Laboratory Dosing System

Why Choose Us

 

Kelinan has inherited the original team and products of Wuxi Yabo Textile Equipment Co., Ltd., with more than 20 years of production experience, and has been committed to the dyeing machine industry, making a perfect combination from laboratory equipment to large-scale equipment in the production workshop.


Wide Product Range
Overflow dyeing machine, laboratory dyeing machine, drying and setting machine, physical testing equipment.


Large Scale
Our factory is divided into two parts: the laboratory equipment production factory is in Wuxi City, Jiangsu Province, covering an area of 1,800 square meters and with more than 30 people in the workshop. The large-scale dyeing machine production factory is located in Zibo City, Shandong Province, covering an area of 15,000 square meters and with more than 70 people in the workshop.


Wide Range of Applications
Our products are widely used in textile factories, dyeing and finishing factories, dye factories, auxiliary factories, fabric trading companies, research institutes, etc.


Advanced Equipment
We have professional production equipment such as laser machine, bending machine, automatic welding machine, rolling machine, automatic polishing machine, fully automatic pipe bending machine, laser pipe cutting machine.

What is Laboratory Dosing System

 

 

The Laboratory Dosing System controls the flow rate or quantity of the substance being dosed, using pumps, valves, or other mechanisms. This control ensures that the correct dosage is delivered at the right time. If you want to know the specifications and prices of Laboratory Dosing System, please contact us!

 

Advantages of Laboratory Dosing System

 

 

Accuracy
The accuracy of a Laboratory Dosing System is how closely it can deliver the desired flow rate. This is typically measured as a percentage of the desired flow rate. For example, a dosing pump with an accuracy of 1% can deliver a flow rate that is within 1% of the desired flow rate.


Repeatability
The repeatability of a Laboratory dosing Systems is how consistently it can deliver the desired flow rate. This is typically measured as the standard deviation of the flow rate. For example, a dosing pump with a repeatability of 0.1% can deliver a flow rate that is within 0.1% of the desired flow rate, 95% of the time.


Durability
The durability of a Laboratory dosing Systems is how well it can withstand wear and tear. This is important for dosing pumps that are used in harsh environments.


Increased Efficiency
Dosing Systems reduce the need for manual labor and improve accuracy, leading to increased productivity and reduced costs. Auto doser can be programmed to dispense precise amounts of chemicals or other substances at specific intervals, reducing the risk of human error and increasing dosing accuracy.
Additionally, automatic dosing systems can help to optimize chemical usage, reducing waste and minimizing costs. By monitoring chemical usage in real time, these systems can adjust dosing rates and schedules as needed, ensuring that the optimal amount of chemicals is used to achieve the desired results.


Cost Savings
In addition to improved efficiency, automatic dosing systems in gas and oil industrial settings can lead to significant cost savings. By reducing waste and optimizing chemical usage, businesses can save money on chemical purchases and disposal costs. Additionally, automation reduces the need for manual labor and maintenance, further reducing costs.


Improved Safety
By reducing the need for manual handling of hazardous chemicals, these systems can reduce the risk of exposure to dangerous substances. Additionally, automated systems can be programmed to detect leaks or other safety hazards, reducing the risk of accidents or spills.


Enhanced Quality Control
Automatic dosing systems can help to improve quality control by ensuring that precise and consistent amounts of chemicals are dispensed at all times. Real-time monitoring and data analysis can help to optimize dosing accuracy and consistency, reducing the risk of errors and ensuring that the desired results are achieved every time.


Environmental Benefits
The gas and oil industry is often associated with environmental harm, but automatic dosing systems can help to minimize the environmental impact of these operations. By optimizing chemical usage and reducing waste, these systems can help to reduce the amount of hazardous chemicals released into the environment. Additionally, real-time monitoring and data analysis can help to identify areas where environmental impact can be minimized, helping businesses to operate in a more sustainable and responsible manner.

