The ancient art of mummification has long fascinated historians, anthropologists, and the general public alike. We know the process involved embalming to preserve the body – which was both a ritual and chemical process. But, several millennia later, understanding which compounds were used and why can be tricky.
Enter researchers from the UK and Germany, who conducted a biomolecular analysis of 31 ceramic vessels recovered from a 26th Dynasty (664–525 BC) embalming workshop in Saqqara, Egypt. A variety of products were identified, including plant oils, tars, resins, and animal fats – some with antibacterial, and antifungal properties that were likely chosen for their ability to preserve human tissue. Particularly, a resin exclusively found in Asian tropical forests was detected – called dammar – revealing the extensive trade networks needed for a successful embalming industry.
Sticking with ancient ceramics – and trade – five early bronze age ceramic bottles were analyzed from the archaeological site of Küllüoba in Anatolia, Turkey, in another recent study. GC-MS identified a mix of liquids, including dicarboxylic, oleic, and palmitic acids – suggestive of plant-based products. It was concluded that the ceramic bottles were likely vessels for the trade of commodities, such as medical ointments, and scented oils.
Ramer talks about the challenges facing AFM-IR, offers his secret to success, and presents a controversial opinion. “Black box hardware and closed-source software should have no place in science in general. That goes especially for analytical sciences, which often rely on complex commercial instruments.” Read on!
In One Ear, Out the Other Researchers have developed a smart-phone operated, near-infrared spectroscopy-based technique that detects the presence of malaria parasites. “Our method can screen thousands of people in a day and can successfully identify asymptomatic patients. This way, their treatment can be facilitated, and community transmission will be reduced.” Read on!
Arizona State University scientists pioneer a novel X-raying instrument – the compact X-ray light source – for a deeper, cellular level analysis of living things. Link
LC–MS/MS used to quantify eight different types of antidepressants in human serum with only a 20μL sample volume. Link
Researchers develop neural network model that uses terahertz time-domain spectroscopy to non-invasively triage burns – with a 93% accuracy rate of predicting burn healing outcomes. Link
Point-of-use biosensor identifies geogenic fluoride contamination in waterways – a real-world detection method to measure water quality, and safety. Link
Our Innovators are industry leaders, showcasing their latest analytical instruments, technologies, and software solutions. Take a look – you might just find something you didn’t know you needed!
The Analytical Lab of 2050: Data Management Our new series explores how technology and data trends will shape the analytical lab of the future. In this installment, Gary Grecsek, Vice President/General Manager PerkinElmer, OneSource, shares his thoughts on where laboratory data and services needs are heading. Read the article
Top 10s: The Old Guard As The Analytical Scientist turns 10, we look back at some of our earliest interviews – with several heroes of the field, including Fred McLafferty, Georges Guiochon, Eva Smolková-Keulemansová, and more analytical legends. Read the article
10 Year Views: David Clemmer David Clemmer discusses the decade’s most exciting developments, where he thinks the field will take us next, and some personal highlights. Read the article
Upcoming Brand Events
How to Overcome the Challenges of Analytical Data Management 02, March, 2023 | 10:00AM EST | Register now
PRODUCT PROFILE FROM HAMAMATSU
Make accurate UV-IR analysis with Xenon flash lamps
Hamamatsu offers high-quality, high-precision xenon flash lamps. Ideal for many applications including chemical analysis and imaging. High efficiency, high stability, low heat generation and long life.
The ancient art of mummification has long fascinated historians, anthropologists, and the general public alike. We know the process involved embalming to preserve the body – which was both a ritual and chemical process. But, several millennia later, understanding which compounds were used and why can be tricky.
Enter researchers from the UK and Germany, who conducted a biomolecular analysis of 31 ceramic vessels recovered from a 26th Dynasty (664–525 BC) embalming workshop in Saqqara, Egypt. A variety of products were identified, including plant oils, tars, resins, and animal fats – some with antibacterial, and antifungal properties that were likely chosen for their ability to preserve human tissue. Particularly, a resin exclusively found in Asian tropical forests was detected – called dammar – revealing the extensive trade networks needed for a successful embalming industry.
Sticking with ancient ceramics – and trade – five early bronze age ceramic bottles were analyzed from the archaeological site of Küllüoba in Anatolia, Turkey, in another recent study. GC-MS identified a mix of liquids, including dicarboxylic, oleic, and palmitic acids – suggestive of plant-based products. It was concluded that the ceramic bottles were likely vessels for the trade of commodities, such as medical ointments, and scented oils.
Ramer talks about the challenges facing AFM-IR, offers his secret to success, and presents a controversial opinion. “Black box hardware and closed-source software should have no place in science in general. That goes especially for analytical sciences, which often rely on complex commercial instruments.” Read on!
In One Ear, Out the Other Researchers have developed a smart-phone operated, near-infrared spectroscopy-based technique that detects the presence of malaria parasites. “Our method can screen thousands of people in a day and can successfully identify asymptomatic patients. This way, their treatment can be facilitated, and community transmission will be reduced.” Read on!
Arizona State University scientists pioneer a novel X-raying instrument – the compact X-ray light source – for a deeper, cellular level analysis of living things. Link
LC–MS/MS used to quantify eight different types of antidepressants in human serum with only a 20μL sample volume. Link
Researchers develop neural network model that uses terahertz time-domain spectroscopy to non-invasively triage burns – with a 93% accuracy rate of predicting burn healing outcomes. Link
Point-of-use biosensor identifies geogenic fluoride contamination in waterways – a real-world detection method to measure water quality, and safety. Link
Our Innovators are industry leaders, showcasing their latest analytical instruments, technologies, and software solutions. Take a look – you might just find something you didn’t know you needed!
The Analytical Lab of 2050: Data Management Our new series explores how technology and data trends will shape the analytical lab of the future. In this installment, Gary Grecsek, Vice President/General Manager PerkinElmer, OneSource, shares his thoughts on where laboratory data and services needs are heading. Read the article
Top 10s: The Old Guard As The Analytical Scientist turns 10, we look back at some of our earliest interviews – with several heroes of the field, including Fred McLafferty, Georges Guiochon, Eva Smolková-Keulemansová, and more analytical legends. Read the article
10 Year Views: David Clemmer David Clemmer discusses the decade’s most exciting developments, where he thinks the field will take us next, and some personal highlights. Read the article
Upcoming Brand Events
How to Overcome the Challenges of Analytical Data Management 02, March, 2023 | 10:00AM EST | Register now
PRODUCT PROFILE FROM HAMAMATSU
Make accurate UV-IR analysis with Xenon flash lamps
Hamamatsu offers high-quality, high-precision xenon flash lamps. Ideal for many applications including chemical analysis and imaging. High efficiency, high stability, low heat generation and long life.