We have performed dosimetry studies using electron beams with energies up to 50 MeV, which exceed current clinical energy ranges and approaches the bottom end of the very high energy electron range. 50 MeV electron beams can reach deep-seated tumors. In contrast to photon beams, electron beams can be generated with ultra-high dose rates by linear accelerators, which could enable FLASH radiotherapy of deep-seated tumors. The response of radiochromic film and alanine is compared with dose measurements using an ionisation chamber. Energy dependence is not observed within the measurement uncertainty in the investigated energy range from 15 to 50 MeV
The purpose of this study was to evaluate very high energy electron beams in radiation therapy. Radi...
As an alternative modality to conventional radiotherapy, electrons with energies above 50 MeV penetr...
We describe a multicenter cross validation of ultra-high dose rate (UHDR) (>= 40 Gy/s) irradiatio...
We have performed dosimetry studies using electron beams with energies up to 50 MeV, which exceed cu...
We have performed dosimetry studies using electron beams with energies up to 50 MeV, which exceed cu...
High dose-rate radiotherapy, known as FLASH, has been shown to increase the differential response be...
High-energy electron beams in the range 150-250 MeV are studied to evaluate the feasibility for rad...
The FLASH effect designates normal tissue sparing at ultra-high dose rate (UHDR, >40 Gy/s) compar...
Very high energy electrons (VHEE) in the range from 100 to 250MeV have the potential of becoming an ...
As an alternative modality to conventional radiotherapy, electrons with energies above 50 MeV penetr...
Very high energy electrons (VHEEs) (100-250 MeV) have the potential of becoming an alternative modal...
Very high energy electrons (VHEEs) (100-250 MeV) have the potential of becoming an alternative modal...
We describe a multicenter cross validation of ultra-high dose rate (UHDR) (>= 40 Gy/s) irradiatio...
Very high energy electrons (VHEE) in the range from 100–250 MeV have the potential of becoming an a...
Very high energy electrons (VHEE) in the range from 100–250 MeV have the potential of becoming an a...
The purpose of this study was to evaluate very high energy electron beams in radiation therapy. Radi...
As an alternative modality to conventional radiotherapy, electrons with energies above 50 MeV penetr...
We describe a multicenter cross validation of ultra-high dose rate (UHDR) (>= 40 Gy/s) irradiatio...
We have performed dosimetry studies using electron beams with energies up to 50 MeV, which exceed cu...
We have performed dosimetry studies using electron beams with energies up to 50 MeV, which exceed cu...
High dose-rate radiotherapy, known as FLASH, has been shown to increase the differential response be...
High-energy electron beams in the range 150-250 MeV are studied to evaluate the feasibility for rad...
The FLASH effect designates normal tissue sparing at ultra-high dose rate (UHDR, >40 Gy/s) compar...
Very high energy electrons (VHEE) in the range from 100 to 250MeV have the potential of becoming an ...
As an alternative modality to conventional radiotherapy, electrons with energies above 50 MeV penetr...
Very high energy electrons (VHEEs) (100-250 MeV) have the potential of becoming an alternative modal...
Very high energy electrons (VHEEs) (100-250 MeV) have the potential of becoming an alternative modal...
We describe a multicenter cross validation of ultra-high dose rate (UHDR) (>= 40 Gy/s) irradiatio...
Very high energy electrons (VHEE) in the range from 100–250 MeV have the potential of becoming an a...
Very high energy electrons (VHEE) in the range from 100–250 MeV have the potential of becoming an a...
The purpose of this study was to evaluate very high energy electron beams in radiation therapy. Radi...
As an alternative modality to conventional radiotherapy, electrons with energies above 50 MeV penetr...
We describe a multicenter cross validation of ultra-high dose rate (UHDR) (>= 40 Gy/s) irradiatio...