Have questions? We’ve answered the most common ones for your convenience.
Since one of the primary and most significant equipment used in the laboratory is autoclaves that are necessary to ensure that all the research processes and staff of the laboratory are safe and free of the biological contamination, as well as the integrity of the research is not violated. Lack of proper sterilisation contributes to biological contamination and that too can jeopardise very vital research findings besides health of the population.
Among the most effective ways of sterilisation is the high-pressure, high-temperature steam used to kill microorganisms (as well as spores) on instruments and other objects. The most desirable procedure is a steam steriliser in a lab because it is efficient, does not use any toxic substances and may be used in any heat resistant object within a lab. Steam can penetrate even sterilising loads that are packed tightly and therefore can attain a total sterilisation.
Yes. One such environmentally responsible systemic approach to risk reduction to inadvertent transfer of hazardous micro-organisms is the use of autoclaves by laboratories to sterilise biological and chemical wastes during waste products disposal. Laboratory disposables such as contaminated pipets, personal protection equipment and culture media are often sterilised in the autoclave and then are discarded.
Yes, Cleanroom equipment that are available in the market include laminar airflow equipment, air showers, HEPA and ULPA filters, clean benches, and each-pass through chambers. Both of them allow achieving better control over air and enhanced concentration on the filtration of the particles and contamination containment to provide the desired level of purity in the controlled environments.
Air control clean room equipment removes the chances of contamination on products in the production process and testing of the products. This makes sure the product is of high quality, it has no defects and processes are not in isolation of the outside environment which makes it more reliable and safe.
The pharmaceutical industry, semiconductor production, manufacture of medical equipment, food industry and research laboratories are among places where clean room equipment is used. These working conditions require particular air cleanliness requirements and cannot afford high humidity and moisture content, as well as the unnecessary dusts and particles to obtain the required accuracy and safety and satisfy the quality control requirements provided by the regulation.
Clean room equipment are systems and devices of particle, microbe and air pollutant filtration, to offer an isolated and controlled environment that has not been contaminated by external particles or pollutants. It is of great importance in the pharmaceutical, electronics, cosmetics, bio-tech and medical research sector where contamination with any foreign particles may pose a threat to the integrity, quality and safety of the product.
Definitely, The clean up equipment design and certification can be conformed to most of the ISO class standards based on the control degree of the allowed particles. Specifically designed equipment offers superior control that complies to the standards regulations and requirements concerning the industry enhancing control and safety in operations.
A laboratory furnace is used to heat treat materials, sample testing, sample ashing, sintering, and melting of materials. It can provide a very controlled environment with uniformity and precision in heating to buttress the needs in research, quality tests and other uses in metallurgy where uniform and precise heating is paramount to dependable results.
As compared to industrial furnaces, laboratory furnaces are meant to provide control of the temperature to a certain degree and which is needed with uniformity. A laboratory furnace will be the popular choice in research labs and in use in the field of material science, where uniform heating is highly desirable, programmable and controllable to a desired temperature.
Mending of faulty insulation, heating elements, controllers and other temperature regulation systems are all part of furnace repair. Repairs increase efficiency in performance and temperatures, preventing faulty and unsafe work in laboratories.
There are local furnace repair and maintenance laboratories. The fast action of local technicians and safety of the maintenance of the equipment that is planned in advance will save time and also, experience of the technician will assist in solving the problem efficiently, which can extend the life of the furnace.
The maintenance of an efficient furnace is to ensure the insulation, heating elements, and control systems are in the most appropriate state possible. The result of such a furnace is that it does not waste energy and has a long life span of operation and there will be no unexpected malfunction.
The security features alert users about changes in temperature, power failure, or unsealed doors. These alerts will make sure that no sample materials are lost and they will take timely action to save important materials stored in the fridge.
Certainly. Lab refrigerators will be put in a design that they can operate throughout the entire 24 hours of the day. They provide stable conditions of operation and stable storage conditions of materials that are sensitive to the temperature and can be heavily used without changes in performance.
The lab fridges are particularly designed with spark free temperature control, corrosion resistant interiors and attention to specific temperature control. Having this kind of care, the storage of volatile chemicals and biological samples can be carried out safely, which is not possible with domestic fridges.
The temperature should be stable to prevent degradation and contamination of biological materials, chemical reagents and laboratory samples. The storage integrity of the materials should be secured by performing regular cooling in order to guarantee the right results with the following tests and long-term maintenance of the samples.
Some of the considerations to be taken into account when selecting a model are temperature range, temperature stability, storage available, safety alert, consumption of power and temperature control. When you have a model that fits your application, a model can be considered to have a secure storage as well as a good performance during a long period of time.
In order to enhance safe operations and avoid the risks of overheating or failure of a certain part and/or component inside the laboratory oven, the contemporary designs and computers are equipped with capabilities like over-temperature shut off and enclosed chambers.