 

Types of Laboratory Dosing System
 

Drip Irrigation System

A water-efficient drip irrigation system for shrubbery, vegetable gardens, and flower beds sends a steady, controlled flow of moisture straight to the roots of your plants. This system is typically made up of a series of thin, flexible, perforated tubes or flexible, permeable soaker hose lines installed under the mulch or just below the surface of the soil.
Surface drip irrigation systems involve tubes that rest on top of the soil. These systems are very adaptable and are typically used in garden settings.
Subsurface systems are buried out-of-sight and slowly drip water out near roots within the soil, and less adaptable than surface systems.
Because drip irrigation systems are placed on or in the soil, the water they supply is immediately delivered to the parts of the plant that need them most—the roots. This direct application reduces the risk of evaporation and allows for better absorption to promote healthy plant growth. It also helps limit the growth of invasive, destructive organisms, including weeds and fungi.

Sprinkler Irrigation System

Sprinkler systems used to cover broad and irregular lawn areas, and sometimes large planting beds. They eliminate the time, hassle, and hard work required for ‘hose management'. Sprinkler heads mimic rainfall by spraying water into the air and letting it fall on the grass. Pop-up sprinkler heads retract into the ground so that when not in use they cannot easily be damaged by mowing and landscaping equipment.

Stock Solution Preparation System

A stock solution is prepared by weighing out an appropriate portion of a pure solid or by measuring out an appropriate volume of a pure liquid, placing it in a suitable flask, and diluting to a known volume. Exactly how one measure's the reagent depends on the desired concentration unit. In addition, stock solutions are generally more stable as compared to working solutions since they do not support bacterial growth. As multiple working solutions can be prepared using a single stock solution, you will also need less storage space in the laboratory.

 

How to Choose Laboratory Dosing System
 

Type of Substance
The nature of the substance being dosed, whether it is a liquid, gas, or solid, will influence the choice of dosing system.


Dosage Accuracy
The required level of dosage accuracy will dictate the type of system needed. Applications requiring high precision may necessitate gravimetric or metering systems.


Flow Rate
The desired flow rate will impact the selection of the pump and other components of the dosing system.


Control and Automation
The level of control and automation required will influence the choice of system. Some applications may require simple manual control, while others may necessitate sophisticated automation with data logging and remote monitoring capabilities.


Safety
Safety features such as alarms, interlocks, and leak detection should be considered, especially when dealing with hazardous substances.


Maintenance
The ease of maintenance and availability of spare parts should also be factored in.

Stock Solution Preparation System

 

Automatic Dripping Machine

Gravimetric vs Volumetric
Ensured accuracy in the fluid dispensing or dosing system is critical to the success of many processes and experiments—from making sure the right amount of crushed tomatoes is added in a spaghetti sauce recipe to dispensing life-saving vaccines into vials. Although the critical volumes in these applications are different, they both rely on some method of metering products with some amount of measurable accuracy. The first step in bringing accuracy to a fluid dispensing system, before even purchasing a pump, is to determine what accuracy is tolerable to your process or experiment. As the above applications illustrated, a lost drop of tomato liquid is not as impactful as a lost drop of vaccine.
Accuracy only follows measurability, so once a tolerance for dispensing accuracy is determined, choose a pump with a measurable output mechanically tied to the motor RPM, otherwise known as a metering pump. Choosing a metering pump such as a peristaltic or diaphragm system is a step in the right direction because metering pumps provide a reliable pattern of “fluid pockets” per revolution. The pump output can be determined mathematically using the volume of the fluid displaced and the motor RPM. Accuracy and resolution of the motor RPM is critical, so choose a pump drive within your determined tolerance for dispensing.

 

Drip System Maintenance and Monitoring
 

Flushing the System
Even with a good filtration system, blockages to drip systems can occur, and it is important to regularly flush mains, submains, and laterals.
Flushing these three components, in this order, is an important practice which generally doesn't receive the attention it requires.
Depending on water quality, it is recommended to give the piped system a complete flush before the first irrigation of the season, several times during the season and again at the end of the season.
Monitoring the water quality during flushing will determine whether flushing is occurring frequently enough. As a guide, flush three times a season when irrigating with clean water and at least once every fourth irrigation with dirty water.

