Erythrocyte Image System

Why Choose Us

Rooted in the field of biomedical science, the HSAP Company relies on the four core technologies, i.e. Bio-electrical impedance technology, bionic pulsed magnetic resonance technology, brain-computer interface technology and bio-laser technology , focuses on the early screening of diseases as well as intervention and rehabilitation of chronic diseases.

Quality Assurance

HSAP owns more than 31 national patent, 27 software copyright, and have passed CE, FDA and CFDA certification, ISO13485, ISO9001 certification.

Advanced Equipment

We have SMT production machine, Assembly workshop, to produce PCB and assemble the whole product efficiently

Products Sell Wel

HSAP products has distributed to more than 20 countires and regions, such as Germany, Greece, USA, Canada, Mexico, Turkey, India, South Korea, UAE, Indonesia and so on.

Our Service

We provide 12 months warranty for the main machine, and 6 months for accessories.

 

 

红细胞检测仪

 

What is Erythrocyte Image System

Hematology analyzers are computerized, highly specialized machines that count the number of different types of red and white blood cells, blood platelets, haemoglobin, and haematocrit levels in a blood sample. They include programmable automated alarm systems for indicating results outside the reference range. If you want to know the specifications and prices of Erythrocyte Image System, please contact us!

 

Advantages of Erythrocyte Image System

 

 

Easy to Manage
Compared to the manual testing for blood count, which involves a lot of lab equipment to perform one blood count test, the hematology analyzer is much easier to use and does not take up a lot of your time to figure out how to operate the tool. Multiple tests can be taken in the span of one hour in a single go, which makes the labor requirements and waiting time significantly less.


Very Low Manual Intervention
A hematology analyzer's first and foremost benefit is performing the tests automatically with noticeably less or zero manual intervention. Older times demanded a huge amount of time and effort from a lab technician, even to perform one of the tests when doing it manually. That has been completely replaced by the new age of fully automated hematology analyzers. All they need for the test is merely a blood sample.


Less Time Consuming
It used to take hours or days to receive the test results for your medical purposes, but the waiting time is over with the arrival of hematology analyzers. Some labs provide you with rapid results for your convenience with the help of this tool, and you will not have to give separate samples for a separate test. Also, the replenishing time of the hematology analyzer is appreciably low. For example, if a test for RBC count has been done in the equipment, it will be ready to be used for another test in a matter of minutes.


Accuracy and Precision
There is a huge margin for value errors when medical tests are done manually. This can eventually affect the result and then your further proceedings. Hematology analyzers put this worry out of the table as they have a high precision rationale. The accuracy of the tests will be correct to each point compared to manual test results.


Cost-Effective Technique
Instead of spending a fortune on multiple types of equipment to carry out manual tests, the only thing you have to do is to make a single-time purchase of a hematology analyzer, and you are saved of all the exhausting process of going through multiple levels of equipment and tests and saving a significant amount of money.

 

How to Choose Blood Test Device
 
Assess Your Laboratory's Demands

Sample Volume: Consider your daily or hourly sample load. High-throughput labs require analyzers capable of handling hundreds of samples efficiently, while smaller labs may opt for lower-volume models.
Test Menu: Determine the specific tests you need, like complete blood counts (CBCs), white blood cell differentials, reticulocyte counts, and more. Specialized areas like hematology-oncology might require features tailored to specific patient populations.
Automation Level: Evaluate your desired automation level, ranging from basic sample loading to advanced features like auto-dilution and flagging abnormalities

Technology and Performance

Measurement Technology: Understand the advantages and limitations of different technologies like impedance, flow cytometry, and Coulter counting in terms of accuracy, precision, and speed. Select an analyzer that aligns with your required performance standards.
Precision and Accuracy: Choose a machine with established performance data, meeting your specific requirements for precision and accuracy for the tests you conduct.
Data Management and Integration: Ensure seamless integration with your Laboratory (Information System (LIS) for efficient data transfer and reporting.
Dual Chamber: The dual-chamber design is a key feature that contributes to the accuracy and reliability of complete blood count (CBC) analysis.
Faster processing: With dedicated chambers for each cell type, the analyzer can process samples more efficiently, potentially increasing throughput and reducing turnaround times.
3-Part CBC: If a 3-part CBC (white blood cell differential) is crucial, ensure the analyzer provides detailed information on different white blood cell types.
Platelet Histogram: For in-depth analysis of platelet size and distribution, consider analyzers offering platelet histograms.

Budget and Cost-Effectiveness

Initial Investment: Analyze the initial purchase price, considering the features and capabilities offered by different models.
Operating Costs: Factor in the cost of reagents, consumables, maintenance, and service contracts.
Return on Investment (ROI): Evaluate the long-term benefits like improved efficiency, reduced labour costs, and faster turnaround times to assess the analyzer's value proposition.