Certainly. Laboratory ovens are intended to dry heat sterilize glassware, metallic instruments and other materials that are heat stable hence this is an excellent choice to eliminate those that cannot be sterilized using steam.
Good air circulation will allow evenly and uniformly distributing heat in the opened chamber. This implies that samples chambered are exposed to uniform temperatures and, therefore, accuracy and reproducibility of the research are enhanced.
Depending on each model, laboratory ovens can normally operate and work under ambient temperature up to roughly around a temperature of 300 degree celsius. A line of various functions and jobs can be performed using such a range as drying, curing, sterilizing, and heat treating one or more samples in a laboratory.
Laboratory ovens can offer their users an easy method of utilizing a consistent, uniform, and clean heat to dry their glass tools, samples and chemicals. This is because there are no open fires and direct heat and therefore oversensitive materials are not damaged and drying is uniform.
Absolutely. One of the most commonly known equipment in every laboratory is the centrifuge which is used to aid in the speedy separation of sample items, thus increasing the efficiency of sample arrangement and examination, which is crucial to day to day activity in any research and clinical laboratory.
The vibration and mechanical stress formed can be reduced by balancing of the tubes prior to initiating the rotor. The appropriate balancing will prevent a break of the equipment and will make sure that there will be safe operation during the use.
Yes. Centrifuges are constructed to take different samples in a single run through the use of a variety of rotors. They are applicable in nearly all clinical, research and industrial laboratories.
Speed control capabilities also allow the operator of the centrifuge to fix the equipment to the required speed of rotation which is significant because different samples may have to be subjected to varied rotational rates to ensure the required separation is achieved without any harm being done on the sample. This control has been used in the different centrifuge applications to reach accuracy and precision desired.
In a centrifugal separator, the centrifugal force is applied to a sample by making the sample rotate at a high velocity; due to this, the various particles of a sample are separated as a result of the heavier particles being at the outer part of the sample and the light being in the center. This force is used to separate the different constituents of the blood that should be examined e.g. cells, proteins and other elements.
The laboratory chambers play a significant role to give information to confirm the safety, reliability, and compliance of a product to regulations in the market.
Laboratory chambers are able to reproduce environments by simulating extreme conditions in which to test products and carry out research.
Materials, electronic parts, drugs, chemicals and biological samples are some of the materials that are tested in chambers. This is done in order to test them regarding the level of durability, stability, or functionality.
Laboratory chambers are employed to determine the behavior of materials, electronics or products linked to certain environmental conditions such as temperature, moisture or pressure.
Controlled environments assist researchers in ensuring the same condition of various tests within a research. This makes it reliable in the validation of the product results.
Laboratory chambers are able to reproduce environments by simulating extreme conditions in which to test products and carry out research.
The laboratory chambers play a significant role to give information to confirm the safety, reliability, and compliance of a product to regulations in the market.
Laboratory chambers are employed to determine the behavior of materials, electronics or products linked to certain environmental conditions such as temperature, moisture or pressure.
Controlled environments assist researchers in ensuring the same condition of various tests within a research. This makes it reliable in the validation of the product results.
Materials, electronic parts, drugs, chemicals and biological samples are some of the materials that are tested in chambers. This is done in order to test them regarding the level of durability, stability, or functionality.
Glove boxes provide control of the atmosphere inside the box; that is, inert gases: nitrogen or argon, which are useful in stabilizing the atmosphere of delicate experiments, preventing the possibility of oxidation, moisture, and undesirable reactions.
There is an air-tight chamber in a glove box where gloves are used to enable a person to handle sensitive materials without the danger of exposure to air and contaminants. It secures the user, samples and an additional safety measure on works that have moisture sensitive or dangerous substances.
Absolutely. These types of boxes are designed with an aim of supporting an experiment in a stable condition without the chances of contamination which is paramount in the sphere of pharmaceuticals and other sophisticated chemical research.
Glove boxes are lined with large sections of special transparent window material, allowing the user to also see the inside of the chamber clearly when carrying out the work and allows the user to also control the manipulations of the samples with precision.
Certainly. Glove boxes can be connected to a purification device or any other control and safety system, and workflow optimization in a laboratory.
The primary cause of samples not being harmed by heat or overheating is indirect heating. Laboratory water baths provide a controlled heating that is typically gentle and can be used in a reproducible way as well as are best adapted to biological and chemical applications of sensitive heat control.
In experiments, samples should be given the identical conditions. Different conditions may skew the outcomes and have a strong negative effect on the scientific validity of the experiment. The water bath equally allows uniform heating of the samples thus enhancing reliability and repeatability of the water bath experiments.
Certainly. Laboratories have water baths that are used to keep a number of samples simultaneously. This proves to be extremely helpful since it would save time in the processing of the samples and increases the efficiency of the lab.