 

Cleaning the System (Disinfestation)
Emitter blockages generally occur for two reasons – organic matter and mineral sediments. Each of these issues should be dealt with separately. Organic matter is commonly treated with an oxidising agent such as chlorine. Mineral deposits are treated with acid.
Organic matter can include algae, mussels, and biofilm. It is important to control organic matter as it increases the internal roughness of pipes, increasing friction loss throughout the system and resulting in lower operating pressure at the emitter, as well as potentially creating emitter blockages as growth moves into emitters.
Several products are now available which kill organic matter. The most common of these is chlorine, with hydrogen peroxide now increasingly being used. It is important to note when selecting a chemical product to use, read the label thoroughly prior to use. As many of these chemical products are not registered for the specific purpose of cleaning irrigation systems, this use is considered an off-label use in Victoria.

 

Monitoring System Performance
Regular monitoring of a drip irrigation system is important to make sure it's working properly. This generally involves checking dripper discharge and operating pressure. Ideally this should occur as soon as the system is commissioned, and regularly over the life of the system.
For non-pressure compensated drippers (non-PC), the discharge stated by the manufacturer is a nominal discharge figure at a specific pressure (generally 100 kPa).
In a properly designed system, there will be less than 10% variation in dripper discharge throughout a valve unit (i.e. less than ±5% variation). This avoids having some plants under-watered and others over-watered.
Pressure compensated (PC) drippers discharge should also be regularly checked. If material lodges in a PC dripper leaving the diaphragm open, an increase in discharge can initially occur. Additional material can result in a reduction in discharge and eventually complete blockage.
For non-PC drippers, emitter operating pressures should be checked to ensure pressure variation is no greater than ±10%. This variation is less important for PC drippers, however, these should still be checked to ensure they are operating above a certain minimum and below a maximum pressure.
Regular testing of emitter discharges and operating pressures is important to determine if maintenance programs (such as hydrogen peroxide injection) are needed. A method for checking a drip system is described below.

 

 

Our Factory

Our factory is divided into two parts: the laboratory equipment production factory is in Wuxi City, Jiangsu Province, covering an area of 1,800 square meters and with more than 30 people in the workshop. The large-scale dyeing machine production factory is located in Zibo City, Shandong Province, covering an area of 15,000 square meters and with more than 70 people in the workshop. From sheet metal processing to assembly, the quality of the entire assembly line is controlled by ourselves.

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Frequently Asked Questions
 

Q: What are the typical flow rates of a laboratory dosing system?

A: Flow rates for laboratory dosing systems can vary widely depending on the system's design and the material being dosed. For liquids, flow rates can range from as low as microliters per minute for precision dosing up to liters per hour for bulk dispensing. Powder dosing systems might operate in milligrams per second, while gas dosing systems could range from milliliters per minute for controlled gas flow to larger volumes for industrial applications. Most systems allow for adjustable flow rates to meet specific experimental needs.

Q: What are the typical applications of a laboratory dosing system?

A: Laboratory dosing systems are commonly used in chemical research, pharmaceutical development, environmental testing, food and beverage analysis, and material science laboratories. Typical applications include preparing chemical solutions, dosing reagents in reactions, dispensing biological or chemical samples, and accurately adding ingredients for formulations in the production of small-batch products or experimental samples.

Q: How does a laboratory dosing system work?

A: A laboratory dosing system operates through a pump, valve, or dispenser mechanism that precisely controls the flow of the substance being dosed. The system is often controlled by software or a digital interface, where the operator can set the exact amount, concentration, or volume to be dispensed. The system uses feedback loops to ensure accuracy, adjusting flow rates or dispensing mechanisms in real-time to maintain the programmed parameters.

Q: What are the key components of a laboratory dosing system?

A: Key components of a laboratory dosing system include pumps or dispensers (for controlling the flow of the material), valves (to regulate the on/off flow), sensors (for measuring quantities dispensed), a control unit or software (for setting dosing parameters), and storage containers for the substances being dosed. Some systems may also include stirrers or mixers to ensure homogeneity during dosing, particularly when dealing with solutions or suspensions.

