Fine compressed air pre-filters, Page 11

With a G 1" thread and a flow of 4,583 l/min at 7 bar, the IHP4M-018 stainless steel fine pre-filter traps fine solid particles larger than 0.1 µm, water and oil aerosol;...

With a G 1 1/4" thread and a flow of 6,333 l/min at 7 bar, the IHP4M-030 stainless steel fine pre-filter traps fine solid particles larger than 0.1 µm, water and oil aerosol;...

With a G 1 1/2" thread and a flow of 8,250 l/min at 7 bar, the IHP4M-047 stainless steel fine pre-filter traps fine solid particles larger than 0.1 µm, water and oil aerosol;...

With a G 2" thread and a flow of 11,917 l/min at 7 bar, the IHP4M-094 stainless steel fine pre-filter traps fine solid particles larger than 0.1 µm, water and oil aerosol;...

The 0.1 µm element traps very fine contaminants that would damage the vacuum pump. Flow of 1.25 Nm³/h (21 l/min) at atmospheric pressure, 20 to 2,000 mbar abs., +1.5 to +65 °C.

The 0.1 µm element traps very fine contaminants that would damage the vacuum pump. Flow of 2.25 Nm³/h (38 l/min) at atmospheric pressure, 20 to 2,000 mbar abs., +1.5 to +65 °C.

The 0.1 µm element traps very fine contaminants that would damage the vacuum pump. Flow of 3.13 Nm³/h (52 l/min) at atmospheric pressure, 20 to 2,000 mbar abs., +1.5 to +65 °C.

The 0.1 µm element traps very fine contaminants that would damage the vacuum pump. Flow of 3.75 Nm³/h (63 l/min) at atmospheric pressure, 20 to 2,000 mbar abs., +1.5 to +65 °C.

The 0.1 µm element traps very fine contaminants that would damage the vacuum pump. Flow of 4.37 Nm³/h (73 l/min) at atmospheric pressure, 20 to 2,000 mbar abs., +1.5 to +65 °C.

The 0.1 µm element traps very fine contaminants that would damage the vacuum pump. Flow of 7.5 Nm³/h (125 l/min) at atmospheric pressure, 20 to 2,000 mbar abs., +1.5 to +65 °C.

The 0.1 µm element traps very fine contaminants that would damage the vacuum pump. Flow of 9.8 Nm³/h (163 l/min) at atmospheric pressure, 20 to 2,000 mbar abs., +1.5 to +65 °C.

The 0.1 µm element traps very fine contaminants that would damage the vacuum pump. Flow of 15 Nm³/h (250 l/min) at atmospheric pressure, 20 to 2,000 mbar abs., +1.5 to +65 °C.

The 0.1 µm element traps very fine contaminants that would damage the vacuum pump. Flow of 24.8 Nm³/h (413 l/min) at atmospheric pressure, 20 to 2,000 mbar abs., +1.5 to +65 °C.

The 0.1 µm element traps very fine contaminants that would damage the vacuum pump. Flow of 41.9 Nm³/h (698 l/min) at atmospheric pressure, 20 to 2,000 mbar abs., +1.5 to +65 °C.

The 0.1 µm element traps very fine contaminants that would damage the vacuum pump. Flow of 63.8 Nm³/h (1,063 l/min) at atmospheric pressure, 20 to 2,000 mbar abs., +1.5 to +65 °C.

The 0.1 µm element traps very fine contaminants that would damage the vacuum pump. Flow of 97.5 Nm³/h (1,625 l/min) at atmospheric pressure, 20 to 2,000 mbar abs., +1.5 to +65 °C.

The 0.1 µm element traps very fine contaminants that would damage the vacuum pump. Flow of 125 Nm³/h (2,083 l/min) at atmospheric pressure, 20 to 2,000 mbar abs., +1.5 to +65 °C.

The 0.1 µm element traps very fine contaminants that would damage the vacuum pump. Flow of 187 Nm³/h (3,117 l/min) at atmospheric pressure, 20 to 2,000 mbar abs., +1.5 to +65 °C.

The 0.1 µm element traps very fine contaminants that would damage the vacuum pump. Flow of 210 Nm³/h (3,500 l/min) at atmospheric pressure, 20 to 2,000 mbar abs., +1.5 to +65 °C.

The 0.1 µm element traps very fine contaminants that would damage the vacuum pump. Flow of 270 Nm³/h (4,500 l/min) at atmospheric pressure, 20 to 2,000 mbar abs., +1.5 to +65 °C.

The 0.1 µm element traps very fine contaminants that would damage the vacuum pump. Flow of 345 Nm³/h (5,750 l/min) at atmospheric pressure, 20 to 2,000 mbar abs., +1.5 to +65 °C.