Something You Should Know About Portable Laminar Flow Hood

The portable laminar flow hood is laboratory equipment that offers easy and safe protection from harmful airborne particles and vapours. These units are usually used in the lab to provide safe and sterile working conditions for technicians. Portable Laminar Flow Hoods provide workers with a place to work where they can avoid exposure to hazardous substances. Additionally, these machines offer a small degree of protection against airborne particulates such as mould, bacteria and spores by creating an almost complete barrier between the room air outside the unit and inside it.

Portable Laminar Flow Hoods:

A portable laminar flow hood is used to prevent laboratory workers and researchers from compromising their health and safety by exposure to toxic fumes and particles. These units use laminar airflow, which moves across a surface in a straight line. The air is almost entirely enveloped by fluid so that it becomes less likely to contain particulates or contaminated droplets.

"Laminar Flow Hoods" is used in pharmaceutical research, chemistry, biology, medical research and clinical trials. In addition, they can be easily transported to different locations for use in the field for student training or scientific expeditions. Laminar flow hoods are also ideal for use in any environment where the collection of a gas or liquid is needed, such as manufacturing and analytical laboratories or even environmental research.

Benefits of using Portable Laminar Flow Hoods:

The use of a portable laminar flow hood will provide plenty of benefits. Some of these benefits are:

·         These units allow users to work with hazardous materials without exposing themselves to danger.

·         The systems offer a small degree of protection against airborne particulates such as mould, bacteria and spores by creating an almost complete barrier between the room air outside the unit and inside it.

·         They provide an easy operation system that results in better workplace productivity.

·         Laminar Flow hoods do a great job of protecting lab workers against toxic fumes. So, if you are looking for complete protection while working in the lab, then a portable laminar flow hood is your perfect choice.

Labtron Healthcare has been catering for the needs of laboratories and research centres for the last three decades, for which it has earned a positive image all over India. Labtron Healthcare Technology Private Limited was established in 1986. Since then, it has been catering to the needs of various industries for their process equipment and filtration needs across various industries such as Pharma, Biotech, Engineering, Medical etc.

How to use:

The laminar flow hood is the most commonly used type of hood in laboratories. As it moves air across the filter, contaminants are trapped so that they are not released into the air for workers to inhale. Particles can be released from the laminar flow hood due to misalignment, but this is extremely rare. Portable laminar flow hoods also operate more smoothly than other types of hoods, making them an ideal piece of equipment for any lab where a lot of people work at once.

Filters:

Portable laminar flow hoods are constructed with an air-tight filter to keep the hazardous compounds contained within the machine. The filter is made of materials like fibreglass, fibreglass, cellulose acetate, or P-30. The several types of filters available can vary significantly in price and efficiency. Typically, a medium-efficiency disposable filter will cost between $40 and $50 at retail stores. At the same time, more expensive models are manufactured by medical supply companies and high-quality brands like Global Lab Supply.

How does it work?

The process by which these units create a safe and quiet working environment is called "laminar flow". The laminar flow hood is an inflatable chamber which is filled with fluid. This fluid has air pockets and is attached to the walls of the hood in a very particular way. Air is forced through the device's filters in a straight line, so the filter captures any particles released from the unit. When the unit inflates, excess air can be released by users outside it for safety reasons.

Laminar flow hoods are designed to keep the air and the liquids flowing in a straight line. It makes them a much safer choice for laboratories that do not have experience with hazardous chemicals. The airflow is not just confined to the inside of the hood but also outwards. Plus, since there is no undesirable outside contamination within the unit, it won't require frequent cleaning, which saves time and money in the long run.

Conclusion:

Portable laminar flow hoods are used in pharmaceutical research, chemistry, biology, medical research and clinical trials. They can be easily transported to different locations for use in the field for student training or scientific expeditions. Laminar flow hoods are also ideal for use in any environment where the collection of a gas or liquid is needed, such as manufacturing and analytical laboratories or even environmental research. Global Lab Supply offered Portable laminar flow hoods with High performance, low energy consumption & Low maintenance cost.

