Eppendorf™ is a leading life science company that develops instruments, consumables and services for handling liquids, samples and cells in laboratories worldwide – with the commitment to deliver the best solution for managing your most precious research. Did you know that in 1961, Eppendorf launched the world’s first industrial manufactured piston-stroke pipette? So, every piston-stroke pipette in the world has carried Eppendorf DNA – for 60 years.
The Eppendorf product range includes pipettes and automated pipetting systems, dispensers, centrifuges, mixers, spectrometers and DNA amplification equipment, as well as ultra-low temperature freezers, fermenters, bioreactors, CO2 incubators, shakers and cell manipulation systems. Consumables such as pipette tips, test tubes, microtitre plates and single-use bioreactor vessels complement the range of highest-quality premium products.
Eppendorf products are used widely in academic and commercial research laboratories, especially within the pharmaceutical, biotechnological, chemical and food sectors. The Eppendorf range is also perfect for clinical, forensic and environmental laboratories, and also the wider industrial environment wherever process analysis, production and quality assurance protocols are being performed.
Accuracy, reliability, experience, innovation - characteristics that customers all over the world associate with Eppendorf.
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We know and value the immense amount of work done in pharma laboratories around the world, which is why we offer a wide product and service portfolio that enables concentrated, relaxed work tailored to your specific needs.
Whether it's mAb drug discovery or vaccine research, we help you to find the solutions you need to stay ahead in the market.
The pharmaceutical laboratory is subject to many regulations. Our solutions support you in documentation, quality management and monitoring of devices and conditions.
GxP documentation support for antigen concentration, hybridoma, PBMC isolation or FACS.
Included accessories:
+ Rotor S-4x universal with buckets
+ 4 x 5/15/plate adapter
+ 4 x 50/250/plate adapter
Identify, store and document all samples of your mAb workflow.
High capacity freezer with touchscreen interface, green cooling liquids and high capacity for bulk sample storage.
Recommended accessories:
+ Freezer rack for 53 mm/2 in boxes (3-compartment, MAX)
+ Cryostorage vials (0.5/1.0/1.5/2.0mL)
Maximum efficiency at every step paves the way for a timely market launch. Eppendorf‘s solutions are designed to streamline and accelerate your mAb workflow and establish scalable processes.
For molecular biology methods.
Basic Solution
Eppendorf Research™ plus
+ Eppendorf Research™ plus Move It™
Advanced Solution
Eppendorf Xplorer™ plus
+ Eppendorf Xplorer™ plus Move It™
For high-throughput screening assays.
Recommended accessories:
+ Universal platform
+ Microplate holder
+ Clamps: 3 x 125mL, 3 x 250mL, 3 x 500mL, 3 x 1L
Reliable quality is fundamental, as repetition is sometimes not an option. Our solutions and services help you to rely on the safety and integrity of your samples, on the performance of your devices and on the accuracy of your results.
For large scale expression in cell lines or bacteria.
Included accessories:
+ Rotor S-4x Universal with buckets
+ 4 x 1L adapter
+ 4 x 1L bottle
For hybridoma, expression of antibodies and cell line establishment.
Included accessories:
+ Universal platform
+ Sticky pad
Are you looking for a stackable incubator shaker for particularly high protein expression yields in bacteria or yeast to quickly reach your ambitious targets? The Innova S44i from Eppendorf offers high vessel capacity and can sustain high speeds and loads 24/7.
Current microbiological DNA and protein expression protocols lead to optimised yields with specialised flasks at shaking speeds of up to 400 rpm (e.g. Ultra Yield flasks from Thomson Instrument). Compared to other shakers in the market, the Innova S44i can provide and sustain high speeds at an orbit of 2.5cm (1 inch) 24/7 with maximum platform loads. This makes the Innova S44i a real workhorse for protein production. You can further increase your yield per footprint by triple-stacking the device.
Platform, chamber, and the heavy duty Eppendorf X-drive of the Innova S44i are optimised for high vessel capacity and load – to maximise the throughput of your lab. If vessel capacity is crucial for you, compare the capacity of the Innova S44i with other shakers in the market. Of course, the Innova S44i is also compatible with online in-flask monitoring systems like CGQ (by aquila biolabs) or PreSens, and microplate-screening systems like the Duetz-System.
We don’t know what will come. But we know that you will find out. Together we can look towards a future that inspires and improves people´s living conditions.
Are you familiar with the varied selection of Eppendorf products for applications in the modern cell biology laboratory?
No matter what your lab or applications, the Eppendorf ThermoMixer family integrates into your workflow with ease. Improve your assay results by mixing and incubating your samples at the same time – with highest vessel flexibility.
Transforming science for tomorrow: Watch how the University of East London keeps their position as one of the most modern universities in the UK - with Eppendorf at their side.
Are you familiar with the varied selection of Eppendorf products for applications in the modern molecular biology laboratory?
Pipetting seems easy, but some tips and tricks can help you to get consistent and reproducible results - even with difficult liquids.
Nowadays, PCR can be robust and easy—but you can still run into difficulties. Make sure to get the most out of your PCR with some simple tricks.
Aerosols are colloidal systems of droplets and / or solid particles suspended in air. Aerosols can be found almost everywhere in the world and we inhale them continuously, so we should differentiate between harmful and harmless aerosols. The most important aerosols in the laboratory environment are bio-aerosols.
The influence of calcium on insuline production
Sandra dedicates her PhD studies to revolving pancreatic beta cells and their function. These are the only cells in the body that produce insulin and they are involved in the task of maintaining homeostasis in a healthy metabolism. Her main method is functional imaging of intracellular calcium by microscopy. Intracellular calcium is directly coupled to the amount of secreted insulin and her daily tasks involve investigating different scenarios by incubating the cells in different solutions and then checking on the amount of secreted insulin. She spends days, nights, and weekends at the microscope. In a special case, changing the pH value led to valuable information on the amount of secretion.