Usability and Support

Ease of Use: Ensure the analyzer has user-friendly software and clear instructions for your laboratory staff.
Simplifies operation for staff of all skill levels.
Large touchscreen display
User-friendly software
Automated features
On-screen instructions and prompts
Multilingual interface
Training and Support: Choose a manufacturer offering comprehensive training and readily available technical support to minimize downtime and ensure smooth operation.
Service and Maintenance: Opt for an analyzer with a good warranty and consider service contracts for preventive maintenance and repairs. Ensure the availability of qualified technicians and replacement parts for prompt resolutions.
By carefully evaluating these factors and aligning them with your specific laboratory needs and budget, you can confidently choose an automated hematology analyzer that optimizes your workflow, delivers accurate results, and ultimately enhances patient care. Remember, consulting with healthcare professionals and exploring various available options is highly recommended before making your final decision.

 

How does Erythrocyte Image System Work?
 

Hematology analyzer technology
The three main physical technologies used in hematology analyzers are: electrical impedance, flow cytometry, and fluorescent flow cytometry. These are used in combination with chemical reagents that lyse or alter blood cells to extend the measurable parameters. For example, electrical impedance can differentiate red blood cells (RBCs), WBCs, and platelets by volume. Adding a nucleating agent that shrinks lymphocytes more than other WBCs makes it possible to differentiate lymphocytes by volume.


Electrical Impedance
The traditional method for counting cells is electrical impedance, also known as the Coulter Principle. It is used in almost every hematology analyzer.
Whole blood is passed between two electrodes through an aperture so narrow that only one cell can pass through at a time. The impedance changes as a cell passes through. The change in impedance is proportional to cell volume, resulting in a cell count and measure of volume.
Impedance analysis returns CBCs and three-part WBC differentials (granulocytes, lymphocytes, and monocytes) but cannot distinguish between the similarly sized granular leukocytes: eosinophils, basophils, and neutrophils.
Counting rates of up to 10,000 cells per second can be achieved and a typical impedance analysis can be carried out in less than a minute.

血液检测装置

 

红细胞检测仪

Flow Cytometry
Laser flow cytometry is more expensive than impedance analysis, due to the requirement for expensive reagents, but returns detailed information about the morphology of blood cells. It is an excellent method for determining five-part WBC differentials.
A single-cell stream passes through a laser beam. The absorbance is measured, and the scattered light is measured at multiple angles to determine the cell's granularity, diameter, and inner complexity. These are the same cell morphology characteristics that can be determined manually from a slide.


Fluorescent Flow Cytometry
Adding fluorescent reagents extends the use of flow cytometry to measure specific cell populations. Fluorescent dyes reveal the nucleus-plasma ratio of each stained cell. It is useful for the analysis of platelets, nucleated RBCs, and reticulocytes.
Proprietary technologies
Manufacturers combine these three technologies with innovative uses of reagents, hydrofluidics, and data analysis tools to produce proprietary methods, each of which has strengths in terms of accuracy, speed, or breadth of parameters.

 

 
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Frequently Asked Questions
 
 

Q: What is a hematology analyzer used for?

A: White blood cell count, red blood cell count, haemoglobin count, platelet count, lymphocyte percentage, monocyte percentage, granulocyte percentage, and other parameters can be determined with a hematology analyzer which is widely used. As a result, the hematology analyzer can currently be found in a variety of clinical settings. Because of the other factors that can be determined and analyzed in conjunction with blood cells, the hematology analyzer is also known as a haematology analyzer.
Instrumental analysis has numerous advantages, such as quick analysis, many parameters, cheap labor effort, consistent results, and so on, but it also has certain disadvantages. Instrumental analysis minimizes the perceived subjective factor and eliminates the impacts of perception to some extent, but it also rejects man's subjective initiative and so necessitates a review, particularly for cell morphology and classification, if there are questionable results during the test.
In practice, the hematology analyzer discovered that the size of mature red blood cell volume, and its morphological observation is the same as hematology analyzer determination. For abnormal changes in red blood cell morphology, the hematology analyzer can only suggest shadow red blood cells, but not other heterogeneous red blood cell morphology. As a result, the hematology analyzer has trouble recognizing the cell morphology of a lymphocyte. All classifications show an increased monocyte ratio and hematology analyzer is unable to distinguish between naive cells, heterogeneous lymphocytes, nucleated red blood cells, and toxic granules. Instrumental analysis is difficult to deliver a completely correct analysis since it only depends on the identification of a few physical features of the cells. As a result, manual cytomorphological examination of abnormal blood images should be performed and incorporated into the laboratory department's daily quality control to continuously improve the testing staff's comprehensive quality, reduce missed diagnoses and misdiagnoses, and provide a scientific basis for clinical diagnosis, treatment, and further examination.
The blood smear is the first window into blood analysis and disease diagnosis, and the information provided is unmet by the hematological analyzer in many ways. It not only is cheap and clear, but also offers the basic data provided by the hematology analyzer. It can now provide more complete and thorough information on a wide variety of features of blood, thanks to further study into blood smears. Blood smears are useful for the direct examination of human parasites, the study and testing of blood-borne infectious diseases, the detection of anemia, the diagnosis of abnormalities in leucocytes and platelets, and the microscopic examination of blood smears, especially when the data provided by the hematology analyzer is abnormal.
In conclusion, both traditional blood smear microscopy and modern hematology analyzers are useful for blood analysis and illness diagnosis. As a result, each laboratory should create its own rechecking circumstances, train its testing staff to these uniform standards, and conduct quality control. Only by constantly expanding knowledge and practical abilities via experimentation and practice can the hematological analyzer and the blood smear be made more scientifically useful.