Some popular Industrial Oxygen Monitors

 Industrial oxygen monitors help to measure the level of oxygen in industrial environments where gas may become a safety hazard. They are often used to monitor the amount of oxygen flowing through a pipe or tube and can generate alarm levels in case the oxygen level falls below safe limits. These types of monitors may also be used in hazardous locations such as chemical facilities or oil refineries, where there is a high risk that an accidental release could lead to explosions or fires.

Electrochemical Oxygen Sensor:               

       

Electro-chemical sensors for Global Lab Supply Industrial Oxygen Monitor are often used in pipeline monitoring applications. They generate a voltage based on the conductivity change caused by oxygen's presence. Sensors of this type may be used to monitor either a dry or humid environment, and people can make various modifications to achieve increased accuracy. The computerized monitoring system for these sensors can also be calibrated to increase their effectiveness.

Electrochemical systems are incredibly delicate and difficult to use because they are sensitive to other gases in the air. Some false positive readings may be caused by a high concentration of carbon dioxide or other contaminants or substances within the air that can enter the sensor. It is why large industrial environments with heavy contamination would not be suitable for electro-chemical oxygen monitors.

Zirconia Oxygen Sensor:

Zirconia sensors are more resistant to false positive readings because they use a different sensing mechanism for detection. However, the sensor is sensitive enough to detect changes in oxygen concentration in the air as low as 0.01%.

Zirconia sensors may also be used when other substances in the air could interfere with electrochemical sensors. They can also be used by people with gases such as carbon monoxide or nitric oxide and oxygen mixtures containing up to 15% carbon dioxide.

Optical Oxygen Sensor:

Optical oxygen sensors are used in industrial environments with contaminants in the air that can cause false positive readings. Optical sensors can also measure oxygen levels when there is a considerable distance between the sensor and the source. If you are willing to buy it, Global lab Supply will be the best platform for you.

A wavelength of light is shined onto the source, which is then directed back by a photocell into an infrared detector. The amount of light that returns to the detector gives a numerical reading of how much oxygen exists in the designated area. It doesn't take long for this type of sensor to display results, and they are also highly accurate and reliable. Optical sensors may be used with both acidic and basic gases.

Clark Electrode Oxygen Sensor:

Clark electrode sensors are the most common type used in industrial oxygen monitors. They are often used to monitor oxygen levels in large manufacturing environments with a high degree of air contamination. The sensor consists of three different electrodes, each placed at specific points to increase accuracy and minimize interference with other gases.

These sensors are accurate and have a long life span, but they cannot give continuous readings as some other types can. Users can calibrate these sensors but cannot generate alarms or point out areas where there may be a gas leak. People may combine electrochemical and optical oxygen sensors with temperature probes to create highly versatile devices for use in various environments and conditions.

Infrared Oxygen Sensor:

The infrared sensor is one of the most sensitive devices used to measure oxygen levels in industrial environments. It has a very long range and can detect oxygen levels from a distance. It can also be altered to detect any other type of gas, such as hydrogen or carbon monoxide. They are often used for continuous, remote monitoring in large manufacturing or refinery areas where there may be several people present and a high volume of pollutants in the air.

Because these systems are susceptible, they may be prone to false positive readings from some types of contaminants in the air. Although they can give accurate readings by themselves, they can be combined by users with other sensors such as infrared carbon monoxide detectors or radiation sensors to increase accuracy and reliability further.

Ultrasonic Oxygen Sensor:

The ultrasonic sensor is another susceptible device that people may use to monitor oxygen levels in industrial environments. They also have a very long range and can be calibrated to detect levels as low as 10%. In addition, because there is no electrical charge, this type of sensor is considered safer than other types of sensors for use in explosive or highly combustible environments.

These sensors are limited by their inability to give continuous readings. Instead, they must be used by people in conjunction with a specialized ultrasonic gas analyzer or computerized monitoring system that can track the oxygen level and give readings based on the data collected.

