An apparatus for transporting a near continuous liquid sample from a liquid source to a liquid sample analyzer via liquid sample tubing, comprising: an inline tee strainer to remove significant solids from the liquid sample, wherein the tee strainer includes an inlet and a first liquid sample outlet port that allows liquid sample to pass directly from the inline tee strainer inlet to a drain through a drain line, and a second liquid sample outlet port that allows liquid sample that has passed through a mesh screen inside the inline tee strainer to continue on to the liquid sample analyzer; an air purge control valve used to intermittently introduce a source of compressed air with the purpose of purging solids buildup from the inline tee strainer to drain; a source of compressed air connected to the air purge control valve; a debubbler unit used to remove the air introduced by the air purge control valve from the liquid sample stream, wherein the debubbler comprises a first outlet port connected to drain to both remove air from the liquid sample and to provide continuous liquid sample flow to drain through drain lines, and a second outlet port that allows the liquid sample to continue to the liquid sample analyzer; a process pump to pull liquid sample from the second outlet port of the debubbler and send it to the liquid sample analyzer; a chemical clean control valve to intermittently introduce cleaning chemical with the purpose of removing buildup downstream of the debubbler; a source of cleaning chemical connected to the chemical clean control valve; liquid sample tubing connecting together said inline tee strainer, said air purge control valve, said debubbler, said process pump, said chemical clean control valve, and said liquid analyzer, such that the liquid sample flows from liquid source to liquid analyzer; and a microprocessor connected to the air purge control valve, process pump and chemical clean control valve, said microprocessor including processing means for coordinated the operation of said air purge control valve, process pump and chemical clean control valve. an inline tee strainer to remove significant solids from the liquid sample, wherein the tee strainer includes an inlet and a first liquid sample outlet port that allows liquid sample to pass directly from the inline tee strainer inlet to a drain through a drain line, and a second liquid sample outlet port that allows liquid sample that has passed through a mesh screen inside the inline tee strainer to continue on to the liquid sample analyzer; an air purge control valve used to intermittently introduce a source of compressed air with the purpose of purging solids buildup from the inline tee strainer to drain; a source of compressed air connected to the air purge control valve; a debubbler unit used to remove the air introduced by the air purge control valve from the liquid sample stream, wherein the debubbler comprises a first outlet port connected to drain to both remove air from the liquid sample and to provide continuous liquid sample flow to drain through drain lines, and a second outlet port that allows the liquid sample to continue to the liquid sample analyzer; a process pump to pull liquid sample from the second outlet port of the debubbler and send it to the liquid sample analyzer; a chemical clean control valve to intermittently introduce cleaning chemical with the purpose of removing buildup downstream of the debubbler; a source of cleaning chemical connected to the chemical clean control valve; liquid sample tubing connecting together said inline tee strainer, said air purge control valve, said debubbler, said process pump, said chemical clean control valve, and said liquid analyzer, such that the liquid sample flows from liquid source to liquid analyzer; and a microprocessor connected to the air purge control valve, process pump and chemical clean control valve, said microprocessor including processing means for coordinated the operation of said air purge control valve, process pump and chemical clean control valve.