The modern water baths are digital and can be adjusted to very specific temperatures. This is because it can be easily observed when the water bath is in the bath and also gives the user an opportunity to make certain parameters to manage the bath.
Water baths are applied in the laboratories to heat samples, ADN enzyme reaction, thawing, and incubation, etc. Actually, water baths are applied in all processes that demand a definite, constant heat.
Laboratory Circulators help to address the problem of consistent and accurate heating or cooling by continuously pumping temperature-regulated fluids. This type of technology that does not experience sudden surges of temperature is invaluable to the various delicate laboratory procedures and accurate analysis processes.
Certainly. Circulators may be utilized along with other appliances such as reactors, water baths and chambers that demand a stable temperature. This is because their place in the laboratory is very significant due to this flexibility in use. The bath circulates the water to standardize the temperature of the water. That is why it is possible to say that the temperature of the water in a circulatory bath is homogeneous.
Circulation of fluids helps to distribute temperature evenly within an apparatus that favors even the exact temperature and prevents the formation of temperature gradients that would negatively impact the result.
Fluids that transfer water and heat are applicable depending on the temperature that is required and application needs.
Absolutely. They have a high level of dependability and precision engineering has been applied in temperature sensitive applications in research and industry where tight temperature control is needed to stratify experiments.
There are also laboratory shakers which eliminate manual mixing of samples. Shakers mix the mixture in a uniform manner and automate the process to a large extent that enhances improved sample distribution and significant increases in the repeatability of the experiment.
The majority of shakers do have a variety of various speeds to provide the type of sample that is being mixed and the kind of mixing required (gentle to vigorous).
Yes, shakers are expected to be used with extended mixing times and are particularly meant not to heat up or become ineffective when used with extended mixing times.
Shakers can also be modified to various kinds of laboratory applications due to the versatility of the right clamps or trays since it can be used with flasks, bottles, tubes, and microplates.
A number of shakers can be soft-shaking, which is best suitable in a biological sample whereby the production of shake by the mechanism should be minimal yet used to shake the biological sample with caution throughout the experimentation.
In quality testing, test chambers are practiced in order to apply a particular combination of stress parameters (i.e. temperature, humidity, barometric pressure) and then establish how the item will perform or how the item will fail in the process of testing the item of defects/critical failure in order to ensure that the item will the quality standards.
Test chambers are used in the R/D laboratories to create an environment that imitates working conditions in order to examine how the specific product will behave under different conditions of the environment when the product is continuously operated and thus make improvements on the design of the product regarding weight, efficiency, life, and reliability.
Yes, in the name of efficiency and dependability of the operation; there are pre-programmed test chamber controls that can be used to run a specified number of continuous cycles to maintain the same circumstances.
The Electronics, Automotive, Aerospace, Pharmaceuticals, Material Testing and Manufacturing Industries are the test chambers that are employed to analyze the future performance of a product.
Test chambers can also overcome any weaknesses in product design by testing the products designs to find the weaknesses and avoid selling the product in the market and incurring losses in terms of money companies lose due to failure of the products, recalls, and potential safety hazards.
In case vacuum tray dryers are applied to remove moisture in materials, the process can be obtained through the use of lower temperatures. Incidences of heat degradation are a significant issue hence the suitability of pharmaceutical and chemical material in the use of this technology.
A vacuum reduces the boiling point of the moisture which observably evaporates faster and enables the drying process to take place at a higher rate. This also does away with the chances of heat damage and helps in general efficiency.
Yes. Bulk and batch drying becomes possible with the introduction of several trays. This enables more efficient processing and high output where the laboratory and industrial data is used.
Yes. The volume of energy consumption is also reduced because of working in low temperatures. This enhances the cost effectiveness and longevity of the vacuum tray dryers with regard to traditional means of drying.
Vacuum tray dryers find application in drying and preparation of samples in various areas that include pharmaceutical, chemical, food processing and in research laboratories.
The results obtained during the surface measurement of leaves help the researchers in analyzing, estimating, and quantifying the plant development, plant photosynthesis, and plant health. The data is useful in the growth enhancement of plants and also in advancing research in agricultural research.
Leaf area has impacts on photosynthesis, transpiration and growth. It also helps researchers of the plants to analyze and decide the flexibility and the possibility of crop in various environments.
Yes. The higher levels of leaf area detectors are able to measure and calculate leaf area with better convincing and easier case even the difficult and odd shaped leaves.
The data provided by the leaf area meters is available in a matter of a few seconds. This enables the speedy collection of data in a laboratory and in a field that enables the experiments to be conducted in a more efficient manner.
Yes. Many of the models are easy to operate and carry around and thus, gathering data collected on the leaves in the field is not difficult since one does not have to carry samples to the laboratory.