Climate changes affect not only species above soil, but also marine species
In Archi’s time as a Bachelors and now current Masters student of biochemistry she had the chance to dive into multiple topics finding her heart beating for marine science. One project on coral species gave her deep insight into marine biology, ecology, and the issue of coral bleaching. Together with a national marine research group she investigated climate effects on corals losing their fluorescence and the effects on marine life. Since then, her vision is to work for more understanding of ecosystems and a better treatment of our environment.
Anja’s main goal as a post-doc is to reduce the effects of global warming starting with small organisms – bacteria. Her scientific project is about studying the metabolism of hydrogen and carbon dioxide converting bacteria. Naturally these bacteria produce acetates and the aim of her studies is to genetically modify these bacteria to produce valuable chemicals, such as ethanol or lactates, from industrial carbon dioxide output.
Elaine is aiming to convert biomass into usable chemicals. In her post-doctoral research she converts, extracts, hydrolyses, and depolymerizes natural biopolymers, such as cellulose and lignin with water to capture building block monomers and convert them into bio-based, value-added products. For example, cellulose can be transformed into fermentable sugars such as glucose and fructose. Fatty acids can also be retrieved from other compounds to be used for bioplastics or the retrieval of bio-ethanol.
The platform molecules shall be used as a substitute for petroleum-based molecules. A very special technique for making these compounds available without using organic chemicals is applied. Elaine uses water-based extraction methods by manipulating the properties of water to supercritical conditions, allowing her to extract biopolymers while keeping the natural structure that would have been lost on raising the boiling point in chemical solvents. The working group acts in close cooperation with industry partners.
In one of the most crowded countries in the world, India, airborne ultrafine particulate matter can lead to multiple diseases. This phenomenon is present in almost any large city arond the globe. Dr. Mishra and his team search for low-cost nano biosensors to predict future disease susceptibility. They want to reduce "the burden of environmental associated non-communicable diseases". Dr. Mishra became a scientist because he truly loves raw science and is motivated to help the poorest people in the world. Read his interview to get more details.
1. Please introduce yourself
My name is Dr. Pradyumna Kumar Mishra. I am working as a Scientist-F (Deputy Director) and head of the Department of Molecular Biology at the ICMR – National Institute for Research in Environmental Health (NIREH) in Bhopal, India.
I am leading a working group with more than 20 people. We work in the area of Environmental Health with special emphasis on airborne particulate matter associated human pathologies. Air pollution is a decisive risk factor for human health and disease and contributes more to global morbidity and mortality than all the other combined environmental risk factors. In 2019, air pollution (both household and ambient air pollution) remained responsible for causing 6.7 million deaths.
2. What is your scientific project about? What are you working on?
We are making concerted efforts towards delineating a novel role of mitochondrial-induced epigenetic modifications in exposure to airborne ultrafine particulate matter (PM0.1) consisting of black carbon, heavy metals, and polycyclic aromatic hydrocarbons. Physico-chemical properties are being examined with the help of analytical tools and technologies, with the aim of developing low-cost nano-biosensors for predicting future disease susceptibility. The optical nano-biosensors we use primarily consist of semi-conductor nanocrystals (inorganic QDS, organic QDs, and QDSs synthesized using green chemistry synthesis protocols). We employ click-chemistry to conjugate specific custom synthesized probes which recognize different types of cell-free circulating nucleic acids like methylated DNA, micro RNA, lncRNA, and mitochondrial DNA in plasma and serum as bio-matrix (well characterized biomarkers with defined physico-chemical and structural attributes).
3. What do you want to achieve with your project?
The overarching objective of our research group is to create low-cost nano-biosensors that will help to integrate advances in bioengineering and clinical research across translational boundaries from the laboratory to the clinic, and to the community and back, for reducing the burden of environmental associated non-communicable diseases.
4. What would help you to reach your goal?
Uninterrupted flow of extra-mural project funding support.
5. How is working for your institute and with your lab group?
Excellent, we work as a team. We have active collaborations with scientists from the Russian Federation, Poland, Belgium, Canada, and South Africa. Exchange visits (both ways) under bilateral agreement is routinely done.
6. What motivated you to become a scientist? And why this field?
I strongly believe that science is a tool for the benefit of humanity. Though my initial motivation was a raw love for science.
7. What did you imagine being a scientist is like? Is it like you imagined?
I feel blessed. Driven by a sense of duty, I continue to work hard towards fulfilling my objective.
8. What does your heart beat for in science?
Empowering the poorest people on the planet by helping in some form to eradicate non-communicable diseases.
9. Which are your main tasks in daily lab life?
As the Senior Basic Scientist and Group Leader, I perform several duties. Critical experiments pertaining to standardization and validation of assays are primarily done by me. I prepare the SoP, validate, and subsequently pass-on to my lab colleagues.
10. What do you dislike about the scientific world?
Funding crunch.
11. What do you dislike about your project?
I sometimes wonder whether my research would have direct impact on people’s lives, in the long-term.
12. Which job in a lab do you dislike most?
Nothing specific.
13. What do you like to do most in your lab?
Leading the research team, problem solving, conceptualizing novel ideas and work implementation.
14. How do you imagine your future in science / academics? What is your vision?
To create a Centre of Excellence in Translational Research with the following focus:
... and get the chance to be a part of the faces of science in the header image for Eppendorf. Please also describe your project if you want to give an interview and let the world know what you contribute to science.
