Shanghai Orsin Medical Technology Co., Ltd. miaomiao8615@orsins.com 86-021-57450666

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Osin is a 14 years old manufacturer of Vacuum Blood Test Tube.
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Address: Building A, No.599 Wanhua Road, Zhelin Town, Fengxian Area, Shanghai, China
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Lastest company cases about How does altitude affect these pressure ranges?
2024/12/05
How does altitude affect these pressure ranges?
Altitude can indeed impact the pressure ranges within vacuum blood collection tubes due to changes in atmospheric pressure at different elevations. Here's how altitude affects these pressure ranges: Higher Altitude, Lower Atmospheric Pressure: As altitude increases, atmospheric pressure decreases. This decrease in atmospheric pressure can affect the vacuum pressure within vacuum blood collection tubes. Effect on Vacuum Tubes: At Higher Altitudes: In areas of high altitude, where atmospheric pressure is lower, the vacuum pressure inside the tubes may be slightly higher than at sea level to compensate for the reduced external pressure. At Lower Altitudes: Conversely, at lower altitudes with higher atmospheric pressure, the vacuum pressure inside the tubes may be slightly lower to prevent excessive blood collection or hemolysis. Impact on Blood Collection: High Altitude: At high altitudes, the lower atmospheric pressure can make it more challenging to collect blood into vacuum tubes due to the reduced pressure differential between the tube and the vein. This can lead to slower blood flow and potentially affect the amount of blood collected. Low Altitude: At lower altitudes, where atmospheric pressure is higher, there may be a risk of excessive blood collection into the tubes due to the higher pressure differential. This can dilute the sample or cause other issues. Considerations for Blood Collection: Healthcare professionals working at different altitudes need to be aware of these pressure variations and may need to adjust blood collection techniques or tube specifications accordingly to ensure accurate and reliable sample collection. Manufacturer Guidelines: Manufacturers of vacuum blood collection tubes may provide specific recommendations or guidelines for using their products at different altitudes to account for pressure variations and ensure proper blood collection and sample integrity. In summary, altitude-induced changes in atmospheric pressure can impact the vacuum pressure within vacuum blood collection tubes, potentially affecting blood collection procedures and sample quality. Healthcare professionals should be aware of these considerations when collecting blood samples at different altitudes to maintain the accuracy of diagnostic tests.
Lastest company cases about What are the typical vacuum pressure ranges for these tubes?
2024/12/05
What are the typical vacuum pressure ranges for these tubes?
The vacuum pressure within vacuum blood collection tubes is typically measured in units of millimeters of mercury (mmHg) and can vary depending on the specific requirements of the tube and the intended use. Here are the typical vacuum pressure ranges for some common types of vacuum blood collection tubes: Standard Serum Tubes (Red or Gold Tops): Vacuum Pressure Range: 15-20 mmHg These tubes are generally used for routine serum chemistry tests and have a moderate vacuum pressure to facilitate blood collection without causing hemolysis. Plasma Separator Tubes (Green Tops): Vacuum Pressure Range: 1-5 mmHg These tubes contain a gel separator to separate plasma from blood cells. The lower vacuum pressure helps in achieving a clear separation between plasma and cells. Coagulation Tubes (Blue Tops): Vacuum Pressure Range: 2-5 mmHg Blue-top tubes contain an anticoagulant to prevent blood clotting and are used for coagulation tests. The vacuum pressure is relatively low to prevent excessive mixing of the anticoagulant with blood. EDTA Tubes (Purple Tops): Vacuum Pressure Range: 1-5 mmHg These tubes contain the anticoagulant ethylenediaminetetraacetic acid (EDTA) and are used for hematology tests. The vacuum pressure is kept low to prevent hemolysis. Gel Separator Tubes (Tiger Tops): Vacuum Pressure Range: 4-7 mmHg These tubes have a gel separator to separate serum or plasma from blood cells. The vacuum pressure is slightly higher than in standard serum tubes to ensure proper separation. It is important to note that these are general ranges, and actual vacuum pressure specifications may vary between manufacturers and specific tube designs. Maintaining the appropriate vacuum pressure in vacuum blood collection tubes is crucial to ensure the quality and integrity of blood samples for accurate diagnostic testing.
Lastest company cases about What happens if the vacuum is too low or too high?
2024/12/05
What happens if the vacuum is too low or too high?
If the vacuum level in vacuum blood collection tubes is too low or too high, it can have significant implications on the blood collection process and the quality of the blood sample obtained. Here's what happens in each scenario: If the vacuum is too low: Insufficient Blood Collection: A low vacuum level may result in inadequate blood being drawn into the tube, leading to an insufficient sample for testing. Clotting or Hemolysis: Inadequate vacuum pressure can cause blood clotting or hemolysis (breakdown of red blood cells) during the collection process, affecting the sample's integrity. Inaccurate Test Results: Insufficient blood volume or sample quality can lead to inaccurate test results, potentially necessitating a repeat blood draw. If the vacuum is too high: Excessive Blood Collection: A high vacuum level can cause excessive blood to be drawn into the tube, potentially diluting the sample and affecting the concentration of analytes. Hemolysis: High vacuum pressure can lead to hemolysis, resulting in the release of hemoglobin into the sample, which can interfere with certain blood tests. Difficulty in Blood Collection: Excessive vacuum pressure may make it challenging to collect blood, causing discomfort to the patient and potentially leading to issues like collapsed veins or difficulty with sample collection. In both cases, improper vacuum levels can compromise the quality and integrity of the blood sample, affecting the accuracy of diagnostic tests and potentially requiring a repeat blood draw. It is essential for healthcare professionals to ensure that vacuum blood collection tubes are properly manufactured and sealed to maintain the correct vacuum level for effective and reliable blood collection and testing.