The heat is supplied uniformly by using halogen lamps, which assist in enhancing the amount of moisture content of the materials used since moisture is lost at a higher rate compared to the sources of heat in the old/other moisture analysers.
The moisture content measurement can also be used to aid in making timely decisions on the business in the manufacturing or quality control section of a business. It can also be used to measure moisture levels in bulk materials under processing to ensure that quality levels are not met to prevent product wastage.
Halogen moisture analysers could be placed in the production lines to achieve product moisture requirements.
Good moisture analyzers have the best technology, which is used to attain a high degree of accuracy. Higher heating and sensor technology attain high reliability of moisture content measurements and high reliability of measurements repeatability.
Their design gives them a high level of cleaning which enables the laboratories to achieve high equipment efficiency. Their structure enables faster cleaning to be done thus less time goes to waste on the equipment.
Laboratory equipment Laboratory equipment refers to any equipment, tool, or instrument that enables research, testing, and any other scientific activity. Such equipment can be centrifuges, incubators, water baths, ovens, spectrometers, safety cabinets.
The use of modern laboratory equipment has a positive effect on the research process due to its ability to make data more accurate and repeatable as well as reduce the time and effort needed to achieve a particular level of quality of the data under consideration. This would enable the researcher to conduct experiments and overcome the challenge of human error that can have a positive impact on innovation and quality measurement.
Calibration is used in ensuring accuracy using laboratory equipment. It also makes sure that there are no discrepancies in the data being collected to provide some degree of confidence in the data being collected as well as satisfy the standards of any regulatory body.
Absolutely. Various instruments permit a plethora of digital capabilities such as automation of data logging, and network connectivity which in its turn increase the standardization and efficiency of workflow which leads to the fact that the modern lab is more productive and structured.
Maintaining of the laboratory equipment can be done through scheduled servicing of the equipment which can involve cleaning, calibration and proper handling of the equipment. This will extend the effective life of the equipment besides preventing any malfunctions and lapses in performance.
The shred analysis of materials can also be used to provide consistent and reliable results by making sure that particles of different sizes are subsequently separated and retrieved using consistent vibrations to stimulate tiers of sieves, shakers.
The available results of sized distribution scatter of test particles in repeat tests are expected to be consistent. This is paramount in quality checks, product formulations, aggregate tests and verification of compliance to standards of practice with a particular industry.
Yes, depending on the model. Some sieve shakers are designed to have dry tests, whereas others are designed to take wet sieves with accessories added to perform the separation of a sample effectively.
It is possible to stack several sieves one over the other so that different levels may be used to perform detailed analysis on the particle sizes together with the added bonus of much precise grading or tests is achievable in the various applications.
Certainly Yes. Sieve shakers can be found in quality control laboratories of the pharmaceutical industry, mining, construction, food industry, and the chemical industry where high frequency testing of particles in terms of size is necessary.
Humidity levels in a product also impact on spoilage, stability, shelf-life and performance. Moisture analysis assists in making sure that the spoilage is avoided, the performance of the products is continuous and the products are compliant and of quality no matter the industry.
Moisture analyzers have the ability to determine solids, powders, gels, and liquids. The versatility in the design of the products assist the laboratories to identify moisture content in various materials and in the various applications.
Application of rapid moisture testing in a laboratory will enhance the overall productivity and the process of quality control can be done faster thus a decision-making can be made quickly in a production setting and also wastage and downtime is minimized.
Modern moisture analyzers provide high accuracy and repeatability of results because they have sophisticated sensors and controlled heating pattern variants. The moisture analyzers provide results which can be relied upon to check the compliance and the quality of standards within the laboratories.
The reason why moistures are studied in labs that specialize in food, pharmaceutical, chemical and material testing is to provide regulatory compliance, product certification and quality assurance services.
Drying equipment involves the collection of solids in the vapors and liquids and filtration equipment involves the collection of solids. The availability of these equipment is helpful in the process of preparing the sample, purification and sample processing because of the significance of achieving the right results and quality completed products.
The filtration equipment removes the undesirable particles and these particles can be made up of microbes or an impurity. And as these contaminants are eliminated, the laboratories achieve cleaner samples and more precise results of analysis.
This is because in order to avoid the breakdown or contamination of the filtered solids. Due to the use of dry samples, storing, weighing, and precise analyses without the issues of compound in the presence of water, the issues can be increased.
Filtration and drying systems find application in primary pharmaceutical, biotechnology, and chemicals, and in the food and pollution control laboratories, when performing the preparation purification of the samples and in the quality control of the tested samples.
It aids filtration and drying equipment added value by eliminating impurities and performing uniform drying that promotes the quality of the products outcome of the filtration and drying equipment hence, it enhances the quality of the outcome of the processes of the filtration and drying equipment associated labs.