Q: What are the advantages of using a laboratory dosing system?

A: The main advantages of using a laboratory dosing system include enhanced precision, repeatability, and control in the dosing process. These systems reduce human error, ensure consistency across multiple tests or experiments, and can handle micro-quantities of materials that are difficult to measure manually. Additionally, laboratory dosing systems are highly efficient, saving time and reducing waste when working with expensive or hazardous substances.

Q: What types of laboratory dosing systems are available?

A: There are several types of laboratory dosing systems available, tailored to specific applications. These include liquid dosing systems (for accurate liquid handling), gas dosing systems (used for introducing controlled amounts of gases into a reaction or process), powder dosing systems (for solid materials), and multi-component dosing systems (which can handle multiple substances simultaneously). Additionally, some systems are designed for continuous dosing, while others are for batch dosing.

Q: What materials can be dosed with a laboratory dosing system?

A: Laboratory dosing systems can handle a wide range of materials, including liquids, gases, and powders. These systems can dose anything from water, solvents, and acids to viscous liquids, reactive chemicals, fine powders, and granulated solids. The system configuration may differ depending on the properties of the materials, with specialized components required for handling corrosive, volatile, or sticky substances.

Q: How is accuracy ensured in a laboratory dosing system?

A: Accuracy in a laboratory dosing system is ensured through precise calibration, advanced sensors, and feedback mechanisms. The system's control software allows for fine adjustments to flow rates, and real-time monitoring ensures that the exact quantity is dispensed as specified. Many systems also incorporate weight sensors or flow meters that continuously measure the amount of substance dosed, adjusting as needed to maintain high accuracy.

Q: How do you calibrate a laboratory dosing system?

A: Calibrating a laboratory dosing system typically involves comparing the system's output to a known standard or reference volume, weight, or concentration. Calibration may require dispensing a set amount of material, measuring the actual amount dispensed, and adjusting the system to correct any discrepancies. Most modern systems include an automated calibration feature that simplifies the process and ensures consistent accuracy across different dosing tasks.

Q: Can a laboratory dosing system handle hazardous materials?

A: Yes, many laboratory dosing systems are specifically designed to handle hazardous or reactive materials safely. These systems may include features such as sealed containers, inert gas purging, or explosion-proof components. In applications where hazardous chemicals like strong acids, bases, or toxic substances are used, dosing systems provide a safer alternative to manual handling by minimizing operator exposure and ensuring controlled dispensing in a closed system.

Q: What is the difference between manual and automated dosing systems?

A: A manual dosing system requires the operator to control the dosing process, often using pipettes, syringes, or other simple tools. An automated dosing system, on the other hand, controls the dosing electronically, using pumps, valves, and sensors to dispense the material with high precision. Automated systems are faster, more accurate, and reduce human error, making them ideal for high-throughput labs or experiments that require consistent dosing over time.

Q: What maintenance is required for a laboratory dosing system?

A: Maintenance of a laboratory dosing system includes regular cleaning to prevent blockages, calibration to maintain accuracy, and inspection of moving parts such as pumps and valves to ensure proper function. Periodic replacement of consumables such as tubing, seals, and filters may also be necessary, depending on the type of materials being dosed. In systems handling corrosive or reactive substances, it's essential to check for wear or damage in components that come into contact with the materials.

Q: How does a dosing system handle viscous or sticky materials?

A: Handling viscous or sticky materials requires a dosing system equipped with stronger pumps and specialized components designed to deal with high-resistance fluids. The system may include heated reservoirs to reduce the viscosity of certain materials, or high-torque pumps to ensure the material flows smoothly. Some systems also use piston-based mechanisms instead of regular pumps to handle thick substances.

We're professional laboratory dosing system manufacturers and suppliers in China, specialized in providing high quality customized service. We warmly welcome you to wholesale high-grade laboratory dosing system made in China here from our factory.

durable and consistent dosing system for lab, chromatographs, desk lamps

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