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2. 2021 roadmap for sodium-ion batteries

Author

Tapia-Ruiz, N., Armstrong, A.R., Alptekin, H., Amores, M.A., Au, H., Barker, J., Boston, R., Brant, W.R., Brittain, J.M., Chen, Y., Chhowalla, M., Choi, Y.-S., Costa, S.I.R., Ribadeneyra, M.C., Cussen, S.A., Cussen, E.J., David, W.I.F., Desai, A.V., Dickson, S.A.M., Eweka, E.I., Forero-Saboya, J.D., Grey, C.P., Griffin, J.M., Gross, P., Hua, X., Irvine, J.T.S., Johansson, P., Jones, M.O., Karlsmo, M., Kendrick, E., Kim, E., Kolosov, O.V., Li, Z., Mertens, S.F.L., Mogensen, R., Monconduit, L., Morris, R.E., Naylor, A.J., Nikman, S., O'Keefe, C.A., Ould, D.M.C., Palgrave, R.G., Poizot, P., Ponrouch, A., Renault, S., Reynolds, E.M., Rudola, A., Sayers, R., Scanlon, D.O., Sen, S., Seymour, V.R., Silván, B., Sougrati, M.T., Stievano, L., Stone, G.S., Thomas, C.I., Titirici, M.-M., Tong, J., Wood, T.J., Wright, D.S., Younesi, R., Tapia-Ruiz, N., Armstrong, A.R., Alptekin, H., Amores, M.A., Au, H., Barker, J., Boston, R., Brant, W.R., Brittain, J.M., Chen, Y., Chhowalla, M., Choi, Y.-S., Costa, S.I.R., Ribadeneyra, M.C., Cussen, S.A., Cussen, E.J., David, W.I.F., Desai, A.V., Dickson, S.A.M., Eweka, E.I., Forero-Saboya, J.D., Grey, C.P., Griffin, J.M., Gross, P., Hua, X., Irvine, J.T.S., Johansson, P., Jones, M.O., Karlsmo, M., Kendrick, E., Kim, E., Kolosov, O.V., Li, Z., Mertens, S.F.L., Mogensen, R., Monconduit, L., Morris, R.E., Naylor, A.J., Nikman, S., O'Keefe, C.A., Ould, D.M.C., Palgrave, R.G., Poizot, P., Ponrouch, A., Renault, S., Reynolds, E.M., Rudola, A., Sayers, R., Scanlon, D.O., Sen, S., Seymour, V.R., Silván, B., Sougrati, M.T., Stievano, L., Stone, G.S., Thomas, C.I., Titirici, M.-M., Tong, J., Wood, T.J., Wright, D.S., and Younesi, R.

Abstract

Increasing concerns regarding the sustainability of lithium sources, due to their limited availability and consequent expected price increase, have raised awareness of the importance of developing alternative energy-storage candidates that can sustain the ever-growing energy demand. Furthermore, limitations on the availability of the transition metals used in the manufacturing of cathode materials, together with questionable mining practices, are driving development towards more sustainable elements. Given the uniformly high abundance and cost-effectiveness of sodium, as well as its very suitable redox potential (close to that of lithium), sodium-ion battery technology offers tremendous potential to be a counterpart to lithium-ion batteries (LIBs) in different application scenarios, such as stationary energy storage and low-cost vehicles. This potential is reflected by the major investments that are being made by industry in a wide variety of markets and in diverse material combinations. Despite the associated advantages of being a drop-in replacement for LIBs, there are remarkable differences in the physicochemical properties between sodium and lithium that give rise to different behaviours, for example, different coordination preferences in compounds, desolvation energies, or solubility of the solid-electrolyte interphase inorganic salt components. This demands a more detailed study of the underlying physical and chemical processes occurring in sodium-ion batteries and allows great scope for groundbreaking advances in the field, from lab-scale to scale-up. This roadmap provides an extensive review by experts in academia and industry of the current state of the art in 2021 and the different research directions and strategies currently underway to improve the performance of sodium-ion batteries. The aim is to provide an opinion with respect to the current challenges and opportunities, from the fundamental properties to the practical applications of this technology.