Q: How to clean the hematology analyzer more thoroughly?

A: The Hematology analyzer is a common tool in the laboratory, and it is also a basic clinical laboratory tool. In the process of using the instrument, cleaning is the most important thing to do in the maintenance of the instrument, so how can the Hematology analyzer be cleaned more thoroughly? 
When cleaning the Hematology analyzer, it must be cleaned every day, and the cleaning agent must be used well. The role of the cleaning agent is to remove the protein and debris from the small holes and pipes. The first cleaning job is flushing: press the FUNC key, select perfusion, and the instrument will automatically perform perfusion and flushing. Then turn off and perfusion: this procedure must be executed when the instrument is turned off after the work is completed to fill the probe cup with the cleaning solution.
If the effect of the cleaning agent is not good, it will not play its due role, and it will inevitably cause blockage after a long time. These cleaning agents are often used after each specimen is tested. If the physical and chemical indicators are too high, it will cause foam or other components of the cleaning agent. If it is not cleaned, it will affect the counting. The physical and chemical indicators are too low and the effect will not be achieved. This is the reason why the cleaning agent is second only to the complexity of the diluent. Domestic reagents are often imitated, and few people do basic verification and evidence analysis. .
In addition to the internal cleaning of the instrument, the appearance of the instrument should also be well maintained. The surface stains of the instrument, especially the blood sample splashes that may remain around the sampling needle, must be treated every week to prevent protein deposition, mildew and Pollution.
Cleaning agent is an indispensable reagent for the use of blood cell analyzer. Long-term use of poor quality cleaning agent will cause discoloration, hardening, and blockage of water system pipes, which will cause changes in liquid flow rate and pressure, drift of detection results, and system errors Larger, the hole blocking rate increases. The correct method of use is to clean every day after the test is completed, and to clean the instrument weekly and monthly, so as to make the test results more accurate.

Q: What are the common types of blood test devices?

A: Common types of blood test devices include glucometers, which measure blood glucose levels and are commonly used by individuals with diabetes, and cholesterol meters, which measure levels of different cholesterol types and are often used to monitor cardiovascular health.

Q: What are the benefits of using a blood test device?

A: The benefits of using a blood test device include the ability to quickly and conveniently monitor specific health markers, manage chronic conditions, and detect potential health issues early, all from the comfort of home or in a clinical setting.

Q: Are blood test devices accurate?

A: Blood test devices are generally accurate when used correctly, but accuracy can vary based on the device type, user technique, and adherence to the manufacturer's instructions, making it important to follow guidelines closely and calibrate the device if necessary.

Q: How often should I use my blood test device?

A: The frequency of using a blood test device depends on individual health needs and recommendations from a healthcare provider; for example, people with diabetes may need to check their blood glucose levels multiple times a day, while others might use their device less frequently.

Q: Do I need a prescription to buy a blood test device?

A: Most home-use blood test devices, such as glucometers, can be purchased without a prescription, though certain specialized devices or tests may require one, depending on the country and regulations.

Q: How do I maintain my blood test device?

A: To maintain a blood test device, it is important to keep it clean, store it properly according to the manufacturer's guidelines, regularly check and replace batteries if needed, and use control solutions to ensure accuracy.

Q: What should I do if my blood test device gives inconsistent results?

A: If your blood test device gives inconsistent results, you should first check that you are using the device correctly, ensure that test strips or cartridges are not expired, recalibrate the device if necessary, and consult the user manual or contact customer support for further assistance.

Q: Can I use a blood test device on children?

A: Yes, blood test devices can be used on children, but it is important to follow specific guidelines and instructions provided by the manufacturer and consult with a healthcare provider to ensure it is appropriate and safe for the child's age and health condition.

Q: What should I consider when choosing a blood test device?

A: When choosing a blood test device, consider factors such as the type of test needed, ease of use, accuracy, cost, availability of test strips or cartridges, and any specific features that may be beneficial for your health management.

Q: Are there any risks associated with using a blood test device?

A: Using a blood test device is generally safe, but potential risks include improper use leading to inaccurate results, infection from improper handling of lancets or needles, and possible skin irritation from frequent testing.

Q: Can blood test devices detect all health conditions?

A: Blood test devices are designed to detect specific health markers and conditions, so while they can provide valuable information about certain aspects of your health, they cannot diagnose all health conditions; comprehensive diagnosis should always involve consultation with a healthcare provider.

Q: How much do blood test devices cost?

A: The cost of blood test devices varies widely depending on the type, brand, and features, with basic glucometers available for as little as $20-$50, while more advanced or specialized devices can cost several hundred dollars.

Q: How does a blood test device work?

A: Most blood test devices operate by using a small blood sample, typically obtained through a finger prick. The sample is then placed on a test strip or into a cartridge, which is inserted into the device. The device uses various methods, such as optical sensors, electrochemical analysis, or immunoassays, to measure specific components in the blood.

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