Conclusion:

Since oxygen can be either toxic or beneficial depending on how much is present, an accurate monitor is crucial for safety and reducing the risk of harm to people and animals. If you are considering purchasing an industrial oxygen monitor, make sure you know your needs before looking for products on the market.

Critical perks about Membrane Nitrogen Generator

 A Membrane Nitrogen Generator is a device that uses an electric current to generate nitrogen gas. A Membrane Nitrogen Generator has two chambers separated by a thin permeable membrane through which gas flows while high voltage electricity flows across the membrane. Membrane Nitrogen Generators can be utilized by engineers or even those interested in science and engineering. The two chambers of the Membrane Nitrogen Generator must be kept wholly separated to prevent the two chambers from intruding on each other and thus open to the air.

Essential about Nitrogen Generator:

Nitrogen gas is also frequently used to clean out systems where toxic gases are present and charged with removing residual materials from industrial processes.

A Membrane Nitrogen Generator should not be confused with an air separation unit, commonly referred to as a "nitrogen generator". The air separation process utilizes membranes to separate oxygen from air using high-pressure carbon dioxide cylinders, an electric current, and heat. The process of air separation using membranes requires no additional energy for the conversion of pressure into electrical current; this benefit distinguishes Membrane Nitrogen Generators from their counterparts in industrial processes.

Mechanism:                                                        

The only significant difference between Membrane Nitrogen Generators and their industrial counterparts is the method in which the electricity is generated. The electricity generated by Membrane Nitrogen Generators is derived from the pressure within the two chambers maintained by a high voltage DC electric current.

When a membrane separates two chambers, air will flow across the membrane until pressure builds up to a point where it exceeds that of the surrounding atmosphere. At this point, this surplus air is released from its enclosure at great speed through a tube connected to an exit port through which it flows into an air outlet port and is then purified of contaminants in an associated purification unit.

Working principle:

The electrical output from the Membrane Nitrogen Generator is derived from this excess air expelled through the outlet tube. A vacuum gauge can be attached to the outlet port to measure the pressure within the chamber at all times. This gauge will also indicate when a small amount of carbon dioxide has built up in either chamber, preventing the flow of nitrogen gas into that chamber.

The potential energy of these compressed gases can be utilized as an alternative power source for household appliances and communication devices powered by nitrogen gas. When connected to conventional household appliances such as refrigerators and air-conditioners, they are very effective at reducing electricity bills by more than 30 per cent without compromising performance or quality.

Benefits of Membrane Nitrogen Generators:

Energy savings through purity selection:

Automobile manufacturers are looking for ways to reduce carbon emissions in their vehicles as part of a broader push to reduce automobile emissions and improve air quality. One way they are reducing emissions is by increasing the purity of the air sucked into automobiles. However, the air conditioners used in vehicles today have not been able to meet this challenge, and the use of solid oxide fuel cells (SOFC) has been proposed as an alternative solution. Membrane Nitrogen Generators can increase the purity of this compressed nitrogen gas by up to seven times using catalytic converters while using less energy in the process.

A sustainable solution:

Membrane Nitrogen Generators use electricity to generate nitrogen gas, a renewable resource. It is in contrast to traditional air separation units that require liquid carbon dioxide, which, though not toxic and colourless like nitrogen, is still non-renewable. Membrane Nitrogen Generators can also be run on different types of natural gas; however, this fuel poses severe challenges for a sustainable energy source today due to its political instability and the damage it causes to the environment.

However, with natural gas being used as an alternative source for electric power generation, it ensures that Global Lab Supply Membrane Nitrogen Generators can provide reliable and efficient services much longer than any other comparable device.

Ease of use:

Membrane Nitrogen Generators have been well designed to fit into the smallest of spaces. They are very compact and lightweight and require very little energy input compared to their industrial counterparts. The main difference between a Membrane Nitrogen Generator and an air separation unit is that the former does not require any additional energy to create oxygen from carbon dioxide, which people can harness for many different purposes and applications.