Published
2021

3. 2021 roadmap for sodium-ion batteries

Author

Tapia-Ruiz, N, Armstrong, AR, Alptekin, H, Amores, MA, Au, H, Barker, J, Boston, R, Brant, WR, Brittain, JM, Chen, Y, Chhowalla, M, Choi, YS, Costa, SIR, Ribadeneyra, MC, Cussen, SA, Cussen, EJ, David, WIF, Desai, AV, Dickson, SAM, Eweka, EI, Forero-Saboya, JD, Grey, CP, Griffin, JM, Gross, P, Hua, X, Irvine, JTS, Johansson, P, Jones, MO, Karlsmo, M, Kendrick, E, Kim, E, Kolosov, OV, Li, Z, Mertens, SFL, Mogensen, R, Monconduit, L, Morris, RE, Naylor, AJ, Nikman, S, O'Keefe, CA, Ould, DMC, Palgrave, RG, Poizot, P, Ponrouch, A, Renault, S, Reynolds, EM, Rudola, A, Sayers, R, Scanlon, DO, Sen, S, Seymour, VR, Silván, B, Sougrati, MT, Stievano, L, Stone, GS, Thomas, CI, Titirici, MM, Tong, J, Wood, TJ, Wright, DS, and Younesi, R

Subjects
energy materials, batteries, 13. Climate action, anodes, sodium ion, electrolytes, 7. Clean energy, cathodes
Abstract

Increasing concerns regarding the sustainability of lithium sources, due to their limited availability and consequent expected price increase, have raised awareness of the importance of developing alternative energy-storage candidates that can sustain the ever-growing energy demand. Furthermore, limitations on the availability of the transition metals used in the manufacturing of cathode materials, together with questionable mining practices, are driving development towards more sustainable elements. Given the uniformly high abundance and cost-effectiveness of sodium, as well as its very suitable redox potential (close to that of lithium), sodium-ion battery technology offers tremendous potential to be a counterpart to lithium-ion batteries (LIBs) in different application scenarios, such as stationary energy storage and low-cost vehicles. This potential is reflected by the major investments that are being made by industry in a wide variety of markets and in diverse material combinations. Despite the associated advantages of being a drop-in replacement for LIBs, there are remarkable differences in the physicochemical properties between sodium and lithium that give rise to different behaviours, for example, different coordination preferences in compounds, desolvation energies, or solubility of the solid–electrolyte interphase inorganic salt components. This demands a more detailed study of the underlying physical and chemical processes occurring in sodium-ion batteries and allows great scope for groundbreaking advances in the field, from lab-scale to scale-up. This roadmap provides an extensive review by experts in academia and industry of the current state of the art in 2021 and the different research directions and strategies currently underway to improve the performance of sodium-ion batteries. The aim is to provide an opinion with respect to the current challenges and opportunities, from the fundamental properties to the practical applications of this technology.

