sealed flashing | Fixed satellite television dishes, small VSAT antennas, and receive-only systems | Efficient use of roof space; usually provides a clear view of the sky; compact footprint | Roof penetrations require careful waterproofing; structural and wind-load verification is necessary | Fixed azimuth and elevation |
| Non-Penetrating Roof Mount | Flat commercial or industrial roofs | Ballast blocks or weighted trays, normally with protective roof pads | Small to medium fixed dishes where roof penetration is restricted | Minimizes roof penetrations; relatively easy to reposition or remove; suitable for leased buildings | Adds dead load to the roof; ballast design must account for wind uplift, roof friction, and local codes | Fixed azimuth and elevation |
| Wall or Eave Mount | Exterior walls, parapets, fascia, or roof eaves | Lag screws, through-bolts, masonry anchors, or structural brackets | Compact residential dishes and small communication antennas | Leaves roof surfaces largely unobstructed; accessible for servicing; economical for small antennas | Requires a strong wall or framing connection; may be affected by building vibration and local obstructions | Fixed azimuth and elevation |
| Pole or Ground Mount | Open ground, concrete pads, or engineered foundations | Buried pole foundation, concrete pier, or bolted steel base | Residential, commercial, and institutional dishes from small to large sizes | Good access for maintenance; flexible placement; can support heavier antennas and long feed runs | Needs clear ground space and foundation work; exposed to landscaping, vehicles, snow, and vandalism risks | Fixed or motorized |
| Tripod Mount | Roofs, platforms, temporary sites, or prepared ground | Three-leg frame with ballast, mechanical fasteners, or concrete footings | Medium-sized VSAT, telemetry, and temporary communication antennas | Stable three-point geometry; adaptable to uneven surfaces; distributes equipment loads effectively | Occupies more area than a single-pole mount; requires bracing and precise leveling | Usually fixed; optional motorization |
| Pedestal Mount | Concrete pads, equipment compounds, and reinforced platforms | Bolted base ring or anchor bolts embedded in concrete | Large fixed dishes, earth-station antennas, and high-reliability communication systems | High stiffness and load capacity; accurate alignment; suitable for permanent installations | Higher material and civil-work requirements; less portable; needs detailed foundation design | Fixed or motorized |
| Azimuth-Elevation Mount | Ground platforms, rooftops, and antenna stations | Engineered pedestal or reinforced mounting frame | Tracking antennas that must follow satellites across changing elevation and azimuth angles | Provides independent control of two positioning axes; useful for satellite tracking and multi-orbit coverage | More moving parts, cabling, control equipment, and maintenance than a fixed mount | Two-axis motorized tracking |
| Polar or Equatorial Mount | Ground installations and dedicated antenna platforms | Rigid pedestal or foundation with a tilted polar axis | Motorized tracking of geostationary satellites along an orbital arc | Can track a satellite arc with coordinated movement around a principal axis; efficient for certain fixed-orbit applications | Requires accurate polar-axis alignment; less suitable for rapid movement between widely separated orbital paths | Motorized arc tracking |
| Portable Flyaway Mount | Temporary field locations, emergency sites, and expedition areas | Foldable frame, ground stakes, ballast, or temporary anchoring | Rapid-deployment VSAT and mobile satellite communication terminals | Lightweight, packable, and quick to deploy; useful where permanent foundations are unavailable | Lower resistance to severe weather; requires accurate manual setup and regular site supervision | Manual fixed alignment |