Conclusion:

Membrane Nitrogen Generators have the potential to be a trendy and practical piece of technology to reduce our reliance on fossil fuels and support the use of alternative energy solutions for powering our everyday needs. For example, when used as an alternative to electric power generation, Membrane Nitrogen Generators can help reduce electricity bills by up to 30 per cent while maximizing their effectiveness in purifying gases.

Their ease of use and efficiency makes them ideal solutions for household appliances, industrial equipment and vehicles, providing a sustainable solution to reducing carbon emissions.

General information about Muffle furnaces

 

Muffle furnaces are a type of laboratory equipment used to heat materials to temperatures at which they undergo thermal processing. A muffle furnace is also known as an oven furnace or a retort furnace, and it is used in laboratories and industry. Muffle furnaces come in different designs, but the basic design consists of an insulated chamber with a door that the user can open on top and at the bottom so air can flow through. The heated material is placed within this chamber, with bricks (or another type of insulating material) arranged between the door at the top and the bottom so that heat cannot escape.

Purpose of Using:                         

Muffle furnaces are mainly used for thermal processing. It can be heating, melting or casting materials at high temperatures and for long periods. Muffle furnaces are also used for annealing glass and ceramics, for example, when there are too many stress fractures in the material to be annealed through a more straightforward process such as heating it slowly.

A muffle furnace for sale is an alternative to an electric furnace or a heated metal block. It can also be used when you want to heat objects which can't be closed in by a hermetically sealed metal container. Also, they can be used as an intermediate process while heating objects up using other techniques. If you are willing to buy muffle furnaces for the first time in your life, then these are some factors you should check before purchasing them.

Common Muffle Furnace Uses:

As mentioned at the beginning of this article, muffle furnaces are best suited for thermal processing. It is because they are cheap compared to other alternatives like electric furnaces and hot blocks. Moreover, this type of equipment is convenient and can be used for low-budget projects.

The materials these furnaces should process should have a high melting point, density and carbon content. Generally, these are used for heating metals capable of producing a lot of heat while melting the metal but cannot withstand the temperature inside an electric furnace or a heated block.

What about Custom Muffle Furnaces?

These are used in the lab or industrial work, and the materials which need to be heated up can be dropped into the chamber and left there until they reach the required temperature. In this case, it is impossible to control the heating rate, as you cannot regulate the speed of moving objects inside the chamber so that they cover a continuous cycle.

Muffle is a company that can make furnaces with advanced technology. Still, it is more expensive than an ordinary furnace which does not even have a computerized control system for changing its setting. However, you can buy this furnace at a reliable price from Global Lab Supply.

Global Lab Supply Muffle Furnaces:

Muffle furnaces, in general, are made of an insulated chamber, but the one offered by Global Lab Supply has a unique design. The company has manufactured this equipment for high-quality thermal processing and efficient uniform heating. In addition, it comes with a thermostatic control system with auto shut-off and a door at the top, which can be opened and closed at the user's convenience. So why should you choose Global Lab Supply as your source for buying muffle furnaces?

The workers at Global Lab Supply are highly knowledgeable about every aspect of muffle furnaces, from their design to their delivery on time with complete satisfaction. They are also well skilled in the types of materials that can be processed by the user and for what applications. Their entire team is equipped with the skills and knowledge needed to manufacture these high-quality furnaces.

Maintenance of Muffle Furnaces:

Using muffle furnaces can be a physically demanding job; other than that, it requires utmost care and attention. In addition, you need to maintain it as per the instructions mentioned in the instruction manual, which comes along with every unit.

You should also check for any cracks or holes that need to be sealed to protect the insides of muffle furnaces from dust particles, humidity and even cold. It should always be kept clean, and it should be used by people only for purposes which are specified. You can buy muffle furnaces at a low price from Global Lab Supply.

Construction of Muffle Furnaces:

The construction of muffle furnaces can vary depending on the materials used and their purpose. Every furnace is made up of a chamber in which the materials to be processed can be placed and heated from above and below. The chamber is insulated to effectively absorb all the heat produced while heating the material inside.