4. 2021 roadmap for sodium-ion batteries

Author

John T. S. Irvine, Emma Kendrick, Valerie R. Seymour, Aamod V. Desai, Edmund J. Cussen, Peter Gross, Andrew J. Naylor, Maria-Magdalena Titirici, Jake M. Brittain, Rebecca Boston, Ruth Sayers, Stewart A. M. Dickson, Sudeshna Sen, Sara I. R. Costa, Zhuangnan Li, Ashish Rudola, Heather Au, Dominic S. Wright, Nuria Tapia-Ruiz, Yongseok Choi, Hande Alptekin, John M. Griffin, Martin O. Jones, Marco Amores, Shahin Nikman, Eun Jeong Kim, A. Robert Armstrong, Reza Younesi, Maria Crespo Ribadeneyra, Laure Monconduit, William I. F. David, Christopher I Thomas, Patrik Johansson, Serena A. Cussen, Grant S. Stone, Jincheng Tong, Russell E. Morris, Clare P. Grey, Alexandre Ponrouch, Oleg Kolosov, Emmanuel I. Eweka, Darren M. C. Ould, Robert G. Palgrave, Thomas J. Wood, Yue Chen, Jerry Barker, Ronnie Mogensen, Stijn F. L. Mertens, Philippe Poizot, Juan Forero-Saboya, David O. Scanlon, Manish Chhowalla, Lorenzo Stievano, Emily M. Reynolds, Xiao Hua, Moulay Tahar Sougrati, William R. Brant, Martin Karlsmo, Stéven Renault, Christopher A. O’Keefe, Begoña Silván, Lancaster University, Harwell Science and Innovation Campus, Imperial College London, University of Sheffield [Sheffield], Faradion Limited, University of Virginia [Charlottesville], University of Oxford [Oxford], University of Cambridge [UK] (CAM), University College of London [London] (UCL), University of St Andrews [Scotland], AUTRES, Institut de Ciència de Materials de Barcelona (ICMAB-CSIC), Chalmers University of Technology [Gothenburg, Sweden], Science and Technology Facilities Council (STFC), University of Birmingham [Birmingham], Uppsala University, Institut Charles Gerhardt Montpellier - Institut de Chimie Moléculaire et des Matériaux de Montpellier (ICGM ICMMM), Ecole Nationale Supérieure de Chimie de Montpellier (ENSCM)-Centre National de la Recherche Scientifique (CNRS)-Université de Montpellier (UM)-Université Montpellier 1 (UM1)-Université Montpellier 2 - Sciences et Techniques (UM2)-Institut de Chimie du CNRS (INC), Réseau sur le stockage électrochimique de l'énergie (RS2E), Université de Picardie Jules Verne (UPJV)-Institut de Chimie du CNRS (INC)-Aix Marseille Université (AMU)-Université de Pau et des Pays de l'Adour (UPPA)-Université de Nantes (UN)-Université de Montpellier (UM)-Centre National de la Recherche Scientifique (CNRS)-Sorbonne Université (SU)-Ecole Nationale Supérieure de Chimie de Paris - Chimie ParisTech-PSL (ENSCP), Université Paris sciences et lettres (PSL)-Université Paris sciences et lettres (PSL)-Université de Haute-Alsace (UHA) Mulhouse - Colmar (Université de Haute-Alsace (UHA))-Collège de France (CdF (institution))-Institut polytechnique de Grenoble - Grenoble Institute of Technology (Grenoble INP ), Université Grenoble Alpes (UGA)-Université Grenoble Alpes (UGA)-Institut National Polytechnique (Toulouse) (Toulouse INP), Université Fédérale Toulouse Midi-Pyrénées-Université Fédérale Toulouse Midi-Pyrénées-Ecole Nationale Supérieure de Chimie de Montpellier (ENSCM), Institut des Matériaux Jean Rouxel (IMN), Université de Nantes - UFR des Sciences et des Techniques (UN UFR ST), Université de Nantes (UN)-Université de Nantes (UN)-Centre National de la Recherche Scientifique (CNRS)-Institut de Chimie du CNRS (INC)-Ecole Polytechnique de l'Université de Nantes (EPUN), Université de Nantes (UN)-Université de Nantes (UN), Alistore, European Commission, Swedish Research Council, Swedish Energy Agency, Swedish Research Council for Environment, Agricultural Sciences and Spatial Planning, Ministerio de Economía, Industria y Competitividad (España), Faraday Institution, Austrian Science Fund, Innovate UK, Tapia-Ruiz, Nuria [0000-0002-5005-7043], Armstrong, A Robert [0000-0003-1937-0936], Alptekin, Hande [0000-0001-6065-0513], Au, Heather [0000-0002-1652-2204], Barker, Jerry [0000-0002-8791-1119], Brant, William R [0000-0002-8658-8938], Choi, Yong-Seok [0000-0002-3737-2989], Costa, Sara I R [0000-0001-8105-207X], Crespo Ribadeneyra, Maria [0000-0001-6455-4430], Cussen, Serena A [0000-0002-9303-4220], Desai, Aamod V [0000-0001-7219-3428], Forero-Saboya, Juan D [0000-0002-3403-6066], Griffin, John M [0000-0002-8943-3835], Irvine, John T S [0000-0002-8394-3359], Johansson, Patrik [0000-0002-9907-117X], Karlsmo, Martin [0000-0002-0437-6860], Kendrick, Emma [0000-0002-4219-964X], Kolosov, Oleg V [0000-0003-3278-9643], Mertens, Stijn F L [0000-0002-5715-0486], Monconduit, Laure [0000-0003-3698-856X], Naylor, Andrew J [0000-0001-5641-7778], Poizot, Philippe [0000-0003-1865-4902], Renault, Stéven [0000-0002-6500-0015], Rudola, Ashish [0000-0001-9368-0698], Sayers, Ruth [0000-0003-1289-0998], Seymour, Valerie R [0000-0003-3333-5512], Silván, Begoña [0000-0002-1273-3098], Sougrati, Moulay Tahar [0000-0003-3740-2807], Stievano, Lorenzo [0000-0001-8548-0231], Thomas, Chris I [0000-0001-8090-4541], Titirici, Maria-Magdalena [0000-0003-0773-2100], Tong, Jincheng [0000-0001-7762-1460], Wood, Thomas J [0000-0002-5893-5664], Younesi, Reza [0000-0003-2538-8104], Apollo - University of Cambridge Repository, Kim, Eunjeong [0000-0002-2941-068], Kim, Eunjeong [0000-0002-2941-0682], University of Virginia, University of Oxford, Institut Charles Gerhardt Montpellier - Institut de Chimie Moléculaire et des Matériaux de Montpellier (ICGM), Ecole Nationale Supérieure de Chimie de Montpellier (ENSCM)-Institut de Chimie du CNRS (INC)-Université de Montpellier (UM)-Centre National de la Recherche Scientifique (CNRS), Université de Nantes (UN)-Aix Marseille Université (AMU)-Université de Haute-Alsace (UHA) Mulhouse - Colmar (Université de Haute-Alsace (UHA))-Collège de France (CdF (institution))-Université de Picardie Jules Verne (UPJV)-Ecole Nationale Supérieure de Chimie de Montpellier (ENSCM)-Ecole Nationale Supérieure de Chimie de Paris - Chimie ParisTech-PSL (ENSCP), Université Paris sciences et lettres (PSL)-Université Paris sciences et lettres (PSL)-Université de Pau et des Pays de l'Adour (UPPA)-Institut de Chimie du CNRS (INC)-Université de Montpellier (UM)-Sorbonne Université (SU)-Centre National de la Recherche Scientifique (CNRS)-Institut National Polytechnique (Toulouse) (Toulouse INP), Université de Toulouse (UT)-Université de Toulouse (UT)-Institut polytechnique de Grenoble - Grenoble Institute of Technology (Grenoble INP ), Université Grenoble Alpes (UGA)-Université Grenoble Alpes (UGA), Université de Nantes (UN)-Université de Nantes (UN)-Ecole Polytechnique de l'Université de Nantes (EPUN), Université de Nantes (UN)-Université de Nantes (UN)-Institut de Chimie du CNRS (INC)-Centre National de la Recherche Scientifique (CNRS), Tapia-Ruiz, N [0000-0002-5005-7043], Armstrong, AR [0000-0003-1937-0936], Alptekin, H [0000-0001-6065-0513], Au, H [0000-0002-1652-2204], Barker, J [0000-0002-8791-1119], Brant, WR [0000-0002-8658-8938], Choi, YS [0000-0002-3737-2989], Costa, SIR [0000-0001-8105-207X], Ribadeneyra, MC [0000-0001-6455-4430], Cussen, SA [0000-0002-9303-4220], Desai, AV [0000-0001-7219-3428], Forero-Saboya, JD [0000-0002-3403-6066], Griffin, JM [0000-0002-8943-3835], Irvine, JTS [0000-0002-8394-3359], Johansson, P [0000-0002-9907-117X], Karlsmo, M [0000-0002-0437-6860], Kendrick, E [0000-0002-4219-964X], Kolosov, OV [0000-0003-3278-9643], Mertens, SFL [0000-0002-5715-0486], Monconduit, L [0000-0003-3698-856X], Naylor, AJ [0000-0001-5641-7778], Poizot, P [0000-0003-1865-4902], Renault, S [0000-0002-6500-0015], Rudola, A [0000-0001-9368-0698], Sayers, R [0000-0003-1289-0998], Seymour, VR [0000-0003-3333-5512], Silván, B [0000-0002-1273-3098], Sougrati, MT [0000-0003-3740-2807], Stievano, L [0000-0001-8548-0231], Thomas, CI [0000-0001-8090-4541], Titirici, MM [0000-0003-0773-2100], Tong, J [0000-0001-7762-1460], Wood, TJ [0000-0002-5893-5664], Younesi, R [0000-0003-2538-8104], The Faraday Institution, University of St Andrews. School of Chemistry, University of St Andrews. Centre for Energy Ethics, University of St Andrews. Centre for Designer Quantum Materials, and University of St Andrews. EaSTCHEM

