Figure 6.5 is a schematic of a very

Figure 6.5 is a schematic of a very simple filter medium holder for determining maximum pore size or bubble point. The medium is clamped in place over a pressurizing chamber. Above the medium is a reservoir, which is filled with a test fluid of known density and surface tension. The pressurizing chamber is connected to a source of pressurized air and to a manometer. The pressure increases when airflow is introduced into the pressurizing chamber. Eventually the air forces its way through the medium and bubbles through the liquid reservoir. The manometer pressure is recorded at the time the first bubble is observed rising through the reservoir. The bubble pointor maximum pore size is calculated as follows:

結果 (繁體中文) 1:

圖6.5是一個非常簡單的過濾介質保持器的用於確定最大孔徑或泡點的示意圖。該介質中在很加壓室夾緊。上面的介質是儲存器，其填充有公知的密度和表面張力的測試液。加壓室被連接到加壓空氣源和一個壓力計。當壓力增加時，空氣流引入到所述加壓室。最終，空氣通過介質迫使它的方式，並通過液體儲存器的氣泡。壓力計壓力被記錄在第一氣泡觀察穿過儲層上升的時間。泡點
或最大孔徑的計算方法如下：

結果 (繁體中文) 2:

專題性：資料與本主題1 2 3 4 5 6 7 可理解性：可理解資料的主題和內容 1 2 3 4 5 6 7 新奇：資料不一致、處理方法等。

結果 (繁體中文) 3:

圖6.5是一個非常簡單的濾料夾持器的示意圖，用於確定最大孔徑或氣泡點。介質被夾在加壓室的適當位置。介質上方是一個儲層，儲層中充滿已知密度和表面張力的測試流體。加壓室與加壓空氣源和壓力計相連。當氣流進入增壓室時，壓力新增。最終，空氣迫使其通過介質，並通過液體儲存器產生氣泡。當觀察到第一個氣泡通過儲層上升時，記錄壓力計壓力。泡點
或最大孔徑計算如下：