End lines:

Whether you use it for industrial, laboratory or domestic use, you must do proper research before purchasing a muffle furnace. You will have to check its heating capacity, size, ease of use and energy efficiency. You will also have to check if the production of waste gases is harmful to the environment and whether the materials used in construction are highly eco-friendly.

Moisture Analyzer: An Informative Guide

 A moisture analyzer is an instrument used in the laboratory to measure a material's water content. Users can use it to assess the water content of an individual material or a sample consisting of more than one material. If the materials are food products, they can help assess their shelf life and quality. For example, wooden structures like furniture or building frames need to have their moisture content checked periodically so as not to rot or shrink due to excessive drying; some wood also has a natural tendency towards excess absorption.

What is a Moisture Analyzer?         

A moisture analyzer is a laboratory instrument used by people to determine the amount of water in a sample. It is designed to work with a wide variety of materials and can be used on solid, liquid or gaseous samples. It usually consists of an oven to heat the sample to release its moisture and a vacuum chamber where the user can measure the water vapour as it evaporates away from the heated sample.

The main components of most analyzers are an oven, a vacuum chamber, and a sensor for measuring water vapour pressure. Different types of materials require different testing times for accurate results. Moisture content sensors are mostly digital devices that measure electrical properties at different humidity levels.

A moisture analyzer for wood usually has a large holding capacity as wood can take up to forty per cent of its weight in water. It has to be able to heat the sample and pressure it out with a vacuum consistently, which is why most analyzers work on the same principle. The moisture content is usually displayed digitally or by a needle movement mechanism. You can purchase a digital moisture analyzerfrom trusted stores like Global Lab Supply.

How does a Moisture Analyzer work?

Moisture Analyzer is mainly used in laboratories to measure the moisture content of materials. It is a device which measures the water content of a sample of substances; these include solid, liquid and gaseous substances. A moisture Analyzer mainly consists of an oven and a vacuum chamber where the sample can be heated up. On heating the oven, the samples are uniformly heated because all areas are exposed to uniform temperature by the air circulation system.

And finally, the moisture content of the sample will be measured by a sensor connected to a vacuum chamber through pipes. Once the sample is heated in an oven and moisture content is measured by the sensor, the user will cool it down in a vacuum chamber.

How does the Moisture Analyzer work with wood?

Moisture Analyzer is mainly used to measure the humidity of wood samples; whether people can use it for wood-related applications depends on Moisture Analyzer features. Moisture Analyzer is used to measure the humidity of wood samples; whether people can use it for wood-related applications depends on Moisture Analyzer features. Moisture Analyzer comes in different designs and capacities.

Size of the sample: This is an essential factor as most ovens that come with a moisture analyzer have a sizeable holding capacity, i.e., they can hold large samples.

Suitable for all kinds of samples: Moisture Analyzer usually has adjustable temperature and heating speed. It allows the user to adjust the chemical/metals and any other substance to which it is being used.

Fast response: A sample that is heated up inside an oven for a more extended period will cause the moisture level in that sample to decrease gradually. This slow rate of change is called "thermal hysteresis."

Why is it used for Moisture Analysis?

It is used to analyze the moisture content of an appropriate material. It can be sealed and designed to heat or cool a sample or materials at different temperatures. It has a wide range of adjustments to measure the water content of different materials.

It is used to control the growth and development rates of ozone in the air. Users can also use it to control building humidity levels and increase or decrease air humidity levels.

The moisture content analyzer is used for testing the moisture content of wood, PVC and other materials. Scientists can use it to test the humidity and temperature levels of three different types of materials. The low-temperature analysis is used to analyze the components and effects of various types of polymer, elastomers and plastic.

Using Moisture Analyzer in Laboratories

Moisture analyzers are potent instruments that can measure substances with great accuracy. They are designed to provide data on the stability or decay process of material in different conditions. In addition, people can use them to check the influence of external factors and all other conditions that affect the quality of the sample.