Subjects
Chemical process, Technology, Computer science, PAIR DISTRIBUTION FUNCTION, HIGH-ENERGY DENSITY, ELECTROCHEMICAL PROPERTIES, Materialkemi, 02 engineering and technology, 01 natural sciences, 7. Clean energy, Materials Chemistry, QD, LITHIUM-ION, Energy demand, Scope (project management), anodes, NA2TI3O7 NANOSHEETS, [CHIM.MATE]Chemical Sciences/Material chemistry, sodium ion, 021001 nanoscience & nanotechnology, Variety (cybernetics), General Energy, Roadmap, T-DAS, Lithium, 0210 nano-technology, Battery (electricity), energy materials, Energy & Fuels, HIGH-CAPACITY ANODE, batteries, Materials Science (miscellaneous), Materials Science, chemistry.chemical_element, Materials Science, Multidisciplinary, electrolytes, 010402 general chemistry, Energy storage, MECHANISTIC INSIGHTS, SDG 7 - Affordable and Clean Energy, STRUCTURAL EVOLUTION, SOLID-ELECTROLYTE INTERPHASE, Science & Technology, QD Chemistry, 0104 chemical sciences, chemistry, 13. Climate action, Sustainability, HIGH-PERFORMANCE CATHODE, Biochemical engineering, cathodes
Abstract