Lastest company cases about How the vacuum degree of vacuum blood collection tubes is controlled
2024/12/05
How the vacuum degree of vacuum blood collection tubes is controlled
The vacuum degree of vacuum blood collection tubes is controlled by creating a negative pressure environment through the removal of air inside the tubes. Here is a detailed explanation: Principle of Vacuum Tubes: The design of vacuum blood collection tubes is based on the principle of vacuum. When manufacturing these tubes, a vacuum environment is initially created inside the tube. This allows blood to flow smoothly into the tube when one end is connected to the patient's vein, filling the tube without the need for external force to push the blood. Control of Vacuum Degree: The control of the vacuum degree inside the tubes is achieved by ensuring the appropriate amount of vacuum during the manufacturing process. It is crucial to seal the tubes while maintaining the accuracy of the vacuum level inside. Some manufacturers may add chemicals inside the tubes to maintain a constant vacuum level. Maintenance of Vacuum Degree: The seal of the tubes is a key factor in maintaining the vacuum degree. Once sealed, the internal vacuum level should remain stable until the tubes are used. This ensures that the negative pressure environment inside the tube can smoothly draw in the required amount of blood during blood collection. Tube Design: The design of the tubes also plays a significant role in controlling the vacuum degree. Factors such as the diameter, length, and material of the tubes can affect the maintenance of the vacuum level. Proper design ensures the stability of the vacuum degree and efficient blood aspiration. Usage Precautions: When using vacuum blood collection tubes, care should be taken to avoid external squeezing or damaging of the tubes, as this could impact the vacuum level inside. Additionally, when connecting the tubes, ensure that the connecting components are tightly sealed to prevent vacuum leakage. In summary, the vacuum degree of vacuum blood collection tubes is achieved through precise control during the manufacturing process and maintaining a proper seal. The creation of this negative pressure environment allows blood to be naturally drawn into the tubes, providing convenience and efficiency for blood collection.
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Lastest company news about Types of Blood Collection Tubes
Types of Blood Collection Tubes
Vacuum blood collection tubes are essential disposable tools in medical settings, designed for precise quantitative blood collection. These tubes, used in conjunction with venous blood collection needles, are favored for their ease of use, cleanliness, safety, accuracy, and reliability, making them a staple in hospital environments. The distinguishing feature of these tubes lies in their color-coded caps, following international standards to differentiate between various additives and the intended purpose of the tube. This color-coded system helps prevent errors during blood collection and testing procedures. Red-top Tubes: These tubes are additive-free and are commonly employed in biochemical, immunological, serological, and virus testing in medical examinations. They feature specially treated inner walls that are exceptionally smooth, preventing any adherence of solutions, cells, or fibrin. This design ensures uncontaminated serum specimens for clinical testing, maintaining the normal serum components over time and enabling repeat testing with consistent results. Orange Tubes: The orange-top tubes are coagulation tubes containing specialized coagulants for swift serum preparation in clinical examinations, especially in emergency biochemical and immunological tests. The coagulants are evenly distributed on the inner walls of the tube, maximizing contact with the blood sample. This design minimizes interference with serum quality, ensuring efficient serum production. Yellow Tubes: These tubes, also for coagulation, contain specialized coagulants and separation gel, offering high heat resistance and stability. They are used for collecting blood specimens for biochemical and immunological examinations, clotting blood rapidly to produce quality serum through centrifugation. These tubes effectively prevent clotting issues, hemolysis, and fibrin precipitation, meeting the demands of rapid outpatient and emergency serum tests. Green Tubes: Green-top tubes contain heparin anticoagulants in the form of sodium or lithium salts. They are used for collecting blood plasma in clinical settings, emergency biochemistry, hemorheology measurements, and trace element blood specimens. These tubes have minimal interference with blood components, facilitate quick plasma separation, and are suitable for a wide range of operating temperatures. Black Tubes: The black-top tubes are used for ESR (erythrocyte sedimentation rate) tests and require a specific anticoagulant to blood ratio. These tubes are compatible with various ESR analyzers but require patience during blood collection due to their low negative pressure. Proper mixing is crucial to avoid issues like hemolysis or coagulation, which could affect test results. Blue Tubes: Blue-top tubes are designated for coagulation tests, utilizing sodium citrate as an anticoagulant. The ratio of anticoagulant to blood sample is crucial for accurate results, with unique stress film treatment on the inner wall to minimize activation of the coagulation mechanism. Purple Tubes: Hematology tubes contain EDTA anticoagulant and are used for clinical hematology examinations, blood type identification, and more. They offer protection for blood cells, especially platelets, preventing aggregation and maintaining cell morphology and volume over time. The widespread use of vacuum blood collection systems has revolutionized specimen testing in medical settings. These systems provide rapid testing, minimize interference with blood results, reduce the risk of infections, standardize laboratory techniques, and enhance the quality of test specimens, ultimately benefiting patient care significantly.