FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W3119841765> ?p ?o ?g. }

• W3119841765 endingPage "1455" @default.
• W3119841765 startingPage "1448" @default.
• W3119841765 abstract "Purpose Pencil beam scanning (PBS) for moving targets is known to be impacted by interplay effects. Four‐dimensional computed tomography (4DCT)‐based motion evaluation is crucial for understanding interplay and developing mitigation strategies. Availability of high‐quality 4DCTs with variable breathing traces is limited. Purpose of this work is the development of a framework for interplay analysis using 4D‐XCAT phantoms in conjunction with time‐resolved irradiation patterns in a commercial treatment planning system (TPS). Four‐dimensional dynamically accumulated dose distributions (4DDDs) are simulated in an in‐silico study for a PBS liver treatment. Methods An XCAT phantom with 50 phases, varying linearly in amplitude each by 1 mm, was combined with the RayStation TPS (7.99.10). Deformable registration was used with time‐resolved dose calculation, mapping XCAT phases to motion signals. To illustrate the applicability of the method a two‐field liver irradiation plan was used. A variety sin 4 type motion signals, varying in amplitude (1–20 mm), period (1.6–5.2 s) and phase (0–2π) were applied. Either single variable variations or random combinations were selected. The interplay effect within a clinical target (5 cm diameter) was characterized in terms of homogeneity index (HI5), with and without five paintings. In total 2092 scenarios were analyzed within RayStation. Results A framework is presented for interplay research, allowing for flexibility in determining motion management techniques, increasing reproducibility, and enabling comparisons of different methods. A case study showed the interplay effect was correlated with amplitude and strongly affected by the starting phase, leading to large variance. The average of all scenarios (single fraction) resulted in HI5 of 0.31 (±0.11), while introduction of five times layered repainting reduced this to 0.11(±0.03). Conclusion The developed framework, which uses the XCAT phantom and RayStation, allows detailed analysis of motion in context of PBS with comparable results to clinical cases. Flexibility in defining motion patterns for detailed anatomies in combination with time‐resolved dose calculation, facilitates investigation of optimal treatment and motion mitigation strategies." @default.
• W3119841765 created "2021-01-18" @default.
• W3119841765 creator A5017612716 @default.
• W3119841765 creator A5021185943 @default.
• W3119841765 creator A5029682262 @default.
• W3119841765 creator A5057583620 @default.
• W3119841765 creator A5060465142 @default.
• W3119841765 creator A5073308940 @default.
• W3119841765 creator A5079830991 @default.
• W3119841765 date "2021-02-06" @default.
• W3119841765 modified "2023-09-23" @default.
• W3119841765 title "Technical Note: Investigating interplay effects in pencil beam scanning proton therapy with a 4D XCAT phantom within the RayStation treatment planning system" @default.
• W3119841765 cites W1535423844 @default.
• W3119841765 cites W1983281817 @default.
• W3119841765 cites W1983490139 @default.
• W3119841765 cites W1987134214 @default.
• W3119841765 cites W1995766420 @default.
• W3119841765 cites W2012350225 @default.
• W3119841765 cites W2024215494 @default.
• W3119841765 cites W2050335127 @default.
• W3119841765 cites W2053958583 @default.
• W3119841765 cites W2072249670 @default.
• W3119841765 cites W2084675397 @default.
• W3119841765 cites W2085956509 @default.
• W3119841765 cites W2101925277 @default.
• W3119841765 cites W2569166189 @default.
• W3119841765 cites W2616226761 @default.
• W3119841765 cites W2747840560 @default.
• W3119841765 cites W2796433413 @default.
• W3119841765 cites W2883352136 @default.
• W3119841765 cites W2897998635 @default.
• W3119841765 cites W2899046326 @default.
• W3119841765 cites W2900883120 @default.
• W3119841765 cites W2907953456 @default.
• W3119841765 cites W2951999577 @default.
• W3119841765 cites W3011226734 @default.
• W3119841765 cites W3014493403 @default.
• W3119841765 cites W3016076879 @default.
• W3119841765 cites W3097822442 @default.
• W3119841765 doi "https://doi.org/10.1002/mp.14709" @default.
• W3119841765 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/33411339" @default.
• W3119841765 hasPublicationYear "2021" @default.
• W3119841765 type Work @default.
• W3119841765 sameAs 3119841765 @default.
• W3119841765 citedByCount "4" @default.
• W3119841765 countsByYear W31198417652021 @default.
• W3119841765 countsByYear W31198417652022 @default.
• W3119841765 countsByYear W31198417652023 @default.
• W3119841765 crossrefType "journal-article" @default.
• W3119841765 hasAuthorship W3119841765A5017612716 @default.
• W3119841765 hasAuthorship W3119841765A5021185943 @default.
• W3119841765 hasAuthorship W3119841765A5029682262 @default.
• W3119841765 hasAuthorship W3119841765A5057583620 @default.
• W3119841765 hasAuthorship W3119841765A5060465142 @default.
• W3119841765 hasAuthorship W3119841765A5073308940 @default.
• W3119841765 hasAuthorship W3119841765A5079830991 @default.
• W3119841765 hasConcept C104293457 @default.
• W3119841765 hasConcept C105795698 @default.
• W3119841765 hasConcept C120665830 @default.
• W3119841765 hasConcept C121332964 @default.
• W3119841765 hasConcept C126838900 @default.
• W3119841765 hasConcept C168834538 @default.
• W3119841765 hasConcept C180205008 @default.
• W3119841765 hasConcept C19527891 @default.
• W3119841765 hasConcept C201645570 @default.
• W3119841765 hasConcept C2775881188 @default.
• W3119841765 hasConcept C2779244869 @default.
• W3119841765 hasConcept C2989005 @default.
• W3119841765 hasConcept C33923547 @default.
• W3119841765 hasConcept C41008148 @default.
• W3119841765 hasConcept C509974204 @default.
• W3119841765 hasConcept C71924100 @default.
• W3119841765 hasConcept C9893847 @default.
• W3119841765 hasConceptScore W3119841765C104293457 @default.
• W3119841765 hasConceptScore W3119841765C105795698 @default.
• W3119841765 hasConceptScore W3119841765C120665830 @default.
• W3119841765 hasConceptScore W3119841765C121332964 @default.
• W3119841765 hasConceptScore W3119841765C126838900 @default.
• W3119841765 hasConceptScore W3119841765C168834538 @default.
• W3119841765 hasConceptScore W3119841765C180205008 @default.
• W3119841765 hasConceptScore W3119841765C19527891 @default.
• W3119841765 hasConceptScore W3119841765C201645570 @default.
• W3119841765 hasConceptScore W3119841765C2775881188 @default.
• W3119841765 hasConceptScore W3119841765C2779244869 @default.
• W3119841765 hasConceptScore W3119841765C2989005 @default.
• W3119841765 hasConceptScore W3119841765C33923547 @default.
• W3119841765 hasConceptScore W3119841765C41008148 @default.
• W3119841765 hasConceptScore W3119841765C509974204 @default.
• W3119841765 hasConceptScore W3119841765C71924100 @default.
• W3119841765 hasConceptScore W3119841765C9893847 @default.
• W3119841765 hasIssue "3" @default.
• W3119841765 hasLocation W31198417651 @default.
• W3119841765 hasOpenAccess W3119841765 @default.
• W3119841765 hasPrimaryLocation W31198417651 @default.
• W3119841765 hasRelatedWork W1013145701 @default.
• W3119841765 hasRelatedWork W1180159252 @default.
• W3119841765 hasRelatedWork W1180489440 @default.
• W3119841765 hasRelatedWork W2471453549 @default.

• next