Tapia-Ruiz, Nuria et al., Increasing concerns regarding the sustainability of lithium sources, due to their limited availability and consequent expected price increase, have raised awareness of the importance of developing alternative energy-storage candidates that can sustain the ever-growing energy demand. Furthermore, limitations on the availability of the transition metals used in the manufacturing of cathode materials, together with questionable mining practices, are driving development towards more sustainable elements. Given the uniformly high abundance and cost-effectiveness of sodium, as well as its very suitable redox potential (close to that of lithium), sodium-ion battery technology offers tremendous potential to be a counterpart to lithium-ion batteries (LIBs) in different application scenarios, such as stationary energy storage and low-cost vehicles. This potential is reflected by the major investments that are being made by industry in a wide variety of markets and in diverse material combinations. Despite the associated advantages of being a drop-in replacement for LIBs, there are remarkable differences in the physicochemical properties between sodium and lithium that give rise to different behaviours, for example, different coordination preferences in compounds, desolvation energies, or solubility of the solid–electrolyte interphase inorganic salt components. This demands a more detailed study of the underlying physical and chemical processes occurring in sodium-ion batteries and allows great scope for groundbreaking advances in the field, from lab-scale to scale-up. This roadmap provides an extensive review by experts in academia and industry of the current state of the art in 2021 and the different research directions and strategies currently underway to improve the performance of sodium-ion batteries. The aim is to provide an opinion with respect to the current challenges and opportunities, from the fundamental properties to the practical applications of this technology., The authors gratefully acknowledge RS2E and Alistore-ERI for funding their research into Na-ion batteries. The funding received from the European Union’s Horizon 2020 research and innovation programme under Grant Agreement No. 646433 (NAIADES), the Swedish Research Council, the Swedish Energy Agency (#37671-1), and the Swedish Research Council for Environment, Agricultural Sciences and Spatial Planning (FORMAS), are all gratefully acknowledged. The many fruitful discussions within ALISTORE-ERI, and especially with M Rosa Palacín, have been most valuable. P J is also grateful for the continuous support from several of the Chalmers Areas of Advance: Materials Science and Energy. Funding from the European Union’s innovation program H2020 is acknowledged: H2020-MSCA-COFUND-2016 (DOC-FAM, Grant Agreement No. 754397). A Ponrouch is grateful to the Spanish Ministry for Economy, Industry and Competitiveness Severo Ochoa Programme for Centres of Excellence in R&D (SEV-2015-0496).

Published
2021

5. Antiproliferative and palliative activity of flavonoids in colorectal cancer.

Author

Fernández J, Silván B, Entrialgo-Cadierno R, Villar CJ, Capasso R, Uranga JA, Lombó F, and Abalo R

Subjects
Antimetabolites, Antineoplastic pharmacology, Antineoplastic Combined Chemotherapy Protocols pharmacology, Apigenin pharmacology, Colorectal Neoplasms pathology, Drug Synergism, Flavanones pharmacology, Fluorouracil pharmacology, HCT116 Cells, HT29 Cells, Humans, Luteolin pharmacology, Propiophenones pharmacology, Antineoplastic Agents, Phytogenic pharmacology, Cell Proliferation drug effects, Colorectal Neoplasms drug therapy, Flavonoids pharmacology, Palliative Care
Abstract

Flavonoids are plant bioactive compounds of great interest in nutrition and pharmacology, due to their remarkable properties as antioxidant, anti-inflammatory, antibacterial, antifungal and antitumor drugs. More than 5000 different flavonoids exist in nature, with a huge structural diversity and a plethora of interesting pharmacological properties. In this work, five flavonoids were tested for their potential use as antitumor drugs against three CRC cell lines (HCT116, HT-29 and T84). These cell lines represent three different stages of this tumor, one of which is metastatic. Xanthohumol showed the best antitumor activity on the three cancer cell lines, even better than that of the clinical drug 5-fluorouracil (5-FU), although no synergistic effect was observed in the combination therapy with this drug. On the other hand, apigenin and luteolin displayed slightly lower antitumor activities on these cancer cell lines but showed a synergistic effect in combination with 5-FU in the case of HTC116, which is of potential clinical interest. Furthermore, a literature review highlighted that these flavonoids show very interesting palliative effects on clinical symptoms such as diarrhea, mucositis, neuropathic pain and others often associated with the chemotherapy treatment of CRC. Flavonoids could provide a double effect for the combination treatment, potentiating the antitumor effect of 5-FU, and simultaneously, preventing important side effects of 5-FU chemotherapy., (Copyright © 2021 The Authors. Published by Elsevier Masson SAS.. All rights reserved.)

Published
2021
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