Cocrystallization of lenvatinib and temozolomide to improve the performance in terms of stability, dissolution, and tabletability

Two anti-melanoma drugs, lenvatinib and temozolomide, were cocrystallized to obtain two drug-drug cocrystal solvates, TMZ-LEN·MeOH (1 : 1 : 1) and TMZ-LEN·EtOH (1 : 1 : 1). They were fully characterized by XRD and thermal analyses, NMR and FTIR spectroscopy. The crystal structure of TMZ-LEN·MeOH sho...

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Published inCrystEngComm Vol. 25; no. 29; pp. 4189 - 4198
Main Authors Wang, Zhi-Qing, Dai, Xia-Lin, Gu, Dai-Lin, Wu, Chao, Lu, Tong-Bu, Long, Xiang-Tian, Chen, Jia-Mei
Format Journal Article
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Published Cambridge Royal Society of Chemistry 24.07.2023
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Abstract Two anti-melanoma drugs, lenvatinib and temozolomide, were cocrystallized to obtain two drug-drug cocrystal solvates, TMZ-LEN·MeOH (1 : 1 : 1) and TMZ-LEN·EtOH (1 : 1 : 1). They were fully characterized by XRD and thermal analyses, NMR and FTIR spectroscopy. The crystal structure of TMZ-LEN·MeOH shows that LEN is simultaneously linked to TMZ and methanol via hydrogen bonding interactions. Stability, dissolution and compaction evaluations highlight that the formation of the drug-drug cocrystal not only improves the physicochemical stability and tabletability of TMZ, but also optimizes the dissolution behavior of LEN and TMZ, respectively. Therefore, TMZ-LEN·MeOH and TMZ-LEN·EtOH have great potential to be developed as a drug combination, which will address the problematic properties of LEN and TMZ, for the treatment of melanoma patients with brain metastases. Cocrystallization of two anti-melanoma drugs, lenvatinib and temozolomide, resulted in two drug-drug cocrystal solvates presenting improved performance in terms of stability, dissolution, and tabletability, which show great potential to be developed as a drug combination.
AbstractList Two anti-melanoma drugs, lenvatinib and temozolomide, were cocrystallized to obtain two drug-drug cocrystal solvates, TMZ-LEN·MeOH (1 : 1 : 1) and TMZ-LEN·EtOH (1 : 1 : 1). They were fully characterized by XRD and thermal analyses, NMR and FTIR spectroscopy. The crystal structure of TMZ-LEN·MeOH shows that LEN is simultaneously linked to TMZ and methanol via hydrogen bonding interactions. Stability, dissolution and compaction evaluations highlight that the formation of the drug-drug cocrystal not only improves the physicochemical stability and tabletability of TMZ, but also optimizes the dissolution behavior of LEN and TMZ, respectively. Therefore, TMZ-LEN·MeOH and TMZ-LEN·EtOH have great potential to be developed as a drug combination, which will address the problematic properties of LEN and TMZ, for the treatment of melanoma patients with brain metastases. Cocrystallization of two anti-melanoma drugs, lenvatinib and temozolomide, resulted in two drug-drug cocrystal solvates presenting improved performance in terms of stability, dissolution, and tabletability, which show great potential to be developed as a drug combination.
Two anti-melanoma drugs, lenvatinib and temozolomide, were cocrystallized to obtain two drug–drug cocrystal solvates, TMZ–LEN·MeOH (1 : 1 : 1) and TMZ–LEN·EtOH (1 : 1 : 1). They were fully characterized by XRD and thermal analyses, NMR and FTIR spectroscopy. The crystal structure of TMZ–LEN·MeOH shows that LEN is simultaneously linked to TMZ and methanol via hydrogen bonding interactions. Stability, dissolution and compaction evaluations highlight that the formation of the drug–drug cocrystal not only improves the physicochemical stability and tabletability of TMZ, but also optimizes the dissolution behavior of LEN and TMZ, respectively. Therefore, TMZ–LEN·MeOH and TMZ–LEN·EtOH have great potential to be developed as a drug combination, which will address the problematic properties of LEN and TMZ, for the treatment of melanoma patients with brain metastases.
Two anti-melanoma drugs, lenvatinib and temozolomide, were cocrystallized to obtain two drug–drug cocrystal solvates, TMZ–LEN·MeOH (1 : 1 : 1) and TMZ–LEN·EtOH (1 : 1 : 1). They were fully characterized by XRD and thermal analyses, NMR and FTIR spectroscopy. The crystal structure of TMZ–LEN·MeOH shows that LEN is simultaneously linked to TMZ and methanol via hydrogen bonding interactions. Stability, dissolution and compaction evaluations highlight that the formation of the drug–drug cocrystal not only improves the physicochemical stability and tabletability of TMZ, but also optimizes the dissolution behavior of LEN and TMZ, respectively. Therefore, TMZ–LEN·MeOH and TMZ–LEN·EtOH have great potential to be developed as a drug combination, which will address the problematic properties of LEN and TMZ, for the treatment of melanoma patients with brain metastases.
Author Wang, Zhi-Qing
Wu, Chao
Dai, Xia-Lin
Chen, Jia-Mei
Gu, Dai-Lin
Lu, Tong-Bu
Long, Xiang-Tian
AuthorAffiliation Tasly Academy
Institute for New Energy Materials and Low Carbon Technologies
School of Materials Science and Engineering
Tianjin University of Technology
Tasly Holding Group Co., Ltd
School of Chemistry and Chemical Engineering
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Snippet Two anti-melanoma drugs, lenvatinib and temozolomide, were cocrystallized to obtain two drug-drug cocrystal solvates, TMZ-LEN·MeOH (1 : 1 : 1) and TMZ-LEN·EtOH...
Two anti-melanoma drugs, lenvatinib and temozolomide, were cocrystallized to obtain two drug–drug cocrystal solvates, TMZ–LEN·MeOH (1 : 1 : 1) and TMZ–LEN·EtOH...
Two anti-melanoma drugs, lenvatinib and temozolomide, were cocrystallized to obtain two drug–drug cocrystal solvates, TMZ–LEN·MeOH (1 : 1 : 1) and TMZ–LEN·EtOH...
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SubjectTerms Crystal structure
Dissolution
Hydrogen bonding
NMR
Nuclear magnetic resonance
Stability analysis
Title Cocrystallization of lenvatinib and temozolomide to improve the performance in terms of stability, dissolution, and tabletability
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