In the field of human tissue-engineering, there has been a strong focus on the clinical aspects of the technology, i.e. repair, replace and enhance a given tissue/organ. However, much wider applications for tissue engineering (TE) exist outside of the clinic that are often not recognised, and include engineering more relevant models than animals in basic research and safety testing. Traditionally, research is initially conducted on animals or cell lines, both of which have their limitations. With regard to cell lines, they are usually transformed to enable indefinite proliferation. These immortalised cell lines provide the researcher with an almost limitless source of material. However, the pertinence of the data produced is now under scrut...
the principles of engineering (materials science and biomedical engineering) and the life sciences (...
Translation of novel discoveries to human disease is limited by the availability of human tissue-bas...
Engineered models have emerged as relevant in vitro tools to foresee the translational potential of ...
In the field of human tissue-engineering, there has been a strong focus on the clinical aspects of t...
Scientists routinely work within the three R's principles of 'Reduction, Refinement and Replacement'...
Respiratory tract specific cell populations, or tissue engineered in vitro grown human lung, have th...
The hypes and hopes of tissue engineering and associated efforts of researchers to succeed in this a...
Respiratory diseases account for over 5 million deaths yearly and are a huge burden to health-care s...
Stem cell technologies, especially patient-specific, induced stem cell pluripotency and directed dif...
With the advent of biobanks to store human lung cells and tissues from patient donations and from th...
The respiratory system acts as a portal into the human body for airborne materials, which may gain ...
Destructive respiratory diseases are predicted to become the 3rd global cause of morbidity and morta...
the principles of engineering (materials science and biomedical engineering) and the life sciences (...
Translation of novel discoveries to human disease is limited by the availability of human tissue-bas...
Engineered models have emerged as relevant in vitro tools to foresee the translational potential of ...
In the field of human tissue-engineering, there has been a strong focus on the clinical aspects of t...
Scientists routinely work within the three R's principles of 'Reduction, Refinement and Replacement'...
Respiratory tract specific cell populations, or tissue engineered in vitro grown human lung, have th...
The hypes and hopes of tissue engineering and associated efforts of researchers to succeed in this a...
Respiratory diseases account for over 5 million deaths yearly and are a huge burden to health-care s...
Stem cell technologies, especially patient-specific, induced stem cell pluripotency and directed dif...
With the advent of biobanks to store human lung cells and tissues from patient donations and from th...
The respiratory system acts as a portal into the human body for airborne materials, which may gain ...
Destructive respiratory diseases are predicted to become the 3rd global cause of morbidity and morta...
the principles of engineering (materials science and biomedical engineering) and the life sciences (...
Translation of novel discoveries to human disease is limited by the availability of human tissue-bas...
Engineered models have emerged as relevant in vitro tools to foresee the translational potential of ...