Conclusion:

It can be a solid, liquid or gas material heated at a specific temperature and pressure to measure the water content. These analyzers have different features that allow them to control the temperature and pressure settings to give accurate results.

Everything You Need To Know About Vacuum Glove Box

The vacuum glove box is the original airtight enclosure and is still widely used today. The standard design of a vacuum glove box has a heavy steel outer frame that provides stability, insulation and physical strength. On one side of the frame are two doors, each with a gasket seal to provide an airtight sealing in conjunction with an o-ring at the base.

Inside the enclosure is a workbench or table with a rubber or silicone coated work surface. This coating helps to create an airtight seal against leakages from materials spilt in the glove box while being worked on.

Basic Structure of a Vacuum Glove Box

The gloves of the Vacuum Glove Box are made of stainless steel to support the frame and withstand exposure to harsh chemicals. Common seal materials include silicone rubber, silicone elastomer, EPDM rubber and natural rubber. In addition, many vacuum glove boxes have a safety interlock that ensures that both doors are closed before the vacuum pump can be started.

Both doors must be sealed and screwed shut with a pneumatic tool to ensure a strong airtight seal and enclosure is airtight. In addition, a pressure gauge is installed on the manifold where it can be easily monitored during use.

Working Process

When the vacuum pump starts, it removes air pressure from the interior of the glove box, and a small leak in the glove box will cause air to seep into it. This is known as saturation, and if this happens, an o-ring or gasket can be damaged due to a tightening of its size.

Therefore, when working inside a vacuum glove box, an inert atmosphere must be maintained by pumping inert gas. Any materials in the glove box should be assessed before being brought inside for any possible microbial contamination. The material is then placed into the glove box for a designated time before being checked for contamination.

The glove box is maintained by cleaning out any solvents that have been used in the material being worked on and replacing seals if necessary. A vacuum glove box has become a prominent part of every laboratory.

Understanding the Benefits of Using Vacuum Dessicator for Laboratories

Vacuum micro-dessicators use low-cost, efficient and reliable techniques to eliminate particles of all types, including chemicals and pathogens. They are available in various sizes with capacities ranging from 100ml to 25kg. They are used in facilities worldwide by industry and government agencies. When you need to sanitize a laboratory or process area in your facility, vacuum micro-Dessicator offer several benefits over traditional methods like high-pressure steam cleaning. These include:

Low Environmental Impact

Vacuum micro-Dessicator are even more efficient than traditional high-pressure steam cleaning in terms of the heat to liquid ratio, eliminating the need to pre-heat the water. In addition, by lowering its temperature, vacuum micro-Dessicator reduce the harmful effect that heated water can have on the environment and plant life surrounding your facility.

Save Operational Costs

A Vacuum Dessicator produces a significant amount of steam with minimal water consumption, reducing your heating and cooling bills. The increased efficiency also lowers fuel consumption and carbon emissions. In addition, their short operation times mean you do not need more manpower, which also helps reduce costs and improve safety.

Control Structure Sterilization

The steam produced by vacuum micro-Dessicator is between 55 and 75 degrees Celsius, significantly lower than the 140 degrees Celsius steam produced by traditional high-pressure cleaners. This minimizes the risk of damaging sensitive laboratory equipment or electro-mechanical devices found in semiconductors and integrated circuit processing. In addition, the low temperature kills all forms of life, including spores.

Save Time and Money

Vacuum micro-Dessicator are easy to use without complex controls or monitoring systems and require less time for the operation. Even in a relatively small area, a vacuum desiccator can be used to eliminate airborne contamination, such as bacteria or viruses. The debris is removed, and the air immediately returned to its original condition. These advantages of Global Lab Supply Vacuum Dessicator are particularly well suited to industrial applications where time and budget are crucial.

Vacuum micro-dessicators only use water while working, so they can be operated at low cost and with low environmental impact in spaces where heat may be an issue. In addition, this reduces the risk of any fire or explosion while they're being used.